ruby/vm_insnhelper.c

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C
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/**********************************************************************
vm_insnhelper.c - instruction helper functions.
$Author$
Copyright (C) 2007 Koichi Sasada
**********************************************************************/
#include "ruby/internal/config.h"
#include <math.h>
#include "constant.h"
#include "debug_counter.h"
#include "internal.h"
#include "internal/class.h"
#include "internal/compar.h"
#include "internal/hash.h"
#include "internal/numeric.h"
#include "internal/proc.h"
#include "internal/random.h"
#include "internal/variable.h"
#include "variable.h"
/* finish iseq array */
#include "insns.inc"
#ifndef MJIT_HEADER
#include "insns_info.inc"
#endif
extern rb_method_definition_t *rb_method_definition_create(rb_method_type_t type, ID mid);
extern void rb_method_definition_set(const rb_method_entry_t *me, rb_method_definition_t *def, void *opts);
extern int rb_method_definition_eq(const rb_method_definition_t *d1, const rb_method_definition_t *d2);
extern VALUE rb_make_no_method_exception(VALUE exc, VALUE format, VALUE obj,
int argc, const VALUE *argv, int priv);
/* control stack frame */
static rb_control_frame_t *vm_get_ruby_level_caller_cfp(const rb_execution_context_t *ec, const rb_control_frame_t *cfp);
MJIT_STATIC VALUE
ruby_vm_special_exception_copy(VALUE exc)
{
VALUE e = rb_obj_alloc(rb_class_real(RBASIC_CLASS(exc)));
rb_obj_copy_ivar(e, exc);
return e;
}
NORETURN(static void ec_stack_overflow(rb_execution_context_t *ec, int));
static void
ec_stack_overflow(rb_execution_context_t *ec, int setup)
{
VALUE mesg = rb_ec_vm_ptr(ec)->special_exceptions[ruby_error_sysstack];
ec->raised_flag = RAISED_STACKOVERFLOW;
if (setup) {
VALUE at = rb_ec_backtrace_object(ec);
mesg = ruby_vm_special_exception_copy(mesg);
rb_ivar_set(mesg, idBt, at);
rb_ivar_set(mesg, idBt_locations, at);
}
ec->errinfo = mesg;
EC_JUMP_TAG(ec, TAG_RAISE);
}
NORETURN(static void vm_stackoverflow(void));
#ifdef MJIT_HEADER
NOINLINE(static COLDFUNC void vm_stackoverflow(void));
#endif
static void
vm_stackoverflow(void)
{
ec_stack_overflow(GET_EC(), TRUE);
}
NORETURN(MJIT_STATIC void rb_ec_stack_overflow(rb_execution_context_t *ec, int crit));
MJIT_STATIC void
rb_ec_stack_overflow(rb_execution_context_t *ec, int crit)
{
if (crit || rb_during_gc()) {
ec->raised_flag = RAISED_STACKOVERFLOW;
ec->errinfo = rb_ec_vm_ptr(ec)->special_exceptions[ruby_error_stackfatal];
EC_JUMP_TAG(ec, TAG_RAISE);
}
#ifdef USE_SIGALTSTACK
ec_stack_overflow(ec, TRUE);
#else
ec_stack_overflow(ec, FALSE);
#endif
}
#if VM_CHECK_MODE > 0
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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static int
callable_class_p(VALUE klass)
{
#if VM_CHECK_MODE >= 2
if (!klass) return FALSE;
switch (RB_BUILTIN_TYPE(klass)) {
default:
break;
case T_ICLASS:
if (!RB_TYPE_P(RCLASS_SUPER(klass), T_MODULE)) break;
case T_MODULE:
return TRUE;
}
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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while (klass) {
if (klass == rb_cBasicObject) {
return TRUE;
}
klass = RCLASS_SUPER(klass);
}
return FALSE;
#else
return klass != 0;
#endif
}
static int
callable_method_entry_p(const rb_callable_method_entry_t *cme)
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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{
if (cme == NULL) {
return TRUE;
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
else {
VM_ASSERT(IMEMO_TYPE_P((VALUE)cme, imemo_ment));
if (callable_class_p(cme->defined_class)) {
return TRUE;
}
else {
return FALSE;
}
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
}
static void
vm_check_frame_detail(VALUE type, int req_block, int req_me, int req_cref, VALUE specval, VALUE cref_or_me, int is_cframe, const rb_iseq_t *iseq)
{
unsigned int magic = (unsigned int)(type & VM_FRAME_MAGIC_MASK);
enum imemo_type cref_or_me_type = imemo_env; /* impossible value */
if (RB_TYPE_P(cref_or_me, T_IMEMO)) {
cref_or_me_type = imemo_type(cref_or_me);
}
if (type & VM_FRAME_FLAG_BMETHOD) {
req_me = TRUE;
}
if (req_block && (type & VM_ENV_FLAG_LOCAL) == 0) {
rb_bug("vm_push_frame: specval (%p) should be a block_ptr on %x frame", (void *)specval, magic);
}
if (!req_block && (type & VM_ENV_FLAG_LOCAL) != 0) {
rb_bug("vm_push_frame: specval (%p) should not be a block_ptr on %x frame", (void *)specval, magic);
}
if (req_me) {
if (cref_or_me_type != imemo_ment) {
rb_bug("vm_push_frame: (%s) should be method entry on %x frame", rb_obj_info(cref_or_me), magic);
}
}
else {
if (req_cref && cref_or_me_type != imemo_cref) {
rb_bug("vm_push_frame: (%s) should be CREF on %x frame", rb_obj_info(cref_or_me), magic);
}
else { /* cref or Qfalse */
if (cref_or_me != Qfalse && cref_or_me_type != imemo_cref) {
if (((type & VM_FRAME_FLAG_LAMBDA) || magic == VM_FRAME_MAGIC_IFUNC) && (cref_or_me_type == imemo_ment)) {
/* ignore */
}
else {
rb_bug("vm_push_frame: (%s) should be false or cref on %x frame", rb_obj_info(cref_or_me), magic);
}
}
}
}
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
if (cref_or_me_type == imemo_ment) {
const rb_callable_method_entry_t *me = (const rb_callable_method_entry_t *)cref_or_me;
if (!callable_method_entry_p(me)) {
rb_bug("vm_push_frame: ment (%s) should be callable on %x frame.", rb_obj_info(cref_or_me), magic);
}
}
if ((type & VM_FRAME_MAGIC_MASK) == VM_FRAME_MAGIC_DUMMY) {
VM_ASSERT(iseq == NULL ||
RUBY_VM_NORMAL_ISEQ_P(iseq) /* argument error. it should be fixed */);
}
else {
VM_ASSERT(is_cframe == !RUBY_VM_NORMAL_ISEQ_P(iseq));
}
}
static void
vm_check_frame(VALUE type,
VALUE specval,
VALUE cref_or_me,
const rb_iseq_t *iseq)
{
VALUE given_magic = type & VM_FRAME_MAGIC_MASK;
VM_ASSERT(FIXNUM_P(type));
#define CHECK(magic, req_block, req_me, req_cref, is_cframe) \
case magic: \
vm_check_frame_detail(type, req_block, req_me, req_cref, \
specval, cref_or_me, is_cframe, iseq); \
break
switch (given_magic) {
/* BLK ME CREF CFRAME */
CHECK(VM_FRAME_MAGIC_METHOD, TRUE, TRUE, FALSE, FALSE);
CHECK(VM_FRAME_MAGIC_CLASS, TRUE, FALSE, TRUE, FALSE);
CHECK(VM_FRAME_MAGIC_TOP, TRUE, FALSE, TRUE, FALSE);
CHECK(VM_FRAME_MAGIC_CFUNC, TRUE, TRUE, FALSE, TRUE);
CHECK(VM_FRAME_MAGIC_BLOCK, FALSE, FALSE, FALSE, FALSE);
CHECK(VM_FRAME_MAGIC_IFUNC, FALSE, FALSE, FALSE, TRUE);
CHECK(VM_FRAME_MAGIC_EVAL, FALSE, FALSE, FALSE, FALSE);
CHECK(VM_FRAME_MAGIC_RESCUE, FALSE, FALSE, FALSE, FALSE);
CHECK(VM_FRAME_MAGIC_DUMMY, TRUE, FALSE, FALSE, FALSE);
default:
rb_bug("vm_push_frame: unknown type (%x)", (unsigned int)given_magic);
}
#undef CHECK
}
static VALUE vm_stack_canary; /* Initialized later */
static bool vm_stack_canary_was_born = false;
#ifndef MJIT_HEADER
MJIT_FUNC_EXPORTED void
vm_check_canary(const rb_execution_context_t *ec, VALUE *sp)
{
const struct rb_control_frame_struct *reg_cfp = ec->cfp;
const struct rb_iseq_struct *iseq;
if (! LIKELY(vm_stack_canary_was_born)) {
return; /* :FIXME: isn't it rather fatal to enter this branch? */
}
avoid buffer overflow in vm_check_canary ec->cfp->iseq might not exist at the very beginning of a thread. ================================================================= ==82954==ERROR: AddressSanitizer: heap-buffer-overflow on address 0x7fc86f334810 at pc 0x55ceaf013125 bp 0x7ffe2eddbbf0 sp 0x7ffe2eddbbe8 READ of size 8 at 0x7fc86f334810 thread T0 #0 0x55ceaf013124 in vm_check_canary vm_insnhelper.c:217:24 #1 0x55ceaefb4796 in vm_push_frame vm_insnhelper.c:276:5 #2 0x55ceaf0124bd in th_init vm.c:2661:5 #3 0x55ceaf00d5eb in ruby_thread_init vm.c:2690:5 #4 0x55ceaf00d4b1 in rb_thread_alloc vm.c:2703:5 #5 0x55ceaef0038b in thread_s_new thread.c:872:20 #6 0x55ceaf04d8c1 in call_cfunc_m1 vm_insnhelper.c:2041:12 #7 0x55ceaf03118d in vm_call_cfunc_with_frame vm_insnhelper.c:2207:11 #8 0x55ceaf017985 in vm_call_cfunc vm_insnhelper.c:2225:12 #9 0x55ceaf01548b in vm_call_method_each_type vm_insnhelper.c:2560:9 #10 0x55ceaf014c96 in vm_call_method vm_insnhelper.c:2686:13 #11 0x55ceaefb5de4 in vm_call_general vm_insnhelper.c:2730:12 #12 0x55ceaf03c868 in vm_sendish vm_insnhelper.c:3623:11 #13 0x55ceaefc95bb in vm_exec_core insns.def:771:11 #14 0x55ceaf006700 in rb_vm_exec vm.c:1892:22 #15 0x55ceaf00acbf in rb_iseq_eval_main vm.c:2151:11 #16 0x55ceaea250ca in ruby_exec_internal eval.c:262:2 #17 0x55ceaea2498b in ruby_exec_node eval.c:326:12 #18 0x55ceaea247d0 in ruby_run_node eval.c:318:25 #19 0x55ceae88c486 in main main.c:42:9 #20 0x7fc874330b96 in __libc_start_main /build/glibc-OTsEL5/glibc-2.27/csu/../csu/libc-start.c:310 #21 0x55ceae7e5289 in _start (miniruby+0x15f289) 0x7fc86f334810 is located 16 bytes to the right of 1048576-byte region [0x7fc86f234800,0x7fc86f334800) allocated by thread T0 here: #0 0x55ceae85d56d in malloc (miniruby+0x1d756d) #1 0x55ceaea71d12 in objspace_xmalloc0 gc.c:9416:5 #2 0x55ceaea71cd2 in ruby_xmalloc2_body gc.c:9623:12 #3 0x55ceaea7d09c in ruby_xmalloc2 gc.c:11479:12 #4 0x55ceaf00c3b7 in rb_thread_recycle_stack vm.c:2462:12 #5 0x55ceaf012256 in th_init vm.c:2656:29 #6 0x55ceaf00d5eb in ruby_thread_init vm.c:2690:5 #7 0x55ceaf00d4b1 in rb_thread_alloc vm.c:2703:5 #8 0x55ceaef0038b in thread_s_new thread.c:872:20 #9 0x55ceaf04d8c1 in call_cfunc_m1 vm_insnhelper.c:2041:12 #10 0x55ceaf03118d in vm_call_cfunc_with_frame vm_insnhelper.c:2207:11 #11 0x55ceaf017985 in vm_call_cfunc vm_insnhelper.c:2225:12 #12 0x55ceaf01548b in vm_call_method_each_type vm_insnhelper.c:2560:9 #13 0x55ceaf014c96 in vm_call_method vm_insnhelper.c:2686:13 #14 0x55ceaefb5de4 in vm_call_general vm_insnhelper.c:2730:12 #15 0x55ceaf03c868 in vm_sendish vm_insnhelper.c:3623:11 #16 0x55ceaefc95bb in vm_exec_core insns.def:771:11 #17 0x55ceaf006700 in rb_vm_exec vm.c:1892:22 #18 0x55ceaf00acbf in rb_iseq_eval_main vm.c:2151:11 #19 0x55ceaea250ca in ruby_exec_internal eval.c:262:2 #20 0x55ceaea2498b in ruby_exec_node eval.c:326:12 #21 0x55ceaea247d0 in ruby_run_node eval.c:318:25 #22 0x55ceae88c486 in main main.c:42:9 #23 0x7fc874330b96 in __libc_start_main /build/glibc-OTsEL5/glibc-2.27/csu/../csu/libc-start.c:310 SUMMARY: AddressSanitizer: heap-buffer-overflow vm_insnhelper.c:217:24 in vm_check_canary Shadow bytes around the buggy address: 0x0ff98de5e8b0: 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 0x0ff98de5e8c0: 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 0x0ff98de5e8d0: 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 0x0ff98de5e8e0: 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 0x0ff98de5e8f0: 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 =>0x0ff98de5e900: fa fa[fa]fa fa fa fa fa fa fa fa fa fa fa fa fa 0x0ff98de5e910: fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa 0x0ff98de5e920: fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa 0x0ff98de5e930: fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa 0x0ff98de5e940: fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa 0x0ff98de5e950: fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa fa Shadow byte legend (one shadow byte represents 8 application bytes): Addressable: 00 Partially addressable: 01 02 03 04 05 06 07 Heap left redzone: fa Freed heap region: fd Stack left redzone: f1 Stack mid redzone: f2 Stack right redzone: f3 Stack after return: f5 Stack use after scope: f8 Global redzone: f9 Global init order: f6 Poisoned by user: f7 Container overflow: fc Array cookie: ac Intra object redzone: bb ASan internal: fe Left alloca redzone: ca Right alloca redzone: cb Shadow gap: cc ==82954==ABORTING
2019-04-25 09:03:18 +03:00
else if ((VALUE *)reg_cfp == ec->vm_stack + ec->vm_stack_size) {
/* This is at the very beginning of a thread. cfp does not exist. */
return;
}
else if (! (iseq = GET_ISEQ())) {
return;
}
else if (LIKELY(sp[0] != vm_stack_canary)) {
return;
}
else {
/* we are going to call methods below; squash the canary to
* prevent infinite loop. */
sp[0] = Qundef;
}
const VALUE *orig = rb_iseq_original_iseq(iseq);
const VALUE *encoded = iseq->body->iseq_encoded;
const ptrdiff_t pos = GET_PC() - encoded;
const enum ruby_vminsn_type insn = (enum ruby_vminsn_type)orig[pos];
const char *name = insn_name(insn);
const VALUE iseqw = rb_iseqw_new(iseq);
const VALUE inspection = rb_inspect(iseqw);
const char *stri = rb_str_to_cstr(inspection);
const VALUE disasm = rb_iseq_disasm(iseq);
const char *strd = rb_str_to_cstr(disasm);
/* rb_bug() is not capable of outputting this large contents. It
is designed to run form a SIGSEGV handler, which tends to be
very restricted. */
fprintf(stderr,
"We are killing the stack canary set by %s, "
"at %s@pc=%"PRIdPTR"\n"
"watch out the C stack trace.\n"
"%s",
name, stri, pos, strd);
rb_bug("see above.");
}
#endif
#else
#define vm_check_canary(ec, sp)
#define vm_check_frame(a, b, c, d)
#endif /* VM_CHECK_MODE > 0 */
static inline rb_control_frame_t *
vm_push_frame(rb_execution_context_t *ec,
const rb_iseq_t *iseq,
VALUE type,
VALUE self,
VALUE specval,
VALUE cref_or_me,
const VALUE *pc,
VALUE *sp,
int local_size,
int stack_max)
{
rb_control_frame_t *const cfp = RUBY_VM_NEXT_CONTROL_FRAME(ec->cfp);
vm_check_frame(type, specval, cref_or_me, iseq);
VM_ASSERT(local_size >= 0);
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
/* check stack overflow */
CHECK_VM_STACK_OVERFLOW0(cfp, sp, local_size + stack_max);
vm_check_canary(ec, sp);
ec->cfp = cfp;
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
/* setup new frame */
cfp->pc = (VALUE *)pc;
cfp->iseq = (rb_iseq_t *)iseq;
cfp->self = self;
cfp->block_code = NULL;
/* setup vm value stack */
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
/* initialize local variables */
for (int i=0; i < local_size; i++) {
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
*sp++ = Qnil;
}
/* setup ep with managing data */
VM_ASSERT(VM_ENV_DATA_INDEX_ME_CREF == -2);
VM_ASSERT(VM_ENV_DATA_INDEX_SPECVAL == -1);
VM_ASSERT(VM_ENV_DATA_INDEX_FLAGS == -0);
*sp++ = cref_or_me; /* ep[-2] / Qnil or T_IMEMO(cref) or T_IMEMO(ment) */
*sp++ = specval /* ep[-1] / block handler or prev env ptr */;
*sp = type; /* ep[-0] / ENV_FLAGS */
mjit_compile.c: merge initial JIT compiler which has been developed by Takashi Kokubun <takashikkbn@gmail> as YARV-MJIT. Many of its bugs are fixed by wanabe <s.wanabe@gmail.com>. This JIT compiler is designed to be a safe migration path to introduce JIT compiler to MRI. So this commit does not include any bytecode changes or dynamic instruction modifications, which are done in original MJIT. This commit even strips off some aggressive optimizations from YARV-MJIT, and thus it's slower than YARV-MJIT too. But it's still fairly faster than Ruby 2.5 in some benchmarks (attached below). Note that this JIT compiler passes `make test`, `make test-all`, `make test-spec` without JIT, and even with JIT. Not only it's perfectly safe with JIT disabled because it does not replace VM instructions unlike MJIT, but also with JIT enabled it stably runs Ruby applications including Rails applications. I'm expecting this version as just "initial" JIT compiler. I have many optimization ideas which are skipped for initial merging, and you may easily replace this JIT compiler with a faster one by just replacing mjit_compile.c. `mjit_compile` interface is designed for the purpose. common.mk: update dependencies for mjit_compile.c. internal.h: declare `rb_vm_insn_addr2insn` for MJIT. vm.c: exclude some definitions if `-DMJIT_HEADER` is provided to compiler. This avoids to include some functions which take a long time to compile, e.g. vm_exec_core. Some of the purpose is achieved in transform_mjit_header.rb (see `IGNORED_FUNCTIONS`) but others are manually resolved for now. Load mjit_helper.h for MJIT header. mjit_helper.h: New. This is a file used only by JIT-ed code. I'll refactor `mjit_call_cfunc` later. vm_eval.c: add some #ifdef switches to skip compiling some functions like Init_vm_eval. win32/mkexports.rb: export thread/ec functions, which are used by MJIT. include/ruby/defines.h: add MJIT_FUNC_EXPORTED macro alis to clarify that a function is exported only for MJIT. array.c: export a function used by MJIT. bignum.c: ditto. class.c: ditto. compile.c: ditto. error.c: ditto. gc.c: ditto. hash.c: ditto. iseq.c: ditto. numeric.c: ditto. object.c: ditto. proc.c: ditto. re.c: ditto. st.c: ditto. string.c: ditto. thread.c: ditto. variable.c: ditto. vm_backtrace.c: ditto. vm_insnhelper.c: ditto. vm_method.c: ditto. I would like to improve maintainability of function exports, but I believe this way is acceptable as initial merging if we clarify the new exports are for MJIT (so that we can use them as TODO list to fix) and add unit tests to detect unresolved symbols. I'll add unit tests of JIT compilations in succeeding commits. Author: Takashi Kokubun <takashikkbn@gmail.com> Contributor: wanabe <s.wanabe@gmail.com> Part of [Feature #14235] --- * Known issues * Code generated by gcc is faster than clang. The benchmark may be worse in macOS. Following benchmark result is provided by gcc w/ Linux. * Performance is decreased when Google Chrome is running * JIT can work on MinGW, but it doesn't improve performance at least in short running benchmark. * Currently it doesn't perform well with Rails. We'll try to fix this before release. --- * Benchmark reslts Benchmarked with: Intel 4.0GHz i7-4790K with 16GB memory under x86-64 Ubuntu 8 Cores - 2.0.0-p0: Ruby 2.0.0-p0 - r62186: Ruby trunk (early 2.6.0), before MJIT changes - JIT off: On this commit, but without `--jit` option - JIT on: On this commit, and with `--jit` option ** Optcarrot fps Benchmark: https://github.com/mame/optcarrot | |2.0.0-p0 |r62186 |JIT off |JIT on | |:--------|:--------|:--------|:--------|:--------| |fps |37.32 |51.46 |51.31 |58.88 | |vs 2.0.0 |1.00x |1.38x |1.37x |1.58x | ** MJIT benchmarks Benchmark: https://github.com/benchmark-driver/mjit-benchmarks (Original: https://github.com/vnmakarov/ruby/tree/rtl_mjit_branch/MJIT-benchmarks) | |2.0.0-p0 |r62186 |JIT off |JIT on | |:----------|:--------|:--------|:--------|:--------| |aread |1.00 |1.09 |1.07 |2.19 | |aref |1.00 |1.13 |1.11 |2.22 | |aset |1.00 |1.50 |1.45 |2.64 | |awrite |1.00 |1.17 |1.13 |2.20 | |call |1.00 |1.29 |1.26 |2.02 | |const2 |1.00 |1.10 |1.10 |2.19 | |const |1.00 |1.11 |1.10 |2.19 | |fannk |1.00 |1.04 |1.02 |1.00 | |fib |1.00 |1.32 |1.31 |1.84 | |ivread |1.00 |1.13 |1.12 |2.43 | |ivwrite |1.00 |1.23 |1.21 |2.40 | |mandelbrot |1.00 |1.13 |1.16 |1.28 | |meteor |1.00 |2.97 |2.92 |3.17 | |nbody |1.00 |1.17 |1.15 |1.49 | |nest-ntimes|1.00 |1.22 |1.20 |1.39 | |nest-while |1.00 |1.10 |1.10 |1.37 | |norm |1.00 |1.18 |1.16 |1.24 | |nsvb |1.00 |1.16 |1.16 |1.17 | |red-black |1.00 |1.02 |0.99 |1.12 | |sieve |1.00 |1.30 |1.28 |1.62 | |trees |1.00 |1.14 |1.13 |1.19 | |while |1.00 |1.12 |1.11 |2.41 | ** Discourse's script/bench.rb Benchmark: https://github.com/discourse/discourse/blob/v1.8.7/script/bench.rb NOTE: Rails performance was somehow a little degraded with JIT for now. We should fix this. (At least I know opt_aref is performing badly in JIT and I have an idea to fix it. Please wait for the fix.) *** JIT off Your Results: (note for timings- percentile is first, duration is second in millisecs) categories_admin: 50: 17 75: 18 90: 22 99: 29 home_admin: 50: 21 75: 21 90: 27 99: 40 topic_admin: 50: 17 75: 18 90: 22 99: 32 categories: 50: 35 75: 41 90: 43 99: 77 home: 50: 39 75: 46 90: 49 99: 95 topic: 50: 46 75: 52 90: 56 99: 101 *** JIT on Your Results: (note for timings- percentile is first, duration is second in millisecs) categories_admin: 50: 19 75: 21 90: 25 99: 33 home_admin: 50: 24 75: 26 90: 30 99: 35 topic_admin: 50: 19 75: 20 90: 25 99: 30 categories: 50: 40 75: 44 90: 48 99: 76 home: 50: 42 75: 48 90: 51 99: 89 topic: 50: 49 75: 55 90: 58 99: 99 git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@62197 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-02-04 14:22:28 +03:00
/* Store initial value of ep as bp to skip calculation cost of bp on JIT cancellation. */
cfp->ep = sp;
cfp->__bp__ = cfp->sp = sp + 1;
#if VM_DEBUG_BP_CHECK
cfp->bp_check = sp + 1;
#endif
if (VMDEBUG == 2) {
SDR();
}
#if USE_DEBUG_COUNTER
RB_DEBUG_COUNTER_INC(frame_push);
switch (type & VM_FRAME_MAGIC_MASK) {
case VM_FRAME_MAGIC_METHOD: RB_DEBUG_COUNTER_INC(frame_push_method); break;
case VM_FRAME_MAGIC_BLOCK: RB_DEBUG_COUNTER_INC(frame_push_block); break;
case VM_FRAME_MAGIC_CLASS: RB_DEBUG_COUNTER_INC(frame_push_class); break;
case VM_FRAME_MAGIC_TOP: RB_DEBUG_COUNTER_INC(frame_push_top); break;
case VM_FRAME_MAGIC_CFUNC: RB_DEBUG_COUNTER_INC(frame_push_cfunc); break;
case VM_FRAME_MAGIC_IFUNC: RB_DEBUG_COUNTER_INC(frame_push_ifunc); break;
case VM_FRAME_MAGIC_EVAL: RB_DEBUG_COUNTER_INC(frame_push_eval); break;
case VM_FRAME_MAGIC_RESCUE: RB_DEBUG_COUNTER_INC(frame_push_rescue); break;
case VM_FRAME_MAGIC_DUMMY: RB_DEBUG_COUNTER_INC(frame_push_dummy); break;
default: rb_bug("unreachable");
}
{
rb_control_frame_t *prev_cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(cfp);
if (RUBY_VM_END_CONTROL_FRAME(ec) != prev_cfp) {
int cur_ruby_frame = VM_FRAME_RUBYFRAME_P(cfp);
int pre_ruby_frame = VM_FRAME_RUBYFRAME_P(prev_cfp);
pre_ruby_frame ? (cur_ruby_frame ? RB_DEBUG_COUNTER_INC(frame_R2R) :
RB_DEBUG_COUNTER_INC(frame_R2C)):
(cur_ruby_frame ? RB_DEBUG_COUNTER_INC(frame_C2R) :
RB_DEBUG_COUNTER_INC(frame_C2C));
}
}
#endif
return cfp;
}
/* return TRUE if the frame is finished */
static inline int
vm_pop_frame(rb_execution_context_t *ec, rb_control_frame_t *cfp, const VALUE *ep)
{
VALUE flags = ep[VM_ENV_DATA_INDEX_FLAGS];
if (VM_CHECK_MODE >= 4) rb_gc_verify_internal_consistency();
if (VMDEBUG == 2) SDR();
RUBY_VM_CHECK_INTS(ec);
ec->cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(cfp);
return flags & VM_FRAME_FLAG_FINISH;
}
MJIT_STATIC void
rb_vm_pop_frame(rb_execution_context_t *ec)
{
vm_pop_frame(ec, ec->cfp, ec->cfp->ep);
}
/* method dispatch */
static inline VALUE
rb_arity_error_new(int argc, int min, int max)
{
VALUE err_mess = 0;
if (min == max) {
err_mess = rb_sprintf("wrong number of arguments (given %d, expected %d)", argc, min);
}
else if (max == UNLIMITED_ARGUMENTS) {
err_mess = rb_sprintf("wrong number of arguments (given %d, expected %d+)", argc, min);
}
else {
err_mess = rb_sprintf("wrong number of arguments (given %d, expected %d..%d)", argc, min, max);
}
return rb_exc_new3(rb_eArgError, err_mess);
}
MJIT_STATIC void
rb_error_arity(int argc, int min, int max)
{
rb_exc_raise(rb_arity_error_new(argc, min, max));
}
/* lvar */
NOINLINE(static void vm_env_write_slowpath(const VALUE *ep, int index, VALUE v));
static void
vm_env_write_slowpath(const VALUE *ep, int index, VALUE v)
{
/* remember env value forcely */
rb_gc_writebarrier_remember(VM_ENV_ENVVAL(ep));
VM_FORCE_WRITE(&ep[index], v);
VM_ENV_FLAGS_UNSET(ep, VM_ENV_FLAG_WB_REQUIRED);
RB_DEBUG_COUNTER_INC(lvar_set_slowpath);
}
static inline void
vm_env_write(const VALUE *ep, int index, VALUE v)
{
VALUE flags = ep[VM_ENV_DATA_INDEX_FLAGS];
if (LIKELY((flags & VM_ENV_FLAG_WB_REQUIRED) == 0)) {
VM_STACK_ENV_WRITE(ep, index, v);
}
else {
vm_env_write_slowpath(ep, index, v);
}
}
MJIT_STATIC VALUE
rb_vm_bh_to_procval(const rb_execution_context_t *ec, VALUE block_handler)
{
if (block_handler == VM_BLOCK_HANDLER_NONE) {
return Qnil;
}
else {
switch (vm_block_handler_type(block_handler)) {
case block_handler_type_iseq:
case block_handler_type_ifunc:
return rb_vm_make_proc(ec, VM_BH_TO_CAPT_BLOCK(block_handler), rb_cProc);
case block_handler_type_symbol:
return rb_sym_to_proc(VM_BH_TO_SYMBOL(block_handler));
case block_handler_type_proc:
return VM_BH_TO_PROC(block_handler);
default:
VM_UNREACHABLE(rb_vm_bh_to_procval);
}
}
}
/* svar */
#if VM_CHECK_MODE > 0
static int
vm_svar_valid_p(VALUE svar)
{
if (RB_TYPE_P((VALUE)svar, T_IMEMO)) {
switch (imemo_type(svar)) {
case imemo_svar:
case imemo_cref:
case imemo_ment:
return TRUE;
default:
break;
}
}
rb_bug("vm_svar_valid_p: unknown type: %s", rb_obj_info(svar));
return FALSE;
}
#endif
static inline struct vm_svar *
lep_svar(const rb_execution_context_t *ec, const VALUE *lep)
{
VALUE svar;
if (lep && (ec == NULL || ec->root_lep != lep)) {
svar = lep[VM_ENV_DATA_INDEX_ME_CREF];
}
else {
svar = ec->root_svar;
}
VM_ASSERT(svar == Qfalse || vm_svar_valid_p(svar));
return (struct vm_svar *)svar;
}
static inline void
lep_svar_write(const rb_execution_context_t *ec, const VALUE *lep, const struct vm_svar *svar)
{
VM_ASSERT(vm_svar_valid_p((VALUE)svar));
if (lep && (ec == NULL || ec->root_lep != lep)) {
vm_env_write(lep, VM_ENV_DATA_INDEX_ME_CREF, (VALUE)svar);
}
else {
RB_OBJ_WRITE(rb_ec_thread_ptr(ec)->self, &ec->root_svar, svar);
}
}
static VALUE
lep_svar_get(const rb_execution_context_t *ec, const VALUE *lep, rb_num_t key)
{
const struct vm_svar *svar = lep_svar(ec, lep);
if ((VALUE)svar == Qfalse || imemo_type((VALUE)svar) != imemo_svar) return Qnil;
switch (key) {
case VM_SVAR_LASTLINE:
return svar->lastline;
case VM_SVAR_BACKREF:
return svar->backref;
default: {
const VALUE ary = svar->others;
if (NIL_P(ary)) {
return Qnil;
}
else {
return rb_ary_entry(ary, key - VM_SVAR_EXTRA_START);
}
}
}
}
static struct vm_svar *
svar_new(VALUE obj)
{
return (struct vm_svar *)rb_imemo_new(imemo_svar, Qnil, Qnil, Qnil, obj);
}
static void
lep_svar_set(const rb_execution_context_t *ec, const VALUE *lep, rb_num_t key, VALUE val)
{
struct vm_svar *svar = lep_svar(ec, lep);
if ((VALUE)svar == Qfalse || imemo_type((VALUE)svar) != imemo_svar) {
lep_svar_write(ec, lep, svar = svar_new((VALUE)svar));
}
switch (key) {
case VM_SVAR_LASTLINE:
RB_OBJ_WRITE(svar, &svar->lastline, val);
return;
case VM_SVAR_BACKREF:
RB_OBJ_WRITE(svar, &svar->backref, val);
return;
default: {
VALUE ary = svar->others;
if (NIL_P(ary)) {
RB_OBJ_WRITE(svar, &svar->others, ary = rb_ary_new());
}
rb_ary_store(ary, key - VM_SVAR_EXTRA_START, val);
}
}
}
static inline VALUE
vm_getspecial(const rb_execution_context_t *ec, const VALUE *lep, rb_num_t key, rb_num_t type)
{
VALUE val;
if (type == 0) {
val = lep_svar_get(ec, lep, key);
}
else {
VALUE backref = lep_svar_get(ec, lep, VM_SVAR_BACKREF);
if (type & 0x01) {
switch (type >> 1) {
case '&':
val = rb_reg_last_match(backref);
break;
case '`':
val = rb_reg_match_pre(backref);
break;
case '\'':
val = rb_reg_match_post(backref);
break;
case '+':
val = rb_reg_match_last(backref);
break;
default:
rb_bug("unexpected back-ref");
}
}
else {
val = rb_reg_nth_match((int)(type >> 1), backref);
}
}
return val;
}
PUREFUNC(static rb_callable_method_entry_t *check_method_entry(VALUE obj, int can_be_svar));
static rb_callable_method_entry_t *
check_method_entry(VALUE obj, int can_be_svar)
{
if (obj == Qfalse) return NULL;
#if VM_CHECK_MODE > 0
if (!RB_TYPE_P(obj, T_IMEMO)) rb_bug("check_method_entry: unknown type: %s", rb_obj_info(obj));
#endif
switch (imemo_type(obj)) {
case imemo_ment:
return (rb_callable_method_entry_t *)obj;
case imemo_cref:
return NULL;
case imemo_svar:
if (can_be_svar) {
return check_method_entry(((struct vm_svar *)obj)->cref_or_me, FALSE);
}
default:
#if VM_CHECK_MODE > 0
rb_bug("check_method_entry: svar should not be there:");
#endif
return NULL;
}
}
MJIT_STATIC const rb_callable_method_entry_t *
rb_vm_frame_method_entry(const rb_control_frame_t *cfp)
{
const VALUE *ep = cfp->ep;
rb_callable_method_entry_t *me;
while (!VM_ENV_LOCAL_P(ep)) {
if ((me = check_method_entry(ep[VM_ENV_DATA_INDEX_ME_CREF], FALSE)) != NULL) return me;
ep = VM_ENV_PREV_EP(ep);
}
return check_method_entry(ep[VM_ENV_DATA_INDEX_ME_CREF], TRUE);
}
static rb_cref_t *
method_entry_cref(rb_callable_method_entry_t *me)
{
switch (me->def->type) {
case VM_METHOD_TYPE_ISEQ:
return me->def->body.iseq.cref;
default:
return NULL;
}
}
#if VM_CHECK_MODE == 0
PUREFUNC(static rb_cref_t *check_cref(VALUE, int));
#endif
static rb_cref_t *
check_cref(VALUE obj, int can_be_svar)
{
if (obj == Qfalse) return NULL;
#if VM_CHECK_MODE > 0
if (!RB_TYPE_P(obj, T_IMEMO)) rb_bug("check_cref: unknown type: %s", rb_obj_info(obj));
#endif
switch (imemo_type(obj)) {
case imemo_ment:
return method_entry_cref((rb_callable_method_entry_t *)obj);
case imemo_cref:
return (rb_cref_t *)obj;
case imemo_svar:
if (can_be_svar) {
return check_cref(((struct vm_svar *)obj)->cref_or_me, FALSE);
}
default:
#if VM_CHECK_MODE > 0
rb_bug("check_method_entry: svar should not be there:");
#endif
return NULL;
}
}
static inline rb_cref_t *
vm_env_cref(const VALUE *ep)
{
rb_cref_t *cref;
while (!VM_ENV_LOCAL_P(ep)) {
if ((cref = check_cref(ep[VM_ENV_DATA_INDEX_ME_CREF], FALSE)) != NULL) return cref;
ep = VM_ENV_PREV_EP(ep);
}
return check_cref(ep[VM_ENV_DATA_INDEX_ME_CREF], TRUE);
}
static int
is_cref(const VALUE v, int can_be_svar)
{
if (RB_TYPE_P(v, T_IMEMO)) {
switch (imemo_type(v)) {
case imemo_cref:
return TRUE;
case imemo_svar:
if (can_be_svar) return is_cref(((struct vm_svar *)v)->cref_or_me, FALSE);
default:
break;
}
}
return FALSE;
}
static int
vm_env_cref_by_cref(const VALUE *ep)
{
while (!VM_ENV_LOCAL_P(ep)) {
if (is_cref(ep[VM_ENV_DATA_INDEX_ME_CREF], FALSE)) return TRUE;
ep = VM_ENV_PREV_EP(ep);
}
return is_cref(ep[VM_ENV_DATA_INDEX_ME_CREF], TRUE);
}
static rb_cref_t *
cref_replace_with_duplicated_cref_each_frame(const VALUE *vptr, int can_be_svar, VALUE parent)
{
const VALUE v = *vptr;
rb_cref_t *cref, *new_cref;
if (RB_TYPE_P(v, T_IMEMO)) {
switch (imemo_type(v)) {
case imemo_cref:
cref = (rb_cref_t *)v;
new_cref = vm_cref_dup(cref);
if (parent) {
RB_OBJ_WRITE(parent, vptr, new_cref);
}
else {
VM_FORCE_WRITE(vptr, (VALUE)new_cref);
}
return (rb_cref_t *)new_cref;
case imemo_svar:
if (can_be_svar) {
return cref_replace_with_duplicated_cref_each_frame((const VALUE *)&((struct vm_svar *)v)->cref_or_me, FALSE, v);
}
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/* fall through */
case imemo_ment:
rb_bug("cref_replace_with_duplicated_cref_each_frame: unreachable");
default:
break;
}
}
return FALSE;
}
static rb_cref_t *
vm_cref_replace_with_duplicated_cref(const VALUE *ep)
{
if (vm_env_cref_by_cref(ep)) {
rb_cref_t *cref;
VALUE envval;
while (!VM_ENV_LOCAL_P(ep)) {
envval = VM_ENV_ESCAPED_P(ep) ? VM_ENV_ENVVAL(ep) : Qfalse;
if ((cref = cref_replace_with_duplicated_cref_each_frame(&ep[VM_ENV_DATA_INDEX_ME_CREF], FALSE, envval)) != NULL) {
return cref;
}
ep = VM_ENV_PREV_EP(ep);
}
envval = VM_ENV_ESCAPED_P(ep) ? VM_ENV_ENVVAL(ep) : Qfalse;
return cref_replace_with_duplicated_cref_each_frame(&ep[VM_ENV_DATA_INDEX_ME_CREF], TRUE, envval);
}
else {
rb_bug("vm_cref_dup: unreachable");
}
}
static rb_cref_t *
vm_get_cref(const VALUE *ep)
{
rb_cref_t *cref = vm_env_cref(ep);
if (cref != NULL) {
return cref;
}
else {
rb_bug("vm_get_cref: unreachable");
}
}
static rb_cref_t *
vm_ec_cref(const rb_execution_context_t *ec)
{
const rb_control_frame_t *cfp = rb_vm_get_ruby_level_next_cfp(ec, ec->cfp);
if (cfp == NULL) {
return NULL;
}
return vm_get_cref(cfp->ep);
}
static const rb_cref_t *
vm_get_const_key_cref(const VALUE *ep)
{
const rb_cref_t *cref = vm_get_cref(ep);
const rb_cref_t *key_cref = cref;
while (cref) {
2019-08-09 05:11:18 +03:00
if (FL_TEST(CREF_CLASS(cref), FL_SINGLETON) ||
FL_TEST(CREF_CLASS(cref), RCLASS_CLONED)) {
return key_cref;
}
cref = CREF_NEXT(cref);
}
/* does not include singleton class */
return NULL;
}
void
rb_vm_rewrite_cref(rb_cref_t *cref, VALUE old_klass, VALUE new_klass, rb_cref_t **new_cref_ptr)
{
rb_cref_t *new_cref;
while (cref) {
if (CREF_CLASS(cref) == old_klass) {
new_cref = vm_cref_new_use_prev(new_klass, METHOD_VISI_UNDEF, FALSE, cref, FALSE);
*new_cref_ptr = new_cref;
return;
}
new_cref = vm_cref_new_use_prev(CREF_CLASS(cref), METHOD_VISI_UNDEF, FALSE, cref, FALSE);
cref = CREF_NEXT(cref);
*new_cref_ptr = new_cref;
new_cref_ptr = (rb_cref_t **)&new_cref->next;
}
*new_cref_ptr = NULL;
}
static rb_cref_t *
vm_cref_push(const rb_execution_context_t *ec, VALUE klass, const VALUE *ep, int pushed_by_eval)
{
rb_cref_t *prev_cref = NULL;
if (ep) {
prev_cref = vm_env_cref(ep);
}
else {
rb_control_frame_t *cfp = vm_get_ruby_level_caller_cfp(ec, ec->cfp);
if (cfp) {
prev_cref = vm_env_cref(cfp->ep);
}
}
return vm_cref_new(klass, METHOD_VISI_PUBLIC, FALSE, prev_cref, pushed_by_eval);
}
static inline VALUE
vm_get_cbase(const VALUE *ep)
{
const rb_cref_t *cref = vm_get_cref(ep);
VALUE klass = Qundef;
while (cref) {
if ((klass = CREF_CLASS(cref)) != 0) {
break;
}
cref = CREF_NEXT(cref);
}
return klass;
}
static inline VALUE
vm_get_const_base(const VALUE *ep)
{
const rb_cref_t *cref = vm_get_cref(ep);
VALUE klass = Qundef;
while (cref) {
if (!CREF_PUSHED_BY_EVAL(cref) &&
(klass = CREF_CLASS(cref)) != 0) {
break;
}
cref = CREF_NEXT(cref);
}
return klass;
}
static inline void
vm_check_if_namespace(VALUE klass)
{
if (!RB_TYPE_P(klass, T_CLASS) && !RB_TYPE_P(klass, T_MODULE)) {
rb_raise(rb_eTypeError, "%+"PRIsVALUE" is not a class/module", klass);
}
}
static inline void
vm_ensure_not_refinement_module(VALUE self)
{
if (RB_TYPE_P(self, T_MODULE) && FL_TEST(self, RMODULE_IS_REFINEMENT)) {
rb_warn("not defined at the refinement, but at the outer class/module");
}
}
static inline VALUE
vm_get_iclass(rb_control_frame_t *cfp, VALUE klass)
{
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
return klass;
}
static inline VALUE
2019-11-25 09:05:53 +03:00
vm_get_ev_const(rb_execution_context_t *ec, VALUE orig_klass, ID id, bool allow_nil, int is_defined)
{
void rb_const_warn_if_deprecated(const rb_const_entry_t *ce, VALUE klass, ID id);
VALUE val;
if (orig_klass == Qnil && allow_nil) {
/* in current lexical scope */
const rb_cref_t *root_cref = vm_get_cref(ec->cfp->ep);
const rb_cref_t *cref;
VALUE klass = Qnil;
while (root_cref && CREF_PUSHED_BY_EVAL(root_cref)) {
root_cref = CREF_NEXT(root_cref);
}
cref = root_cref;
while (cref && CREF_NEXT(cref)) {
if (CREF_PUSHED_BY_EVAL(cref)) {
klass = Qnil;
}
else {
klass = CREF_CLASS(cref);
}
cref = CREF_NEXT(cref);
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
if (!NIL_P(klass)) {
VALUE av, am = 0;
rb_const_entry_t *ce;
search_continue:
if ((ce = rb_const_lookup(klass, id))) {
rb_const_warn_if_deprecated(ce, klass, id);
val = ce->value;
if (val == Qundef) {
if (am == klass) break;
am = klass;
if (is_defined) return 1;
if (rb_autoloading_value(klass, id, &av, NULL)) return av;
rb_autoload_load(klass, id);
goto search_continue;
}
else {
if (is_defined) {
return 1;
}
else {
return val;
}
}
}
}
}
/* search self */
if (root_cref && !NIL_P(CREF_CLASS(root_cref))) {
klass = vm_get_iclass(ec->cfp, CREF_CLASS(root_cref));
}
else {
klass = CLASS_OF(ec->cfp->self);
}
if (is_defined) {
return rb_const_defined(klass, id);
}
else {
return rb_const_get(klass, id);
}
}
else {
vm_check_if_namespace(orig_klass);
if (is_defined) {
return rb_public_const_defined_from(orig_klass, id);
}
else {
return rb_public_const_get_from(orig_klass, id);
}
}
}
static inline VALUE
vm_get_cvar_base(const rb_cref_t *cref, rb_control_frame_t *cfp, int top_level_raise)
{
VALUE klass;
if (!cref) {
rb_bug("vm_get_cvar_base: no cref");
}
while (CREF_NEXT(cref) &&
(NIL_P(CREF_CLASS(cref)) || FL_TEST(CREF_CLASS(cref), FL_SINGLETON) ||
CREF_PUSHED_BY_EVAL(cref))) {
cref = CREF_NEXT(cref);
}
if (top_level_raise && !CREF_NEXT(cref)) {
rb_raise(rb_eRuntimeError, "class variable access from toplevel");
}
klass = vm_get_iclass(cfp, CREF_CLASS(cref));
if (NIL_P(klass)) {
rb_raise(rb_eTypeError, "no class variables available");
}
return klass;
}
static VALUE
vm_search_const_defined_class(const VALUE cbase, ID id)
{
if (rb_const_defined_at(cbase, id)) return cbase;
if (cbase == rb_cObject) {
VALUE tmp = RCLASS_SUPER(cbase);
while (tmp) {
if (rb_const_defined_at(tmp, id)) return tmp;
tmp = RCLASS_SUPER(tmp);
}
}
return 0;
}
ALWAYS_INLINE(static VALUE vm_getivar(VALUE, ID, IVC, const struct rb_callcache *, int));
static inline VALUE
vm_getivar(VALUE obj, ID id, IVC ic, const struct rb_callcache *cc, int is_attr)
{
#if OPT_IC_FOR_IVAR
VALUE val = Qundef;
if (SPECIAL_CONST_P(obj)) {
// frozen?
}
else if (LIKELY(is_attr ?
RB_DEBUG_COUNTER_INC_UNLESS(ivar_get_ic_miss_unset, vm_cc_attr_index(cc) > 0) :
RB_DEBUG_COUNTER_INC_UNLESS(ivar_get_ic_miss_serial,
ic->ic_serial == RCLASS_SERIAL(RBASIC(obj)->klass)))) {
st_index_t index = !is_attr ? ic->index : (vm_cc_attr_index(cc) - 1);
RB_DEBUG_COUNTER_INC(ivar_get_ic_hit);
if (LIKELY(BUILTIN_TYPE(obj) == T_OBJECT) &&
LIKELY(index < ROBJECT_NUMIV(obj))) {
val = ROBJECT_IVPTR(obj)[index];
}
else if (FL_TEST_RAW(obj, FL_EXIVAR)) {
struct gen_ivtbl *ivtbl;
if (LIKELY(st_lookup(rb_ivar_generic_ivtbl(), (st_data_t)obj, (st_data_t *)&ivtbl)) &&
LIKELY(index < ivtbl->numiv)) {
val = ivtbl->ivptr[index];
}
}
goto ret;
}
else {
struct st_table *iv_index_tbl;
st_index_t numiv;
VALUE *ivptr;
st_data_t index;
if (BUILTIN_TYPE(obj) == T_OBJECT) {
iv_index_tbl = ROBJECT_IV_INDEX_TBL(obj);
numiv = ROBJECT_NUMIV(obj);
ivptr = ROBJECT_IVPTR(obj);
fill:
if (iv_index_tbl) {
if (st_lookup(iv_index_tbl, id, &index)) {
if (!is_attr) {
ic->index = index;
ic->ic_serial = RCLASS_SERIAL(RBASIC(obj)->klass);
}
else { /* call_info */
vm_cc_attr_index_set(cc, (int)index + 1);
}
if (index < numiv) {
val = ivptr[index];
}
}
}
}
else if (FL_TEST_RAW(obj, FL_EXIVAR)) {
struct gen_ivtbl *ivtbl;
if (LIKELY(st_lookup(rb_ivar_generic_ivtbl(), (st_data_t)obj, (st_data_t *)&ivtbl))) {
numiv = ivtbl->numiv;
ivptr = ivtbl->ivptr;
iv_index_tbl = RCLASS_IV_INDEX_TBL(rb_obj_class(obj));
goto fill;
}
}
else {
// T_CLASS / T_MODULE
goto general_path;
}
ret:
if (LIKELY(val != Qundef)) {
return val;
}
else {
if (!is_attr && RTEST(ruby_verbose)) {
rb_warning("instance variable %"PRIsVALUE" not initialized", QUOTE_ID(id));
}
return Qnil;
}
}
general_path:
#endif /* OPT_IC_FOR_IVAR */
RB_DEBUG_COUNTER_INC(ivar_get_ic_miss);
if (is_attr) {
return rb_attr_get(obj, id);
}
else {
return rb_ivar_get(obj, id);
}
}
static inline VALUE
vm_setivar(VALUE obj, ID id, VALUE val, IVC ic, const struct rb_callcache *cc, int is_attr)
{
#if OPT_IC_FOR_IVAR
rb_check_frozen_internal(obj);
if (LIKELY(RB_TYPE_P(obj, T_OBJECT))) {
VALUE klass = RBASIC(obj)->klass;
st_data_t index;
if (LIKELY(
(!is_attr && RB_DEBUG_COUNTER_INC_UNLESS(ivar_set_ic_miss_serial, ic->ic_serial == RCLASS_SERIAL(klass))) ||
( is_attr && RB_DEBUG_COUNTER_INC_UNLESS(ivar_set_ic_miss_unset, vm_cc_attr_index(cc) > 0)))) {
VALUE *ptr = ROBJECT_IVPTR(obj);
index = !is_attr ? ic->index : vm_cc_attr_index(cc)-1;
if (RB_DEBUG_COUNTER_INC_UNLESS(ivar_set_ic_miss_oorange, index < ROBJECT_NUMIV(obj))) {
RB_OBJ_WRITE(obj, &ptr[index], val);
RB_DEBUG_COUNTER_INC(ivar_set_ic_hit);
return val; /* inline cache hit */
}
}
else {
struct st_table *iv_index_tbl = ROBJECT_IV_INDEX_TBL(obj);
if (iv_index_tbl && st_lookup(iv_index_tbl, (st_data_t)id, &index)) {
if (!is_attr) {
ic->index = index;
ic->ic_serial = RCLASS_SERIAL(klass);
}
else if (index >= INT_MAX) {
rb_raise(rb_eArgError, "too many instance variables");
}
else {
vm_cc_attr_index_set(cc, (int)(index + 1));
}
}
/* fall through */
}
}
else {
RB_DEBUG_COUNTER_INC(ivar_set_ic_miss_noobject);
}
#endif /* OPT_IC_FOR_IVAR */
RB_DEBUG_COUNTER_INC(ivar_set_ic_miss);
return rb_ivar_set(obj, id, val);
}
static inline VALUE
vm_getinstancevariable(VALUE obj, ID id, IVC ic)
{
return vm_getivar(obj, id, ic, NULL, FALSE);
}
static inline void
vm_setinstancevariable(VALUE obj, ID id, VALUE val, IVC ic)
{
vm_setivar(obj, id, val, ic, 0, 0);
}
static VALUE
vm_throw_continue(const rb_execution_context_t *ec, VALUE err)
{
/* continue throw */
if (FIXNUM_P(err)) {
ec->tag->state = FIX2INT(err);
}
else if (SYMBOL_P(err)) {
ec->tag->state = TAG_THROW;
}
else if (THROW_DATA_P(err)) {
ec->tag->state = THROW_DATA_STATE((struct vm_throw_data *)err);
}
else {
ec->tag->state = TAG_RAISE;
}
return err;
}
static VALUE
vm_throw_start(const rb_execution_context_t *ec, rb_control_frame_t *const reg_cfp, enum ruby_tag_type state,
const int flag, const VALUE throwobj)
{
const rb_control_frame_t *escape_cfp = NULL;
const rb_control_frame_t * const eocfp = RUBY_VM_END_CONTROL_FRAME(ec); /* end of control frame pointer */
if (flag != 0) {
/* do nothing */
}
else if (state == TAG_BREAK) {
int is_orphan = 1;
const VALUE *ep = GET_EP();
const rb_iseq_t *base_iseq = GET_ISEQ();
escape_cfp = reg_cfp;
2015-07-22 01:52:59 +03:00
while (base_iseq->body->type != ISEQ_TYPE_BLOCK) {
if (escape_cfp->iseq->body->type == ISEQ_TYPE_CLASS) {
escape_cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(escape_cfp);
ep = escape_cfp->ep;
base_iseq = escape_cfp->iseq;
}
else {
ep = VM_ENV_PREV_EP(ep);
2015-07-22 01:52:59 +03:00
base_iseq = base_iseq->body->parent_iseq;
escape_cfp = rb_vm_search_cf_from_ep(ec, escape_cfp, ep);
VM_ASSERT(escape_cfp->iseq == base_iseq);
}
}
if (VM_FRAME_LAMBDA_P(escape_cfp)) {
/* lambda{... break ...} */
is_orphan = 0;
state = TAG_RETURN;
}
else {
ep = VM_ENV_PREV_EP(ep);
while (escape_cfp < eocfp) {
if (escape_cfp->ep == ep) {
const rb_iseq_t *const iseq = escape_cfp->iseq;
const VALUE epc = escape_cfp->pc - iseq->body->iseq_encoded;
const struct iseq_catch_table *const ct = iseq->body->catch_table;
unsigned int i;
if (!ct) break;
for (i=0; i < ct->size; i++) {
const struct iseq_catch_table_entry *const entry =
UNALIGNED_MEMBER_PTR(ct, entries[i]);
if (entry->type == CATCH_TYPE_BREAK &&
entry->iseq == base_iseq &&
entry->start < epc && entry->end >= epc) {
if (entry->cont == epc) { /* found! */
is_orphan = 0;
}
break;
}
}
break;
}
escape_cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(escape_cfp);
}
}
if (is_orphan) {
rb_vm_localjump_error("break from proc-closure", throwobj, TAG_BREAK);
}
}
else if (state == TAG_RETRY) {
const VALUE *ep = VM_ENV_PREV_EP(GET_EP());
escape_cfp = rb_vm_search_cf_from_ep(ec, reg_cfp, ep);
}
else if (state == TAG_RETURN) {
const VALUE *current_ep = GET_EP();
const VALUE *target_lep = VM_EP_LEP(current_ep);
int in_class_frame = 0;
int toplevel = 1;
escape_cfp = reg_cfp;
while (escape_cfp < eocfp) {
const VALUE *lep = VM_CF_LEP(escape_cfp);
if (!target_lep) {
target_lep = lep;
}
if (lep == target_lep &&
VM_FRAME_RUBYFRAME_P(escape_cfp) &&
escape_cfp->iseq->body->type == ISEQ_TYPE_CLASS) {
in_class_frame = 1;
target_lep = 0;
}
if (lep == target_lep) {
if (VM_FRAME_LAMBDA_P(escape_cfp)) {
toplevel = 0;
if (in_class_frame) {
/* lambda {class A; ... return ...; end} */
goto valid_return;
}
else {
const VALUE *tep = current_ep;
while (target_lep != tep) {
if (escape_cfp->ep == tep) {
/* in lambda */
goto valid_return;
}
tep = VM_ENV_PREV_EP(tep);
}
}
}
else if (VM_FRAME_RUBYFRAME_P(escape_cfp)) {
switch (escape_cfp->iseq->body->type) {
case ISEQ_TYPE_TOP:
case ISEQ_TYPE_MAIN:
if (toplevel) {
if (in_class_frame) goto unexpected_return;
goto valid_return;
}
break;
case ISEQ_TYPE_EVAL:
case ISEQ_TYPE_CLASS:
toplevel = 0;
break;
default:
break;
}
}
}
2015-07-22 01:52:59 +03:00
if (escape_cfp->ep == target_lep && escape_cfp->iseq->body->type == ISEQ_TYPE_METHOD) {
goto valid_return;
}
escape_cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(escape_cfp);
}
unexpected_return:;
rb_vm_localjump_error("unexpected return", throwobj, TAG_RETURN);
valid_return:;
/* do nothing */
}
else {
rb_bug("isns(throw): unsupported throw type");
}
ec->tag->state = state;
return (VALUE)THROW_DATA_NEW(throwobj, escape_cfp, state);
}
static VALUE
vm_throw(const rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
rb_num_t throw_state, VALUE throwobj)
{
const int state = (int)(throw_state & VM_THROW_STATE_MASK);
const int flag = (int)(throw_state & VM_THROW_NO_ESCAPE_FLAG);
if (state != 0) {
return vm_throw_start(ec, reg_cfp, state, flag, throwobj);
}
else {
return vm_throw_continue(ec, throwobj);
}
}
static inline void
mjit_compile.c: reduce sp motion on JIT This retries r62655, which was reverted at r63863 for r63763. tool/ruby_vm/views/_mjit_compile_insn.erb: revert the revert. tool/ruby_vm/views/_mjit_compile_insn_body.erb: ditto. tool/ruby_vm/views/_mjit_compile_pc_and_sp.erb: ditto. tool/ruby_vm/views/_mjit_compile_send.erb: ditto. tool/ruby_vm/views/mjit_compile.inc.erb: ditto. tool/ruby_vm/views/_insn_entry.erb: revert half of r63763. The commit was originally reverted since changing pc motion was bad for tracing, but changing sp motion was totally fine. For JIT, I wanna resurrect the sp motion change in r62051. tool/ruby_vm/models/bare_instructions.rb: ditto. insns.def: ditto. vm_insnhelper.c: ditto. vm_insnhelper.h: ditto. * benchmark $ benchmark-driver benchmark.yml --rbenv 'before;after;before --jit;after --jit' --repeat-count 12 -v before: ruby 2.6.0dev (2018-07-19 trunk 63998) [x86_64-linux] after: ruby 2.6.0dev (2018-07-19 add-sp 63998) [x86_64-linux] last_commit=mjit_compile.c: reduce sp motion on JIT before --jit: ruby 2.6.0dev (2018-07-19 trunk 63998) +JIT [x86_64-linux] after --jit: ruby 2.6.0dev (2018-07-19 add-sp 63998) +JIT [x86_64-linux] last_commit=mjit_compile.c: reduce sp motion on JIT Calculating ------------------------------------- before after before --jit after --jit Optcarrot Lan_Master.nes 51.354 50.238 70.010 72.139 fps Comparison: Optcarrot Lan_Master.nes after --jit: 72.1 fps before --jit: 70.0 fps - 1.03x slower before: 51.4 fps - 1.40x slower after: 50.2 fps - 1.44x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@63999 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-07-19 16:25:22 +03:00
vm_expandarray(VALUE *sp, VALUE ary, rb_num_t num, int flag)
{
int is_splat = flag & 0x01;
rb_num_t space_size = num + is_splat;
mjit_compile.c: reduce sp motion on JIT This retries r62655, which was reverted at r63863 for r63763. tool/ruby_vm/views/_mjit_compile_insn.erb: revert the revert. tool/ruby_vm/views/_mjit_compile_insn_body.erb: ditto. tool/ruby_vm/views/_mjit_compile_pc_and_sp.erb: ditto. tool/ruby_vm/views/_mjit_compile_send.erb: ditto. tool/ruby_vm/views/mjit_compile.inc.erb: ditto. tool/ruby_vm/views/_insn_entry.erb: revert half of r63763. The commit was originally reverted since changing pc motion was bad for tracing, but changing sp motion was totally fine. For JIT, I wanna resurrect the sp motion change in r62051. tool/ruby_vm/models/bare_instructions.rb: ditto. insns.def: ditto. vm_insnhelper.c: ditto. vm_insnhelper.h: ditto. * benchmark $ benchmark-driver benchmark.yml --rbenv 'before;after;before --jit;after --jit' --repeat-count 12 -v before: ruby 2.6.0dev (2018-07-19 trunk 63998) [x86_64-linux] after: ruby 2.6.0dev (2018-07-19 add-sp 63998) [x86_64-linux] last_commit=mjit_compile.c: reduce sp motion on JIT before --jit: ruby 2.6.0dev (2018-07-19 trunk 63998) +JIT [x86_64-linux] after --jit: ruby 2.6.0dev (2018-07-19 add-sp 63998) +JIT [x86_64-linux] last_commit=mjit_compile.c: reduce sp motion on JIT Calculating ------------------------------------- before after before --jit after --jit Optcarrot Lan_Master.nes 51.354 50.238 70.010 72.139 fps Comparison: Optcarrot Lan_Master.nes after --jit: 72.1 fps before --jit: 70.0 fps - 1.03x slower before: 51.4 fps - 1.40x slower after: 50.2 fps - 1.44x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@63999 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-07-19 16:25:22 +03:00
VALUE *base = sp - 1;
const VALUE *ptr;
rb_num_t len;
const VALUE obj = ary;
if (!RB_TYPE_P(ary, T_ARRAY) && NIL_P(ary = rb_check_array_type(ary))) {
ary = obj;
ptr = &ary;
len = 1;
}
else {
ptr = RARRAY_CONST_PTR_TRANSIENT(ary);
len = (rb_num_t)RARRAY_LEN(ary);
}
if (space_size == 0) {
/* no space left on stack */
}
else if (flag & 0x02) {
/* post: ..., nil ,ary[-1], ..., ary[0..-num] # top */
rb_num_t i = 0, j;
if (len < num) {
for (i=0; i<num-len; i++) {
*base++ = Qnil;
}
}
for (j=0; i<num; i++, j++) {
VALUE v = ptr[len - j - 1];
*base++ = v;
}
if (is_splat) {
*base = rb_ary_new4(len - j, ptr);
}
}
else {
/* normal: ary[num..-1], ary[num-2], ary[num-3], ..., ary[0] # top */
rb_num_t i;
VALUE *bptr = &base[space_size - 1];
for (i=0; i<num; i++) {
if (len <= i) {
for (; i<num; i++) {
*bptr-- = Qnil;
}
break;
}
*bptr-- = ptr[i];
}
if (is_splat) {
if (num > len) {
*bptr = rb_ary_new();
}
else {
*bptr = rb_ary_new4(len - num, ptr + num);
}
}
}
RB_GC_GUARD(ary);
}
static VALUE vm_call_general(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd);
static VALUE vm_mtbl_dump(VALUE klass, ID target_mid);
static struct rb_class_cc_entries *
vm_ccs_create(VALUE klass, const rb_callable_method_entry_t *cme)
{
struct rb_class_cc_entries *ccs = ALLOC(struct rb_class_cc_entries);
#if VM_CHECK_MODE > 0
ccs->debug_sig = ~(VALUE)ccs;
#endif
ccs->capa = 4;
ccs->len = 0;
RB_OBJ_WRITE(klass, &ccs->cme, cme);
METHOD_ENTRY_CACHED_SET((rb_callable_method_entry_t *)cme);
ccs->entries = ALLOC_N(struct rb_class_cc_entries_entry, ccs->capa);
return ccs;
}
static void
vm_ccs_push(VALUE klass, struct rb_class_cc_entries *ccs, const struct rb_callinfo *ci, const struct rb_callcache *cc)
{
if (UNLIKELY(ccs->len == ccs->capa)) {
const int nsize = ccs->capa * 2;
struct rb_class_cc_entries_entry *nents = ALLOC_N(struct rb_class_cc_entries_entry, nsize);
ccs->capa = nsize;
MEMCPY(nents, &ccs->entries[0], struct rb_class_cc_entries_entry, ccs->len);
ruby_xfree(ccs->entries);
ccs->entries = nents;
}
VM_ASSERT(ccs->len < ccs->capa);
const int pos = ccs->len++;
RB_OBJ_WRITE(klass, &ccs->entries[pos].ci, ci);
RB_OBJ_WRITE(klass, &ccs->entries[pos].cc, cc);
if (RB_DEBUG_COUNTER_SETMAX(ccs_maxlen, ccs->len)) {
// for tuning
// vm_mtbl_dump(klass, 0);
}
}
#if VM_CHECK_MODE > 0
void
rb_vm_ccs_dump(struct rb_class_cc_entries *ccs)
mjit_compile.c: merge initial JIT compiler which has been developed by Takashi Kokubun <takashikkbn@gmail> as YARV-MJIT. Many of its bugs are fixed by wanabe <s.wanabe@gmail.com>. This JIT compiler is designed to be a safe migration path to introduce JIT compiler to MRI. So this commit does not include any bytecode changes or dynamic instruction modifications, which are done in original MJIT. This commit even strips off some aggressive optimizations from YARV-MJIT, and thus it's slower than YARV-MJIT too. But it's still fairly faster than Ruby 2.5 in some benchmarks (attached below). Note that this JIT compiler passes `make test`, `make test-all`, `make test-spec` without JIT, and even with JIT. Not only it's perfectly safe with JIT disabled because it does not replace VM instructions unlike MJIT, but also with JIT enabled it stably runs Ruby applications including Rails applications. I'm expecting this version as just "initial" JIT compiler. I have many optimization ideas which are skipped for initial merging, and you may easily replace this JIT compiler with a faster one by just replacing mjit_compile.c. `mjit_compile` interface is designed for the purpose. common.mk: update dependencies for mjit_compile.c. internal.h: declare `rb_vm_insn_addr2insn` for MJIT. vm.c: exclude some definitions if `-DMJIT_HEADER` is provided to compiler. This avoids to include some functions which take a long time to compile, e.g. vm_exec_core. Some of the purpose is achieved in transform_mjit_header.rb (see `IGNORED_FUNCTIONS`) but others are manually resolved for now. Load mjit_helper.h for MJIT header. mjit_helper.h: New. This is a file used only by JIT-ed code. I'll refactor `mjit_call_cfunc` later. vm_eval.c: add some #ifdef switches to skip compiling some functions like Init_vm_eval. win32/mkexports.rb: export thread/ec functions, which are used by MJIT. include/ruby/defines.h: add MJIT_FUNC_EXPORTED macro alis to clarify that a function is exported only for MJIT. array.c: export a function used by MJIT. bignum.c: ditto. class.c: ditto. compile.c: ditto. error.c: ditto. gc.c: ditto. hash.c: ditto. iseq.c: ditto. numeric.c: ditto. object.c: ditto. proc.c: ditto. re.c: ditto. st.c: ditto. string.c: ditto. thread.c: ditto. variable.c: ditto. vm_backtrace.c: ditto. vm_insnhelper.c: ditto. vm_method.c: ditto. I would like to improve maintainability of function exports, but I believe this way is acceptable as initial merging if we clarify the new exports are for MJIT (so that we can use them as TODO list to fix) and add unit tests to detect unresolved symbols. I'll add unit tests of JIT compilations in succeeding commits. Author: Takashi Kokubun <takashikkbn@gmail.com> Contributor: wanabe <s.wanabe@gmail.com> Part of [Feature #14235] --- * Known issues * Code generated by gcc is faster than clang. The benchmark may be worse in macOS. Following benchmark result is provided by gcc w/ Linux. * Performance is decreased when Google Chrome is running * JIT can work on MinGW, but it doesn't improve performance at least in short running benchmark. * Currently it doesn't perform well with Rails. We'll try to fix this before release. --- * Benchmark reslts Benchmarked with: Intel 4.0GHz i7-4790K with 16GB memory under x86-64 Ubuntu 8 Cores - 2.0.0-p0: Ruby 2.0.0-p0 - r62186: Ruby trunk (early 2.6.0), before MJIT changes - JIT off: On this commit, but without `--jit` option - JIT on: On this commit, and with `--jit` option ** Optcarrot fps Benchmark: https://github.com/mame/optcarrot | |2.0.0-p0 |r62186 |JIT off |JIT on | |:--------|:--------|:--------|:--------|:--------| |fps |37.32 |51.46 |51.31 |58.88 | |vs 2.0.0 |1.00x |1.38x |1.37x |1.58x | ** MJIT benchmarks Benchmark: https://github.com/benchmark-driver/mjit-benchmarks (Original: https://github.com/vnmakarov/ruby/tree/rtl_mjit_branch/MJIT-benchmarks) | |2.0.0-p0 |r62186 |JIT off |JIT on | |:----------|:--------|:--------|:--------|:--------| |aread |1.00 |1.09 |1.07 |2.19 | |aref |1.00 |1.13 |1.11 |2.22 | |aset |1.00 |1.50 |1.45 |2.64 | |awrite |1.00 |1.17 |1.13 |2.20 | |call |1.00 |1.29 |1.26 |2.02 | |const2 |1.00 |1.10 |1.10 |2.19 | |const |1.00 |1.11 |1.10 |2.19 | |fannk |1.00 |1.04 |1.02 |1.00 | |fib |1.00 |1.32 |1.31 |1.84 | |ivread |1.00 |1.13 |1.12 |2.43 | |ivwrite |1.00 |1.23 |1.21 |2.40 | |mandelbrot |1.00 |1.13 |1.16 |1.28 | |meteor |1.00 |2.97 |2.92 |3.17 | |nbody |1.00 |1.17 |1.15 |1.49 | |nest-ntimes|1.00 |1.22 |1.20 |1.39 | |nest-while |1.00 |1.10 |1.10 |1.37 | |norm |1.00 |1.18 |1.16 |1.24 | |nsvb |1.00 |1.16 |1.16 |1.17 | |red-black |1.00 |1.02 |0.99 |1.12 | |sieve |1.00 |1.30 |1.28 |1.62 | |trees |1.00 |1.14 |1.13 |1.19 | |while |1.00 |1.12 |1.11 |2.41 | ** Discourse's script/bench.rb Benchmark: https://github.com/discourse/discourse/blob/v1.8.7/script/bench.rb NOTE: Rails performance was somehow a little degraded with JIT for now. We should fix this. (At least I know opt_aref is performing badly in JIT and I have an idea to fix it. Please wait for the fix.) *** JIT off Your Results: (note for timings- percentile is first, duration is second in millisecs) categories_admin: 50: 17 75: 18 90: 22 99: 29 home_admin: 50: 21 75: 21 90: 27 99: 40 topic_admin: 50: 17 75: 18 90: 22 99: 32 categories: 50: 35 75: 41 90: 43 99: 77 home: 50: 39 75: 46 90: 49 99: 95 topic: 50: 46 75: 52 90: 56 99: 101 *** JIT on Your Results: (note for timings- percentile is first, duration is second in millisecs) categories_admin: 50: 19 75: 21 90: 25 99: 33 home_admin: 50: 24 75: 26 90: 30 99: 35 topic_admin: 50: 19 75: 20 90: 25 99: 30 categories: 50: 40 75: 44 90: 48 99: 76 home: 50: 42 75: 48 90: 51 99: 89 topic: 50: 49 75: 55 90: 58 99: 99 git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@62197 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-02-04 14:22:28 +03:00
{
fprintf(stderr, "ccs:%p (%d,%d)\n", (void *)ccs, ccs->len, ccs->capa);
for (int i=0; i<ccs->len; i++) {
vm_ci_dump(ccs->entries[i].ci);
rp(ccs->entries[i].cc);
}
}
static int
vm_ccs_verify(struct rb_class_cc_entries *ccs, ID mid, VALUE klass)
{
VM_ASSERT(vm_ccs_p(ccs));
VM_ASSERT(ccs->len <= ccs->capa);
for (int i=0; i<ccs->len; i++) {
const struct rb_callinfo *ci = ccs->entries[i].ci;
const struct rb_callcache *cc = ccs->entries[i].cc;
VM_ASSERT(vm_ci_p(ci));
VM_ASSERT(vm_ci_mid(ci) == mid);
VM_ASSERT(IMEMO_TYPE_P(cc, imemo_callcache));
VM_ASSERT(vm_cc_class_check(cc, klass));
VM_ASSERT(vm_cc_cme(cc) == ccs->cme);
}
return TRUE;
}
#endif
#ifndef MJIT_HEADER
static const struct rb_callcache *
vm_search_cc(VALUE klass, const struct rb_callinfo *ci)
{
ID mid = vm_ci_mid(ci);
struct rb_id_table *cc_tbl = RCLASS_CC_TBL(klass);
struct rb_class_cc_entries *ccs = NULL;
if (cc_tbl) {
if (rb_id_table_lookup(cc_tbl, mid, (VALUE *)&ccs)) {
const int ccs_len = ccs->len;
VM_ASSERT(vm_ccs_verify(ccs, mid, klass));
if (UNLIKELY(METHOD_ENTRY_INVALIDATED(ccs->cme))) {
rb_vm_ccs_free(ccs);
rb_id_table_delete(cc_tbl, mid);
ccs = NULL;
}
else {
for (int i=0; i<ccs_len; i++) {
const struct rb_callinfo *ccs_ci = ccs->entries[i].ci;
const struct rb_callcache *ccs_cc = ccs->entries[i].cc;
VM_ASSERT(vm_ci_p(ccs_ci));
VM_ASSERT(IMEMO_TYPE_P(ccs_cc, imemo_callcache));
if (ccs_ci == ci) { // TODO: equality
RB_DEBUG_COUNTER_INC(cc_found_ccs);
VM_ASSERT(vm_cc_cme(ccs_cc)->called_id == mid);
VM_ASSERT(ccs_cc->klass == klass);
VM_ASSERT(!METHOD_ENTRY_INVALIDATED(vm_cc_cme(ccs_cc)));
return ccs_cc;
}
}
}
}
}
else {
cc_tbl = RCLASS_CC_TBL(klass) = rb_id_table_create(2);
}
const rb_callable_method_entry_t *cme = rb_callable_method_entry(klass, mid);
if (cme == NULL) {
// undef or not found: can't cache the information
VM_ASSERT(vm_cc_cme(vm_cc_empty()) == NULL);
return vm_cc_empty();
}
else {
const struct rb_callcache *cc = vm_cc_new(klass, cme, vm_call_general);
METHOD_ENTRY_CACHED_SET((struct rb_callable_method_entry_struct *)cme);
if (ccs == NULL) {
VM_ASSERT(cc_tbl != NULL);
if (LIKELY(rb_id_table_lookup(cc_tbl, mid, (VALUE*)&ccs))) {
// rb_callable_method_entry() prepares ccs.
}
else {
// TODO: required?
ccs = vm_ccs_create(klass, cme);
rb_id_table_insert(cc_tbl, mid, (VALUE)ccs);
}
}
vm_ccs_push(klass, ccs, ci, cc);
VM_ASSERT(vm_cc_cme(cc) != NULL);
VM_ASSERT(cme->called_id == mid);
VM_ASSERT(vm_cc_cme(cc)->called_id == mid);
return cc;
}
}
MJIT_FUNC_EXPORTED void
rb_vm_search_method_slowpath(VALUE cd_owner, struct rb_call_data *cd, VALUE klass)
{
const struct rb_callcache *cc = vm_search_cc(klass, cd->ci);
if (cd_owner) {
RB_OBJ_WRITE(cd_owner, &cd->cc, cc);
}
else {
cd->cc = cc;
}
VM_ASSERT(cc == vm_cc_empty() || cc->klass == klass);
VM_ASSERT(cc == vm_cc_empty() || callable_method_entry_p(vm_cc_cme(cc)));
VM_ASSERT(cc == vm_cc_empty() || !METHOD_ENTRY_INVALIDATED(vm_cc_cme(cc)));
VM_ASSERT(cc == vm_cc_empty() || vm_cc_cme(cc)->called_id == vm_ci_mid(cd->ci));
}
#endif
static void
vm_search_method_fastpath(VALUE cd_owner, struct rb_call_data *cd, VALUE klass)
{
const struct rb_callcache *cc = cd->cc;
#if OPT_INLINE_METHOD_CACHE
if (LIKELY(vm_cc_class_check(cc, klass))) {
if (LIKELY(!METHOD_ENTRY_INVALIDATED(vm_cc_cme(cc)))) {
VM_ASSERT(callable_method_entry_p(vm_cc_cme(cc)));
RB_DEBUG_COUNTER_INC(mc_inline_hit);
VM_ASSERT(vm_cc_cme(cc) == NULL || // not found
(vm_ci_flag(cd->ci) & VM_CALL_SUPER) || // search_super w/ define_method
vm_cc_cme(cc)->called_id == vm_ci_mid(cd->ci)); // cme->called_id == ci->mid
return;
}
cd->cc = vm_cc_empty();
RB_DEBUG_COUNTER_INC(mc_inline_miss_invalidated);
}
else {
RB_DEBUG_COUNTER_INC(mc_inline_miss_klass);
}
#endif
rb_vm_search_method_slowpath(cd_owner, cd, klass);
VM_ASSERT(vm_cc_cme(cd->cc) == NULL || vm_cc_cme(cd->cc)->called_id == vm_ci_mid(cd->ci));
}
static void
vm_search_method(VALUE cd_owner, struct rb_call_data *cd, VALUE recv)
{
VALUE klass = CLASS_OF(recv);
VM_ASSERT(klass != Qfalse);
VM_ASSERT(RBASIC_CLASS(klass) == 0 || rb_obj_is_kind_of(klass, rb_cClass));
vm_search_method_fastpath(cd_owner, cd, klass);
}
static inline int
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
check_cfunc(const rb_callable_method_entry_t *me, VALUE (*func)())
{
if (me && me->def->type == VM_METHOD_TYPE_CFUNC &&
me->def->body.cfunc.func == func) {
return 1;
}
else {
return 0;
}
}
static inline int
vm_method_cfunc_is(const rb_iseq_t *iseq, CALL_DATA cd, VALUE recv, VALUE (*func)())
{
vm_search_method((VALUE)iseq, cd, recv);
return check_cfunc(vm_cc_cme(cd->cc), func);
}
#define EQ_UNREDEFINED_P(t) BASIC_OP_UNREDEFINED_P(BOP_EQ, t##_REDEFINED_OP_FLAG)
vm_insnhelper.c: make VM helpers inline In r66597, both VM and JIT seem to be made slower: ``` $ benchmark-driver benchmark.yml --rbenv 'r66596::before --disable-gems;r66597::after --disable-gems;r66596+JIT::before --disable-gems --jit;r66597+JIT::after --disable-gems --jit' -v --repeat-count 24 r66596: ruby 2.7.0dev (2018-12-28 trunk 66596) [x86_64-linux] r66597: ruby 2.7.0dev (2018-12-28 trunk 66597) [x86_64-linux] r66596+JIT: ruby 2.7.0dev (2018-12-28 trunk 66596) +JIT [x86_64-linux] r66597+JIT: ruby 2.7.0dev (2018-12-28 trunk 66597) +JIT [x86_64-linux] Calculating ------------------------------------- r66596 r66597 r66596+JIT r66597+JIT Optcarrot Lan_Master.nes 55.174 54.620 88.011 85.326 fps Comparison: Optcarrot Lan_Master.nes r66596+JIT: 88.0 fps r66597+JIT: 85.3 fps - 1.03x slower r66596: 55.2 fps - 1.60x slower r66597: 54.6 fps - 1.61x slower ``` This commit makes JIT's situation a little better. But in 2.7 we seem to have some other regressions after that, and this can't still resurrect the 2.6.0's performance. ``` $ benchmark-driver benchmark.yml --rbenv 'before::before --disable-gems;after::after --disable-gems;before+JIT::before --disable-gems --jit;after+JIT::after --disable-gems --jit' -v --repeat-count 24 before: ruby 2.7.0dev (2019-01-13 trunk 66808) [x86_64-linux] after: ruby 2.7.0dev (2019-01-13 trunk 66808) [x86_64-linux] last_commit=vm_insnhelper.c: make VM helpers inline before+JIT: ruby 2.7.0dev (2019-01-13 trunk 66808) +JIT [x86_64-linux] after+JIT: ruby 2.7.0dev (2019-01-13 trunk 66808) +JIT [x86_64-linux] last_commit=vm_insnhelper.c: make VM helpers inline Calculating ------------------------------------- before after before+JIT after+JIT Optcarrot Lan_Master.nes 51.710 51.535 83.629 85.486 fps Comparison: Optcarrot Lan_Master.nes after+JIT: 85.5 fps before+JIT: 83.6 fps - 1.02x slower before: 51.7 fps - 1.65x slower after: 51.5 fps - 1.66x slower ``` git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66809 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-01-14 07:49:28 +03:00
static inline bool
FIXNUM_2_P(VALUE a, VALUE b)
{
/* FIXNUM_P(a) && FIXNUM_P(b)
* == ((a & 1) && (b & 1))
* == a & b & 1 */
SIGNED_VALUE x = a;
SIGNED_VALUE y = b;
SIGNED_VALUE z = x & y & 1;
return z == 1;
}
vm_insnhelper.c: make VM helpers inline In r66597, both VM and JIT seem to be made slower: ``` $ benchmark-driver benchmark.yml --rbenv 'r66596::before --disable-gems;r66597::after --disable-gems;r66596+JIT::before --disable-gems --jit;r66597+JIT::after --disable-gems --jit' -v --repeat-count 24 r66596: ruby 2.7.0dev (2018-12-28 trunk 66596) [x86_64-linux] r66597: ruby 2.7.0dev (2018-12-28 trunk 66597) [x86_64-linux] r66596+JIT: ruby 2.7.0dev (2018-12-28 trunk 66596) +JIT [x86_64-linux] r66597+JIT: ruby 2.7.0dev (2018-12-28 trunk 66597) +JIT [x86_64-linux] Calculating ------------------------------------- r66596 r66597 r66596+JIT r66597+JIT Optcarrot Lan_Master.nes 55.174 54.620 88.011 85.326 fps Comparison: Optcarrot Lan_Master.nes r66596+JIT: 88.0 fps r66597+JIT: 85.3 fps - 1.03x slower r66596: 55.2 fps - 1.60x slower r66597: 54.6 fps - 1.61x slower ``` This commit makes JIT's situation a little better. But in 2.7 we seem to have some other regressions after that, and this can't still resurrect the 2.6.0's performance. ``` $ benchmark-driver benchmark.yml --rbenv 'before::before --disable-gems;after::after --disable-gems;before+JIT::before --disable-gems --jit;after+JIT::after --disable-gems --jit' -v --repeat-count 24 before: ruby 2.7.0dev (2019-01-13 trunk 66808) [x86_64-linux] after: ruby 2.7.0dev (2019-01-13 trunk 66808) [x86_64-linux] last_commit=vm_insnhelper.c: make VM helpers inline before+JIT: ruby 2.7.0dev (2019-01-13 trunk 66808) +JIT [x86_64-linux] after+JIT: ruby 2.7.0dev (2019-01-13 trunk 66808) +JIT [x86_64-linux] last_commit=vm_insnhelper.c: make VM helpers inline Calculating ------------------------------------- before after before+JIT after+JIT Optcarrot Lan_Master.nes 51.710 51.535 83.629 85.486 fps Comparison: Optcarrot Lan_Master.nes after+JIT: 85.5 fps before+JIT: 83.6 fps - 1.02x slower before: 51.7 fps - 1.65x slower after: 51.5 fps - 1.66x slower ``` git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66809 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-01-14 07:49:28 +03:00
static inline bool
FLONUM_2_P(VALUE a, VALUE b)
{
#if USE_FLONUM
/* FLONUM_P(a) && FLONUM_P(b)
* == ((a & 3) == 2) && ((b & 3) == 2)
* == ! ((a ^ 2) | (b ^ 2) & 3)
*/
SIGNED_VALUE x = a;
SIGNED_VALUE y = b;
SIGNED_VALUE z = ((x ^ 2) | (y ^ 2)) & 3;
return !z;
#else
return false;
#endif
}
static VALUE
opt_equality(const rb_iseq_t *cd_owner, VALUE recv, VALUE obj, CALL_DATA cd)
{
if (FIXNUM_2_P(recv, obj) && EQ_UNREDEFINED_P(INTEGER)) {
goto compare_by_identity;
}
else if (FLONUM_2_P(recv, obj) && EQ_UNREDEFINED_P(FLOAT)) {
goto compare_by_identity;
}
else if (STATIC_SYM_P(recv) && STATIC_SYM_P(obj) && EQ_UNREDEFINED_P(SYMBOL)) {
goto compare_by_identity;
}
else if (SPECIAL_CONST_P(recv)) {
goto compare_by_funcall;
}
else if (RBASIC_CLASS(recv) == rb_cFloat && RB_FLOAT_TYPE_P(obj) && EQ_UNREDEFINED_P(FLOAT)) {
double a = RFLOAT_VALUE(recv);
double b = RFLOAT_VALUE(obj);
#if MSC_VERSION_BEFORE(1300)
if (isnan(a)) {
return Qfalse;
}
else if (isnan(b)) {
return Qfalse;
}
else
#endif
if (a == b) {
return Qtrue;
}
else {
return Qfalse;
}
}
else if (RBASIC_CLASS(recv) == rb_cString && EQ_UNREDEFINED_P(STRING)) {
if (recv == obj) {
return Qtrue;
}
else if (RB_TYPE_P(obj, T_STRING)) {
return rb_str_eql_internal(obj, recv);
Make opt_eq and opt_neq insns leaf # Benchmark zero? ``` require 'benchmark/ips' Numeric.class_eval do def ruby_zero? self == 0 end end Benchmark.ips do |x| x.report('0.zero?') { 0.ruby_zero? } x.report('1.zero?') { 1.ruby_zero? } x.compare! end ``` ## VM No significant impact for VM. ### before ruby 2.7.0dev (2019-08-04T02:56:02Z master 2d8c037e97) [x86_64-linux] 0.zero?: 21855445.5 i/s 1.zero?: 21770817.3 i/s - same-ish: difference falls within error ### after ruby 2.7.0dev (2019-08-04T11:17:10Z opt-eq-leaf 6404bebd6a) [x86_64-linux] 1.zero?: 21958912.3 i/s 0.zero?: 21881625.9 i/s - same-ish: difference falls within error ## JIT The performance improves about 1.23x. ### before ruby 2.7.0dev (2019-08-04T02:56:02Z master 2d8c037e97) +JIT [x86_64-linux] 0.zero?: 36343111.6 i/s 1.zero?: 36295153.3 i/s - same-ish: difference falls within error ### after ruby 2.7.0dev (2019-08-04T11:17:10Z opt-eq-leaf 6404bebd6a) +JIT [x86_64-linux] 0.zero?: 44740467.2 i/s 1.zero?: 44363616.1 i/s - same-ish: difference falls within error # Benchmark str == str / str != str ``` # frozen_string_literal: true require 'benchmark/ips' Benchmark.ips do |x| x.report('a == a') { 'a' == 'a' } x.report('a == b') { 'a' == 'b' } x.report('a != a') { 'a' != 'a' } x.report('a != b') { 'a' != 'b' } x.compare! end ``` ## VM No significant impact for VM. ### before ruby 2.7.0dev (2019-08-04T02:56:02Z master 2d8c037e97) [x86_64-linux] a == a: 27286219.0 i/s a != a: 24892389.5 i/s - 1.10x slower a == b: 23623635.8 i/s - 1.16x slower a != b: 21800958.0 i/s - 1.25x slower ### after ruby 2.7.0dev (2019-08-04T11:17:10Z opt-eq-leaf 6404bebd6a) [x86_64-linux] a == a: 27224016.2 i/s a != a: 24490109.5 i/s - 1.11x slower a == b: 23391052.4 i/s - 1.16x slower a != b: 21811321.7 i/s - 1.25x slower ## JIT The performance improves on JIT a little. ### before ruby 2.7.0dev (2019-08-04T02:56:02Z master 2d8c037e97) +JIT [x86_64-linux] a == a: 42010674.7 i/s a != a: 38920311.2 i/s - same-ish: difference falls within error a == b: 32574262.2 i/s - 1.29x slower a != b: 32099790.3 i/s - 1.31x slower ### after ruby 2.7.0dev (2019-08-04T11:17:10Z opt-eq-leaf 6404bebd6a) +JIT [x86_64-linux] a == a: 46902738.8 i/s a != a: 43097258.6 i/s - 1.09x slower a == b: 35822018.4 i/s - 1.31x slower a != b: 33377257.8 i/s - 1.41x slower This is needed towards Bug#15589. Closes: https://github.com/ruby/ruby/pull/2318
2019-08-04 14:11:00 +03:00
}
}
compare_by_funcall:
if (! vm_method_cfunc_is(cd_owner, cd, recv, rb_obj_equal)) {
return Qundef;
}
compare_by_identity:
if (recv == obj) {
return Qtrue;
}
else {
return Qfalse;
}
}
#undef EQ_UNREDEFINED_P
#define vm_ci_new_id(mid) vm_ci_new_runtime(mid, 0, 0, NULL)
VALUE
rb_equal_opt(VALUE obj1, VALUE obj2)
{
static const struct rb_callinfo *ci = NULL;
if (ci == NULL) {
ci = vm_ci_new_id(idEq);
rb_gc_register_mark_object((VALUE)ci);
}
struct rb_call_data cd = { .ci = ci, .cc = vm_cc_empty() };
return opt_equality(NULL, obj1, obj2, &cd);
}
VALUE
rb_eql_opt(VALUE obj1, VALUE obj2)
{
struct rb_call_data cd = { .ci = vm_ci_new_id(idEqlP), .cc = vm_cc_empty() };
return opt_equality(NULL, obj1, obj2, &cd);
}
extern VALUE rb_vm_call0(rb_execution_context_t *ec, VALUE, ID, int, const VALUE*, const rb_callable_method_entry_t *, int kw_splat);
static VALUE
check_match(rb_execution_context_t *ec, VALUE pattern, VALUE target, enum vm_check_match_type type)
{
switch (type) {
case VM_CHECKMATCH_TYPE_WHEN:
return pattern;
case VM_CHECKMATCH_TYPE_RESCUE:
if (!rb_obj_is_kind_of(pattern, rb_cModule)) {
rb_raise(rb_eTypeError, "class or module required for rescue clause");
}
/* fall through */
case VM_CHECKMATCH_TYPE_CASE: {
const rb_callable_method_entry_t *me =
rb_callable_method_entry_with_refinements(CLASS_OF(pattern), idEqq, NULL);
if (me) {
return rb_vm_call0(ec, pattern, idEqq, 1, &target, me, RB_NO_KEYWORDS);
}
else {
/* fallback to funcall (e.g. method_missing) */
return rb_funcallv(pattern, idEqq, 1, &target);
}
}
default:
rb_bug("check_match: unreachable");
}
}
#if MSC_VERSION_BEFORE(1300)
#define CHECK_CMP_NAN(a, b) if (isnan(a) || isnan(b)) return Qfalse;
#else
#define CHECK_CMP_NAN(a, b) /* do nothing */
#endif
static inline VALUE
double_cmp_lt(double a, double b)
{
CHECK_CMP_NAN(a, b);
return a < b ? Qtrue : Qfalse;
}
static inline VALUE
double_cmp_le(double a, double b)
{
CHECK_CMP_NAN(a, b);
return a <= b ? Qtrue : Qfalse;
}
static inline VALUE
double_cmp_gt(double a, double b)
{
CHECK_CMP_NAN(a, b);
return a > b ? Qtrue : Qfalse;
}
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
static inline VALUE
double_cmp_ge(double a, double b)
{
CHECK_CMP_NAN(a, b);
return a >= b ? Qtrue : Qfalse;
}
* vm_core.h: remove lfp (local frame pointer) and rename dfp (dynamic frame pointer) to ep (environment pointer). This change make VM `normal' (similar to other interpreters). Before this commit: Each frame has two env pointers lfp and dfp. lfp points local environment which is method/class/toplevel frame. lfp[0] is block pointer. dfp is block local frame. dfp[0] points previous (parent) environment pointer. lfp == dfp when frame is method/class/toplevel. You can get lfp from dfp by traversing previous environment pointers. After this commit: Each frame has only `ep' to point respective enviornoment. If there is parent environment, then ep[0] points parent envioenment (as dfp). If there are no more environment, then ep[0] points block pointer (as lfp). We call such ep as `LEP' (local EP). We add some macros to get LEP and to detect LEP or not. In short, we replace dfp and lfp with ep and LEP. rb_block_t and rb_binding_t member `lfp' and `dfp' are removed and member `ep' is added. rename rb_thread_t's member `local_lfp' and `local_svar' to `root_lep' and `root_svar'. (VM_EP_PREV_EP(ep)): get previous environment pointer. This macro assume that ep is not LEP. (VM_EP_BLOCK_PTR(ep)): get block pointer. This macro assume that ep is LEP. (VM_EP_LEP_P(ep)): detect ep is LEP or not. (VM_ENVVAL_BLOCK_PTR(ptr)): make block pointer. (VM_ENVVAL_BLOCK_PTR_P(v)): detect v is block pointer. (VM_ENVVAL_PREV_EP_PTR(ptr)): make prev environment pointer. (VM_ENVVAL_PREV_EP_PTR_P(v)): detect v is prev env pointer. * vm.c: apply above changes. (VM_EP_LEP(ep)): get LEP. (VM_CF_LEP(cfp)): get LEP of cfp->ep. (VM_CF_PREV_EP(cfp)): utility function VM_EP_PREV_EP(cfp->ep). (VM_CF_BLOCK_PTR(cfp)): utility function VM_EP_BLOCK_PTR(cfp->ep). * vm.c, vm_eval.c, vm_insnhelper.c, vm_insnhelper.h, insns.def: apply above changes. * cont.c: ditto. * eval.c, eval_intern.h: ditto. * proc.c: ditto. * thread.c: ditto. * vm_dump.c: ditto. * vm_exec.h: fix function name (on vm debug mode). git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@36030 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-06-11 07:14:59 +04:00
static inline VALUE *
vm_base_ptr(const rb_control_frame_t *cfp)
{
#if 0 // we may optimize and use this once we confirm it does not spoil performance on JIT.
const rb_control_frame_t *prev_cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(cfp);
if (cfp->iseq && VM_FRAME_RUBYFRAME_P(cfp)) {
VALUE *bp = prev_cfp->sp + cfp->iseq->body->local_table_size + VM_ENV_DATA_SIZE;
if (cfp->iseq->body->type == ISEQ_TYPE_METHOD) {
/* adjust `self' */
bp += 1;
}
#if VM_DEBUG_BP_CHECK
if (bp != cfp->bp_check) {
fprintf(stderr, "bp_check: %ld, bp: %ld\n",
(long)(cfp->bp_check - GET_EC()->vm_stack),
(long)(bp - GET_EC()->vm_stack));
rb_bug("vm_base_ptr: unreachable");
}
#endif
return bp;
}
else {
return NULL;
}
#else
return cfp->__bp__;
#endif
}
/* method call processes with call_info */
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
#include "vm_args.c"
static inline VALUE vm_call_iseq_setup_2(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd, int opt_pc, int param_size, int local_size);
ALWAYS_INLINE(static VALUE vm_call_iseq_setup_normal(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, const rb_callable_method_entry_t *me, int opt_pc, int param_size, int local_size));
static inline VALUE vm_call_iseq_setup_tailcall(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd, int opt_pc);
static VALUE vm_call_super_method(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd);
static VALUE vm_call_method_nome(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd);
static VALUE vm_call_method_each_type(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd);
static inline VALUE vm_call_method(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd);
static vm_call_handler vm_call_iseq_setup_func(const struct rb_callinfo *ci, const int param_size, const int local_size);
static VALUE
vm_call_iseq_setup_tailcall_0start(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_iseq_setup_tailcall_0start);
return vm_call_iseq_setup_tailcall(ec, cfp, calling, cd, 0);
}
static VALUE
vm_call_iseq_setup_normal_0start(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_iseq_setup_0start);
const struct rb_callcache *cc = cd->cc;
const rb_iseq_t *iseq = def_iseq_ptr(vm_cc_cme(cc)->def);
int param = iseq->body->param.size;
int local = iseq->body->local_table_size;
return vm_call_iseq_setup_normal(ec, cfp, calling, vm_cc_cme(cc), 0, param, local);
}
MJIT_STATIC bool
rb_simple_iseq_p(const rb_iseq_t *iseq)
{
return iseq->body->param.flags.has_opt == FALSE &&
iseq->body->param.flags.has_rest == FALSE &&
iseq->body->param.flags.has_post == FALSE &&
iseq->body->param.flags.has_kw == FALSE &&
iseq->body->param.flags.has_kwrest == FALSE &&
iseq->body->param.flags.accepts_no_kwarg == FALSE &&
iseq->body->param.flags.has_block == FALSE;
}
static bool
rb_iseq_only_optparam_p(const rb_iseq_t *iseq)
{
return iseq->body->param.flags.has_opt == TRUE &&
iseq->body->param.flags.has_rest == FALSE &&
iseq->body->param.flags.has_post == FALSE &&
iseq->body->param.flags.has_kw == FALSE &&
iseq->body->param.flags.has_kwrest == FALSE &&
iseq->body->param.flags.accepts_no_kwarg == FALSE &&
iseq->body->param.flags.has_block == FALSE;
}
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
static bool
rb_iseq_only_kwparam_p(const rb_iseq_t *iseq)
{
return iseq->body->param.flags.has_opt == FALSE &&
iseq->body->param.flags.has_rest == FALSE &&
iseq->body->param.flags.has_post == FALSE &&
iseq->body->param.flags.has_kw == TRUE &&
iseq->body->param.flags.has_kwrest == FALSE &&
iseq->body->param.flags.has_block == FALSE;
}
2020-04-14 06:32:59 +03:00
// If true, cc->call needs to include `CALLER_SETUP_ARG` (i.e. can't be skipped in fastpath)
MJIT_STATIC bool
rb_splat_or_kwargs_p(const struct rb_callinfo *restrict ci)
{
return IS_ARGS_SPLAT(ci) || IS_ARGS_KW_OR_KW_SPLAT(ci);
}
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
vm_insnhelper.c: make VM helpers inline In r66597, both VM and JIT seem to be made slower: ``` $ benchmark-driver benchmark.yml --rbenv 'r66596::before --disable-gems;r66597::after --disable-gems;r66596+JIT::before --disable-gems --jit;r66597+JIT::after --disable-gems --jit' -v --repeat-count 24 r66596: ruby 2.7.0dev (2018-12-28 trunk 66596) [x86_64-linux] r66597: ruby 2.7.0dev (2018-12-28 trunk 66597) [x86_64-linux] r66596+JIT: ruby 2.7.0dev (2018-12-28 trunk 66596) +JIT [x86_64-linux] r66597+JIT: ruby 2.7.0dev (2018-12-28 trunk 66597) +JIT [x86_64-linux] Calculating ------------------------------------- r66596 r66597 r66596+JIT r66597+JIT Optcarrot Lan_Master.nes 55.174 54.620 88.011 85.326 fps Comparison: Optcarrot Lan_Master.nes r66596+JIT: 88.0 fps r66597+JIT: 85.3 fps - 1.03x slower r66596: 55.2 fps - 1.60x slower r66597: 54.6 fps - 1.61x slower ``` This commit makes JIT's situation a little better. But in 2.7 we seem to have some other regressions after that, and this can't still resurrect the 2.6.0's performance. ``` $ benchmark-driver benchmark.yml --rbenv 'before::before --disable-gems;after::after --disable-gems;before+JIT::before --disable-gems --jit;after+JIT::after --disable-gems --jit' -v --repeat-count 24 before: ruby 2.7.0dev (2019-01-13 trunk 66808) [x86_64-linux] after: ruby 2.7.0dev (2019-01-13 trunk 66808) [x86_64-linux] last_commit=vm_insnhelper.c: make VM helpers inline before+JIT: ruby 2.7.0dev (2019-01-13 trunk 66808) +JIT [x86_64-linux] after+JIT: ruby 2.7.0dev (2019-01-13 trunk 66808) +JIT [x86_64-linux] last_commit=vm_insnhelper.c: make VM helpers inline Calculating ------------------------------------- before after before+JIT after+JIT Optcarrot Lan_Master.nes 51.710 51.535 83.629 85.486 fps Comparison: Optcarrot Lan_Master.nes after+JIT: 85.5 fps before+JIT: 83.6 fps - 1.02x slower before: 51.7 fps - 1.65x slower after: 51.5 fps - 1.66x slower ``` git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66809 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-01-14 07:49:28 +03:00
static inline void
CALLER_SETUP_ARG(struct rb_control_frame_struct *restrict cfp,
struct rb_calling_info *restrict calling,
const struct rb_callinfo *restrict ci)
{
if (UNLIKELY(IS_ARGS_SPLAT(ci))) {
VALUE final_hash;
/* This expands the rest argument to the stack.
* So, vm_ci_flag(ci) & VM_CALL_ARGS_SPLAT is now inconsistent.
*/
vm_caller_setup_arg_splat(cfp, calling);
if (!IS_ARGS_KW_OR_KW_SPLAT(ci) &&
calling->argc > 0 &&
RB_TYPE_P((final_hash = *(cfp->sp - 1)), T_HASH) &&
(((struct RHash *)final_hash)->basic.flags & RHASH_PASS_AS_KEYWORDS)) {
*(cfp->sp - 1) = rb_hash_dup(final_hash);
calling->kw_splat = 1;
}
}
Reduce allocations for keyword argument hashes Previously, passing a keyword splat to a method always allocated a hash on the caller side, and accepting arbitrary keywords in a method allocated a separate hash on the callee side. Passing explicit keywords to a method that accepted a keyword splat did not allocate a hash on the caller side, but resulted in two hashes allocated on the callee side. This commit makes passing a single keyword splat to a method not allocate a hash on the caller side. Passing multiple keyword splats or a mix of explicit keywords and a keyword splat still generates a hash on the caller side. On the callee side, if arbitrary keywords are not accepted, it does not allocate a hash. If arbitrary keywords are accepted, it will allocate a hash, but this commit uses a callinfo flag to indicate whether the caller already allocated a hash, and if so, the callee can use the passed hash without duplicating it. So this commit should make it so that a maximum of a single hash is allocated during method calls. To set the callinfo flag appropriately, method call argument compilation checks if only a single keyword splat is given. If only one keyword splat is given, the VM_CALL_KW_SPLAT_MUT callinfo flag is not set, since in that case the keyword splat is passed directly and not mutable. If more than one splat is used, a new hash needs to be generated on the caller side, and in that case the callinfo flag is set, indicating the keyword splat is mutable by the callee. In compile_hash, used for both hash and keyword argument compilation, if compiling keyword arguments and only a single keyword splat is used, pass the argument directly. On the caller side, in vm_args.c, the callinfo flag needs to be recognized and handled. Because the keyword splat argument may not be a hash, it needs to be converted to a hash first if not. Then, unless the callinfo flag is set, the hash needs to be duplicated. The temporary copy of the callinfo flag, kw_flag, is updated if a hash was duplicated, to prevent the need to duplicate it again. If we are converting to a hash or duplicating a hash, we need to update the argument array, which can including duplicating the positional splat array if one was passed. CALLER_SETUP_ARG and a couple other places needs to be modified to handle similar issues for other types of calls. This includes fairly comprehensive tests for different ways keywords are handled internally, checking that you get equal results but that keyword splats on the caller side result in distinct objects for keyword rest parameters. Included are benchmarks for keyword argument calls. Brief results when compiled without optimization: def kw(a: 1) a end def kws(**kw) kw end h = {a: 1} kw(a: 1) # about same kw(**h) # 2.37x faster kws(a: 1) # 1.30x faster kws(**h) # 2.19x faster kw(a: 1, **h) # 1.03x slower kw(**h, **h) # about same kws(a: 1, **h) # 1.16x faster kws(**h, **h) # 1.14x faster
2020-02-24 23:05:07 +03:00
if (UNLIKELY(IS_ARGS_KW_OR_KW_SPLAT(ci))) {
if (IS_ARGS_KEYWORD(ci)) {
/* This converts VM_CALL_KWARG style to VM_CALL_KW_SPLAT style
* by creating a keyword hash.
* So, vm_ci_flag(ci) & VM_CALL_KWARG is now inconsistent.
*/
vm_caller_setup_arg_kw(cfp, calling, ci);
}
else {
VALUE keyword_hash = cfp->sp[-1];
if (!RB_TYPE_P(keyword_hash, T_HASH)) {
/* Convert a non-hash keyword splat to a new hash */
cfp->sp[-1] = rb_hash_dup(rb_to_hash_type(keyword_hash));
}
else if (!IS_ARGS_KW_SPLAT_MUT(ci)) {
/* Convert a hash keyword splat to a new hash unless
* a mutable keyword splat was passed.
*/
cfp->sp[-1] = rb_hash_dup(keyword_hash);
}
}
}
}
static inline void
CALLER_REMOVE_EMPTY_KW_SPLAT(struct rb_control_frame_struct *restrict cfp,
struct rb_calling_info *restrict calling,
const struct rb_callinfo *restrict ci)
{
if (UNLIKELY(calling->kw_splat)) {
/* This removes the last Hash object if it is empty.
* So, vm_ci_flag(ci) & VM_CALL_KW_SPLAT is now inconsistent.
* However, you can use vm_ci_flag(ci) & VM_CALL_KW_SPLAT to
* determine whether a hash should be added back with
* warning (for backwards compatibility in cases where
* the method does not have the number of required
* arguments.
*/
if (RHASH_EMPTY_P(cfp->sp[-1])) {
cfp->sp--;
calling->argc--;
calling->kw_splat = 0;
}
}
}
#define USE_OPT_HIST 0
#if USE_OPT_HIST
#define OPT_HIST_MAX 64
static int opt_hist[OPT_HIST_MAX+1];
__attribute__((destructor))
static void
opt_hist_show_results_at_exit(void)
{
for (int i=0; i<OPT_HIST_MAX; i++) {
fprintf(stderr, "opt_hist\t%d\t%d\n", i, opt_hist[i]);
}
}
#endif
static VALUE
vm_call_iseq_setup_normal_opt_start(rb_execution_context_t *ec, rb_control_frame_t *cfp,
struct rb_calling_info *calling,
struct rb_call_data *cd)
{
const struct rb_callcache *cc = cd->cc;
const rb_iseq_t *iseq = def_iseq_ptr(vm_cc_cme(cc)->def);
const int lead_num = iseq->body->param.lead_num;
const int opt = calling->argc - lead_num;
const int opt_num = iseq->body->param.opt_num;
const int opt_pc = (int)iseq->body->param.opt_table[opt];
const int param = iseq->body->param.size;
const int local = iseq->body->local_table_size;
const int delta = opt_num - opt;
RB_DEBUG_COUNTER_INC(ccf_iseq_opt);
#if USE_OPT_HIST
if (opt_pc < OPT_HIST_MAX) {
opt_hist[opt]++;
}
else {
opt_hist[OPT_HIST_MAX]++;
}
#endif
return vm_call_iseq_setup_normal(ec, cfp, calling, vm_cc_cme(cc), opt_pc, param - delta, local);
}
static VALUE
vm_call_iseq_setup_tailcall_opt_start(rb_execution_context_t *ec, rb_control_frame_t *cfp,
struct rb_calling_info *calling,
struct rb_call_data *cd)
{
const struct rb_callcache *cc = cd->cc;
const rb_iseq_t *iseq = def_iseq_ptr(vm_cc_cme(cc)->def);
const int lead_num = iseq->body->param.lead_num;
const int opt = calling->argc - lead_num;
const int opt_pc = (int)iseq->body->param.opt_table[opt];
RB_DEBUG_COUNTER_INC(ccf_iseq_opt);
#if USE_OPT_HIST
if (opt_pc < OPT_HIST_MAX) {
opt_hist[opt]++;
}
else {
opt_hist[OPT_HIST_MAX]++;
}
#endif
return vm_call_iseq_setup_tailcall(ec, cfp, calling, cd, opt_pc);
}
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
static void
args_setup_kw_parameters(rb_execution_context_t *const ec, const rb_iseq_t *const iseq,
VALUE *const passed_values, const int passed_keyword_len, const VALUE *const passed_keywords,
VALUE *const locals);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
static VALUE
vm_call_iseq_setup_kwparm_kwarg(rb_execution_context_t *ec, rb_control_frame_t *cfp,
struct rb_calling_info *calling,
struct rb_call_data *cd)
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
{
const struct rb_callinfo *ci = cd->ci;
const struct rb_callcache *cc = cd->cc;
VM_ASSERT(vm_ci_flag(ci) & VM_CALL_KWARG);
RB_DEBUG_COUNTER_INC(ccf_iseq_kw1);
const rb_iseq_t *iseq = def_iseq_ptr(vm_cc_cme(cc)->def);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
const struct rb_iseq_param_keyword *kw_param = iseq->body->param.keyword;
const struct rb_callinfo_kwarg *kw_arg = vm_ci_kwarg(ci);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
const int ci_kw_len = kw_arg->keyword_len;
const VALUE * const ci_keywords = kw_arg->keywords;
VALUE *argv = cfp->sp - calling->argc;
VALUE *const klocals = argv + kw_param->bits_start - kw_param->num;
const int lead_num = iseq->body->param.lead_num;
VALUE * const ci_kws = ALLOCA_N(VALUE, ci_kw_len);
MEMCPY(ci_kws, argv + lead_num, VALUE, ci_kw_len);
args_setup_kw_parameters(ec, iseq, ci_kws, ci_kw_len, ci_keywords, klocals);
int param = iseq->body->param.size;
int local = iseq->body->local_table_size;
return vm_call_iseq_setup_normal(ec, cfp, calling, vm_cc_cme(cc), 0, param, local);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
}
static VALUE
vm_call_iseq_setup_kwparm_nokwarg(rb_execution_context_t *ec, rb_control_frame_t *cfp,
struct rb_calling_info *calling,
struct rb_call_data *cd)
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
{
const struct rb_callinfo *MAYBE_UNUSED(ci) = cd->ci;
const struct rb_callcache *cc = cd->cc;
VM_ASSERT((vm_ci_flag(ci) & VM_CALL_KWARG) == 0);
RB_DEBUG_COUNTER_INC(ccf_iseq_kw2);
const rb_iseq_t *iseq = def_iseq_ptr(vm_cc_cme(cc)->def);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
const struct rb_iseq_param_keyword *kw_param = iseq->body->param.keyword;
VALUE * const argv = cfp->sp - calling->argc;
VALUE * const klocals = argv + kw_param->bits_start - kw_param->num;
int i;
for (i=0; i<kw_param->num; i++) {
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
klocals[i] = kw_param->default_values[i];
}
klocals[i] = INT2FIX(0); // kw specify flag
// NOTE:
// nobody check this value, but it should be cleared because it can
// points invalid VALUE (T_NONE objects, raw pointer and so on).
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
int param = iseq->body->param.size;
int local = iseq->body->local_table_size;
return vm_call_iseq_setup_normal(ec, cfp, calling, vm_cc_cme(cc), 0, param, local);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
}
static inline int
vm_callee_setup_arg(rb_execution_context_t *ec, struct rb_calling_info *calling, struct rb_call_data *cd,
const rb_iseq_t *iseq, VALUE *argv, int param_size, int local_size)
{
const struct rb_callinfo *ci = cd->ci;
const struct rb_callcache *cc = cd->cc;
if (LIKELY(!(vm_ci_flag(ci) & VM_CALL_KW_SPLAT))) {
if (LIKELY(rb_simple_iseq_p(iseq))) {
rb_control_frame_t *cfp = ec->cfp;
CALLER_SETUP_ARG(cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(cfp, calling, ci);
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
if (calling->argc != iseq->body->param.lead_num) {
argument_arity_error(ec, iseq, calling->argc, iseq->body->param.lead_num, iseq->body->param.lead_num);
}
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
CC_SET_FASTPATH(cc, vm_call_iseq_setup_func(ci, param_size, local_size), vm_call_iseq_optimizable_p(cd->ci, cd->cc));
return 0;
}
else if (rb_iseq_only_optparam_p(iseq)) {
rb_control_frame_t *cfp = ec->cfp;
CALLER_SETUP_ARG(cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(cfp, calling, ci);
const int lead_num = iseq->body->param.lead_num;
const int opt_num = iseq->body->param.opt_num;
const int argc = calling->argc;
const int opt = argc - lead_num;
if (opt < 0 || opt > opt_num) {
argument_arity_error(ec, iseq, argc, lead_num, lead_num + opt_num);
}
if (LIKELY(!(vm_ci_flag(ci) & VM_CALL_TAILCALL))) {
CC_SET_FASTPATH(cc, vm_call_iseq_setup_normal_opt_start,
!IS_ARGS_SPLAT(ci) && !IS_ARGS_KEYWORD(ci) &&
!(METHOD_ENTRY_VISI(vm_cc_cme(cc)) == METHOD_VISI_PROTECTED));
}
else {
CC_SET_FASTPATH(cc, vm_call_iseq_setup_tailcall_opt_start,
!IS_ARGS_SPLAT(ci) && !IS_ARGS_KEYWORD(ci) &&
!(METHOD_ENTRY_VISI(vm_cc_cme(cc)) == METHOD_VISI_PROTECTED));
}
/* initialize opt vars for self-references */
2019-04-25 10:36:32 +03:00
VM_ASSERT((int)iseq->body->param.size == lead_num + opt_num);
for (int i=argc; i<lead_num + opt_num; i++) {
argv[i] = Qnil;
}
return (int)iseq->body->param.opt_table[opt];
}
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
else if (rb_iseq_only_kwparam_p(iseq) && !IS_ARGS_SPLAT(ci)) {
const int lead_num = iseq->body->param.lead_num;
const int argc = calling->argc;
const struct rb_iseq_param_keyword *kw_param = iseq->body->param.keyword;
if (vm_ci_flag(ci) & VM_CALL_KWARG) {
const struct rb_callinfo_kwarg *kw_arg = vm_ci_kwarg(ci);
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
if (argc - kw_arg->keyword_len == lead_num) {
const int ci_kw_len = kw_arg->keyword_len;
const VALUE * const ci_keywords = kw_arg->keywords;
VALUE * const ci_kws = ALLOCA_N(VALUE, ci_kw_len);
MEMCPY(ci_kws, argv + lead_num, VALUE, ci_kw_len);
VALUE *const klocals = argv + kw_param->bits_start - kw_param->num;
args_setup_kw_parameters(ec, iseq, ci_kws, ci_kw_len, ci_keywords, klocals);
CC_SET_FASTPATH(cc, vm_call_iseq_setup_kwparm_kwarg,
!(METHOD_ENTRY_VISI(vm_cc_cme(cc)) == METHOD_VISI_PROTECTED));
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
return 0;
}
}
else if (argc == lead_num) {
/* no kwarg */
VALUE *const klocals = argv + kw_param->bits_start - kw_param->num;
args_setup_kw_parameters(ec, iseq, NULL, 0, NULL, klocals);
if (klocals[kw_param->num] == INT2FIX(0)) {
/* copy from default_values */
CC_SET_FASTPATH(cc, vm_call_iseq_setup_kwparm_nokwarg,
!(METHOD_ENTRY_VISI(vm_cc_cme(cc)) == METHOD_VISI_PROTECTED));
optimize method dispatch for lead/kw params. similar idea to r67315, provide the following optimization for method dispatch with lead and kw parameters. (1) add a special branch to check passing kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0, k:1) (2) add a special branch to check passing no-kw arguments to a method which has lead and kw parameters. ex) def foo(x, k:1); end; foo(0) For (1) and (2) cases, provide special dispatchers. For (2) case, this patch only use the special dispatcher if all default kw parameters are literal values (nil, 1, and so on. In other case, kw->default_values does not contains Qundef) (and no required kw parameters becaseu they don't pass any keyword parameters). Passing keyword arguments with a hash object is not a scope of this patch. Without this patch, (1) and (2) cases use `setup_parameters_complex()`. Especially, (2) seems frequent case for methods which extend a normal usecase with keyword parameters (like: `exception: true`). We can measure the performance with benchmark-driver: With methods: def kw k1:1, k2:2; end def m; end With the following binaries: clean-miniruby: unmodified trunk. opt_miniruby1: use special branches for lead/kw parameters. opt_miniruby2: use special dispatchers for lead/kw parameters. opt_cc_miniruby: apply step (2). Result with benchmark-driver: m opt_miniruby2: 75222278.0 i/s clean-miniruby: 73177896.5 i/s - 1.03x slower opt_miniruby1: 62466783.3 i/s - 1.20x slower kw opt_miniruby2: 52044504.4 i/s opt_miniruby1: 29142025.7 i/s - 1.79x slower clean-miniruby: 20515235.4 i/s - 2.54x slower kw k1: 10 opt_miniruby2: 26492219.5 i/s opt_miniruby1: 25409484.9 i/s - 1.04x slower clean-miniruby: 20235113.7 i/s - 1.31x slower kw k1: 10, k2: 20 opt_miniruby1: 24159534.0 i/s opt_miniruby2: 23470527.5 i/s - 1.03x slower clean-miniruby: 17822621.5 i/s - 1.36x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@67333 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2019-03-22 03:21:41 +03:00
}
return 0;
}
}
}
return setup_parameters_complex(ec, iseq, calling, ci, argv, arg_setup_method);
}
static VALUE
vm_call_iseq_setup(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_iseq_setup);
const struct rb_callcache *cc = cd->cc;
const rb_iseq_t *iseq = def_iseq_ptr(vm_cc_cme(cc)->def);
const int param_size = iseq->body->param.size;
const int local_size = iseq->body->local_table_size;
const int opt_pc = vm_callee_setup_arg(ec, calling, cd, def_iseq_ptr(vm_cc_cme(cc)->def), cfp->sp - calling->argc, param_size, local_size);
return vm_call_iseq_setup_2(ec, cfp, calling, cd, opt_pc, param_size, local_size);
}
static inline VALUE
vm_call_iseq_setup_2(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd,
int opt_pc, int param_size, int local_size)
{
const struct rb_callinfo *ci = cd->ci;
const struct rb_callcache *cc = cd->cc;
if (LIKELY(!(vm_ci_flag(ci) & VM_CALL_TAILCALL))) {
return vm_call_iseq_setup_normal(ec, cfp, calling, vm_cc_cme(cc), opt_pc, param_size, local_size);
}
else {
return vm_call_iseq_setup_tailcall(ec, cfp, calling, cd, opt_pc);
}
}
static inline VALUE
vm_call_iseq_setup_normal(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, const rb_callable_method_entry_t *me,
int opt_pc, int param_size, int local_size)
{
const rb_iseq_t *iseq = def_iseq_ptr(me->def);
VALUE *argv = cfp->sp - calling->argc;
VALUE *sp = argv + param_size;
cfp->sp = argv - 1 /* recv */;
vm_push_frame(ec, iseq, VM_FRAME_MAGIC_METHOD | VM_ENV_FLAG_LOCAL, calling->recv,
calling->block_handler, (VALUE)me,
iseq->body->iseq_encoded + opt_pc, sp,
local_size - param_size,
iseq->body->stack_max);
return Qundef;
}
static inline VALUE
vm_call_iseq_setup_tailcall(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd,
int opt_pc)
{
const struct rb_callcache *cc = cd->cc;
unsigned int i;
VALUE *argv = cfp->sp - calling->argc;
const rb_callable_method_entry_t *me = vm_cc_cme(cc);
const rb_iseq_t *iseq = def_iseq_ptr(me->def);
VALUE *src_argv = argv;
VALUE *sp_orig, *sp;
VALUE finish_flag = VM_FRAME_FINISHED_P(cfp) ? VM_FRAME_FLAG_FINISH : 0;
if (VM_BH_FROM_CFP_P(calling->block_handler, cfp)) {
struct rb_captured_block *dst_captured = VM_CFP_TO_CAPTURED_BLOCK(RUBY_VM_PREVIOUS_CONTROL_FRAME(cfp));
const struct rb_captured_block *src_captured = VM_BH_TO_CAPT_BLOCK(calling->block_handler);
dst_captured->code.val = src_captured->code.val;
if (VM_BH_ISEQ_BLOCK_P(calling->block_handler)) {
calling->block_handler = VM_BH_FROM_ISEQ_BLOCK(dst_captured);
}
else {
calling->block_handler = VM_BH_FROM_IFUNC_BLOCK(dst_captured);
}
}
vm_pop_frame(ec, cfp, cfp->ep);
cfp = ec->cfp;
sp_orig = sp = cfp->sp;
/* push self */
sp[0] = calling->recv;
sp++;
/* copy arguments */
2015-07-22 01:52:59 +03:00
for (i=0; i < iseq->body->param.size; i++) {
*sp++ = src_argv[i];
}
vm_push_frame(ec, iseq, VM_FRAME_MAGIC_METHOD | VM_ENV_FLAG_LOCAL | finish_flag,
calling->recv, calling->block_handler, (VALUE)me,
iseq->body->iseq_encoded + opt_pc, sp,
iseq->body->local_table_size - iseq->body->param.size,
iseq->body->stack_max);
cfp->sp = sp_orig;
return Qundef;
}
static VALUE
call_cfunc_m2(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
return (*func)(recv, rb_ary_new4(argc, argv));
}
static VALUE
call_cfunc_m1(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
return (*func)(argc, argv, recv);
}
static VALUE
call_cfunc_0(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE) = (VALUE(*)(VALUE))func;
return (*f)(recv);
}
static VALUE
call_cfunc_1(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE) = (VALUE(*)(VALUE, VALUE))func;
return (*f)(recv, argv[0]);
}
static VALUE
call_cfunc_2(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1]);
}
static VALUE
call_cfunc_3(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2]);
}
static VALUE
call_cfunc_4(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3]);
}
static VALUE
call_cfunc_5(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4]);
}
static VALUE
call_cfunc_6(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5]);
}
static VALUE
call_cfunc_7(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6]);
}
static VALUE
call_cfunc_8(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7]);
}
static VALUE
call_cfunc_9(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8]);
}
static VALUE
call_cfunc_10(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9]);
}
static VALUE
call_cfunc_11(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10]);
}
static VALUE
call_cfunc_12(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11]);
}
static VALUE
call_cfunc_13(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11], argv[12]);
}
static VALUE
call_cfunc_14(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11], argv[12], argv[13]);
}
static VALUE
call_cfunc_15(VALUE recv, int argc, const VALUE *argv, VALUE (*func)(ANYARGS))
{
VALUE(*f)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE) = (VALUE(*)(VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE, VALUE))func;
return (*f)(recv, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11], argv[12], argv[13], argv[14]);
}
static inline int
vm_cfp_consistent_p(rb_execution_context_t *ec, const rb_control_frame_t *reg_cfp)
{
const int ov_flags = RAISED_STACKOVERFLOW;
if (LIKELY(reg_cfp == ec->cfp + 1)) return TRUE;
if (rb_ec_raised_p(ec, ov_flags)) {
rb_ec_raised_reset(ec, ov_flags);
return TRUE;
}
return FALSE;
}
#define CHECK_CFP_CONSISTENCY(func) \
(LIKELY(vm_cfp_consistent_p(ec, reg_cfp)) ? (void)0 : \
rb_bug(func ": cfp consistency error (%p, %p)", (void *)reg_cfp, (void *)(ec->cfp+1)))
static inline
const rb_method_cfunc_t *
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
vm_method_cfunc_entry(const rb_callable_method_entry_t *me)
{
#if VM_DEBUG_VERIFY_METHOD_CACHE
switch (me->def->type) {
case VM_METHOD_TYPE_CFUNC:
case VM_METHOD_TYPE_NOTIMPLEMENTED:
break;
# define METHOD_BUG(t) case VM_METHOD_TYPE_##t: rb_bug("wrong method type: " #t)
METHOD_BUG(ISEQ);
METHOD_BUG(ATTRSET);
METHOD_BUG(IVAR);
METHOD_BUG(BMETHOD);
METHOD_BUG(ZSUPER);
METHOD_BUG(UNDEF);
METHOD_BUG(OPTIMIZED);
METHOD_BUG(MISSING);
METHOD_BUG(REFINED);
METHOD_BUG(ALIAS);
# undef METHOD_BUG
default:
rb_bug("wrong method type: %d", me->def->type);
}
#endif
return UNALIGNED_MEMBER_PTR(me->def, body.cfunc);
}
static VALUE
vm_call_cfunc_with_frame(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
2020-04-14 06:32:59 +03:00
RB_DEBUG_COUNTER_INC(ccf_cfunc_with_frame);
const struct rb_callinfo *ci = cd->ci;
const struct rb_callcache *cc = cd->cc;
VALUE val;
const rb_callable_method_entry_t *me = vm_cc_cme(cc);
const rb_method_cfunc_t *cfunc = vm_method_cfunc_entry(me);
int len = cfunc->argc;
VALUE recv = calling->recv;
VALUE block_handler = calling->block_handler;
VALUE frame_type = VM_FRAME_MAGIC_CFUNC | VM_FRAME_FLAG_CFRAME | VM_ENV_FLAG_LOCAL;
int argc = calling->argc;
int orig_argc = argc;
if (UNLIKELY(calling->kw_splat)) {
frame_type |= VM_FRAME_FLAG_CFRAME_KW;
}
RUBY_DTRACE_CMETHOD_ENTRY_HOOK(ec, me->owner, me->def->original_id);
EXEC_EVENT_HOOK(ec, RUBY_EVENT_C_CALL, recv, me->def->original_id, vm_ci_mid(ci), me->owner, Qundef);
vm_push_frame(ec, NULL, frame_type, recv,
block_handler, (VALUE)me,
0, ec->cfp->sp, 0, 0);
if (len >= 0) rb_check_arity(argc, len, len);
reg_cfp->sp -= orig_argc + 1;
val = (*cfunc->invoker)(recv, argc, reg_cfp->sp + 1, cfunc->func);
CHECK_CFP_CONSISTENCY("vm_call_cfunc");
rb_vm_pop_frame(ec);
EXEC_EVENT_HOOK(ec, RUBY_EVENT_C_RETURN, recv, me->def->original_id, vm_ci_mid(ci), me->owner, val);
RUBY_DTRACE_CMETHOD_RETURN_HOOK(ec, me->owner, me->def->original_id);
return val;
}
static VALUE
vm_call_cfunc(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const struct rb_callinfo *ci = cd->ci;
RB_DEBUG_COUNTER_INC(ccf_cfunc);
CALLER_SETUP_ARG(reg_cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(reg_cfp, calling, ci);
2020-04-14 06:32:59 +03:00
CC_SET_FASTPATH(cd->cc, vm_call_cfunc_with_frame, !rb_splat_or_kwargs_p(ci) && !calling->kw_splat);
return vm_call_cfunc_with_frame(ec, reg_cfp, calling, cd);
}
static VALUE
vm_call_ivar(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const struct rb_callcache *cc = cd->cc;
RB_DEBUG_COUNTER_INC(ccf_ivar);
cfp->sp -= 1;
return vm_getivar(calling->recv, vm_cc_cme(cc)->def->body.attr.id, NULL, cc, TRUE);
}
static VALUE
vm_call_attrset(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const struct rb_callcache *cc = cd->cc;
RB_DEBUG_COUNTER_INC(ccf_attrset);
VALUE val = *(cfp->sp - 1);
cfp->sp -= 2;
return vm_setivar(calling->recv, vm_cc_cme(cc)->def->body.attr.id, val, NULL, cc, 1);
}
static inline VALUE
vm_call_bmethod_body(rb_execution_context_t *ec, struct rb_calling_info *calling, struct rb_call_data *cd, const VALUE *argv)
{
rb_proc_t *proc;
VALUE val;
const struct rb_callcache *cc = cd->cc;
/* control block frame */
GetProcPtr(vm_cc_cme(cc)->def->body.bmethod.proc, proc);
val = rb_vm_invoke_bmethod(ec, proc, calling->recv, calling->argc, argv, calling->kw_splat, calling->block_handler, vm_cc_cme(cc));
return val;
}
static VALUE
vm_call_bmethod(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_bmethod);
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
VALUE *argv;
int argc;
const struct rb_callinfo *ci = cd->ci;
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
CALLER_SETUP_ARG(cfp, calling, ci);
argc = calling->argc;
argv = ALLOCA_N(VALUE, argc);
MEMCPY(argv, cfp->sp - argc, VALUE, argc);
cfp->sp += - argc - 1;
return vm_call_bmethod_body(ec, calling, cd, argv);
}
static VALUE
find_defined_class_by_owner(VALUE current_class, VALUE target_owner)
{
VALUE klass = current_class;
/* for prepended Module, then start from cover class */
if (RB_TYPE_P(klass, T_ICLASS) && FL_TEST(klass, RICLASS_IS_ORIGIN) &&
RB_TYPE_P(RBASIC_CLASS(klass), T_CLASS)) {
klass = RBASIC_CLASS(klass);
}
while (RTEST(klass)) {
VALUE owner = RB_TYPE_P(klass, T_ICLASS) ? RBASIC_CLASS(klass) : klass;
if (owner == target_owner) {
return klass;
}
klass = RCLASS_SUPER(klass);
}
return current_class; /* maybe module function */
}
static const rb_callable_method_entry_t *
aliased_callable_method_entry(const rb_callable_method_entry_t *me)
{
const rb_method_entry_t *orig_me = me->def->body.alias.original_me;
const rb_callable_method_entry_t *cme;
if (orig_me->defined_class == 0) {
VALUE defined_class = find_defined_class_by_owner(me->defined_class, orig_me->owner);
VM_ASSERT(RB_TYPE_P(orig_me->owner, T_MODULE));
cme = rb_method_entry_complement_defined_class(orig_me, me->called_id, defined_class);
if (me->def->alias_count + me->def->complemented_count == 0) {
RB_OBJ_WRITE(me, &me->def->body.alias.original_me, cme);
}
else {
rb_method_definition_t *def =
rb_method_definition_create(VM_METHOD_TYPE_ALIAS, me->def->original_id);
rb_method_definition_set((rb_method_entry_t *)me, def, (void *)cme);
}
}
else {
cme = (const rb_callable_method_entry_t *)orig_me;
}
VM_ASSERT(callable_method_entry_p(cme));
return cme;
}
static VALUE
vm_call_alias(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const rb_callable_method_entry_t *cme = aliased_callable_method_entry(vm_cc_cme(cd->cc));
struct rb_callcache cc_body;
struct rb_call_data cd_body = {
.ci = cd->ci,
.cc = vm_cc_fill(&cc_body, Qundef, cme, 0),
};
return vm_call_method_each_type(ec, cfp, calling, &cd_body);
}
static enum method_missing_reason
ci_missing_reason(const struct rb_callinfo *ci)
{
enum method_missing_reason stat = MISSING_NOENTRY;
if (vm_ci_flag(ci) & VM_CALL_VCALL) stat |= MISSING_VCALL;
if (vm_ci_flag(ci) & VM_CALL_FCALL) stat |= MISSING_FCALL;
if (vm_ci_flag(ci) & VM_CALL_SUPER) stat |= MISSING_SUPER;
return stat;
}
static VALUE
vm_call_symbol(
rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
VALUE symbol)
{
ASSUME(calling->argc >= 0);
/* Also assumes CALLER_SETUP_ARG is already done. */
enum method_missing_reason missing_reason = MISSING_NOENTRY;
int argc = calling->argc;
VALUE recv = calling->recv;
VALUE klass = CLASS_OF(recv);
ID mid = rb_check_id(&symbol);
int flags = VM_CALL_FCALL |
VM_CALL_OPT_SEND |
(calling->kw_splat ? VM_CALL_KW_SPLAT : 0);
if (UNLIKELY(! mid)) {
mid = idMethodMissing;
missing_reason = ci_missing_reason(ci);
ec->method_missing_reason = missing_reason;
/* E.g. when argc == 2
*
* | | | | TOPN
* | | +------+
* | | +---> | arg1 | 0
* +------+ | +------+
* | arg1 | -+ +-> | arg0 | 1
* +------+ | +------+
* | arg0 | ---+ | sym | 2
* +------+ +------+
* | recv | | recv | 3
* --+------+--------+------+------
*/
int i = argc;
CHECK_VM_STACK_OVERFLOW(reg_cfp, 1);
INC_SP(1);
MEMMOVE(&TOPN(i - 1), &TOPN(i), VALUE, i);
argc = ++calling->argc;
if (rb_method_basic_definition_p(klass, idMethodMissing)) {
/* Inadvertent symbol creation shall be forbidden, see [Feature #5112] */
TOPN(i) = symbol;
int priv = vm_ci_flag(ci) & (VM_CALL_FCALL | VM_CALL_VCALL);
const VALUE *argv = STACK_ADDR_FROM_TOP(argc);
VALUE exc = rb_make_no_method_exception(
rb_eNoMethodError, 0, recv, argc, argv, priv);
rb_exc_raise(exc);
}
else {
TOPN(i) = rb_str_intern(symbol);
}
}
return vm_call_method(ec, reg_cfp, calling, &(struct rb_call_data) {
.ci = vm_ci_new_runtime(mid, flags, argc, vm_ci_kwarg(ci)),
.cc = &(struct rb_callcache) {
.flags = T_IMEMO | (imemo_callcache << FL_USHIFT) | VM_CALLCACHE_UNMARKABLE,
.klass = klass,
.cme_ = rb_callable_method_entry_with_refinements(klass, mid, NULL),
.call_ = 0,
.aux_.method_missing_reason = missing_reason,
},
});
}
static VALUE
vm_call_opt_send(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *orig_cd)
{
RB_DEBUG_COUNTER_INC(ccf_opt_send);
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
int i;
VALUE sym;
CALLER_SETUP_ARG(reg_cfp, calling, orig_cd->ci);
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
i = calling->argc - 1;
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
if (calling->argc == 0) {
rb_raise(rb_eArgError, "no method name given");
}
else {
sym = TOPN(i);
/* E.g. when i == 2
*
* | | | | TOPN
* +------+ | |
* | arg1 | ---+ | | 0
* +------+ | +------+
* | arg0 | -+ +-> | arg1 | 1
* +------+ | +------+
* | sym | +---> | arg0 | 2
* +------+ +------+
* | recv | | recv | 3
* --+------+--------+------+------
*/
/* shift arguments */
if (i > 0) {
MEMMOVE(&TOPN(i), &TOPN(i-1), VALUE, i);
}
calling->argc -= 1;
DEC_SP(1);
return vm_call_symbol(ec, reg_cfp, calling, orig_cd->ci, sym);
}
}
static inline VALUE vm_invoke_block(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, const struct rb_callinfo *ci, bool is_lambda, VALUE block_handler);
NOINLINE(static VALUE
vm_invoke_block_opt_call(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci, VALUE block_handler));
static VALUE
vm_invoke_block_opt_call(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci, VALUE block_handler)
{
int argc = calling->argc;
/* remove self */
if (argc > 0) MEMMOVE(&TOPN(argc), &TOPN(argc-1), VALUE, argc);
DEC_SP(1);
return vm_invoke_block(ec, reg_cfp, calling, ci, false, block_handler);
}
static VALUE
vm_call_opt_call(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_opt_call);
const struct rb_callinfo *ci = cd->ci;
VALUE procval = calling->recv;
return vm_invoke_block_opt_call(ec, reg_cfp, calling, ci, VM_BH_FROM_PROC(procval));
}
static VALUE
vm_call_opt_block_call(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_opt_block_call);
VALUE block_handler = VM_ENV_BLOCK_HANDLER(VM_CF_LEP(reg_cfp));
const struct rb_callinfo *ci = cd->ci;
if (BASIC_OP_UNREDEFINED_P(BOP_CALL, PROC_REDEFINED_OP_FLAG)) {
return vm_invoke_block_opt_call(ec, reg_cfp, calling, ci, block_handler);
}
else {
calling->recv = rb_vm_bh_to_procval(ec, block_handler);
vm_search_method((VALUE)reg_cfp->iseq, cd, calling->recv);
return vm_call_general(ec, reg_cfp, calling, cd);
}
}
static VALUE
vm_call_method_missing_body(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling,
const struct rb_callinfo *orig_ci, enum method_missing_reason reason)
{
RB_DEBUG_COUNTER_INC(ccf_method_missing);
VALUE *argv = STACK_ADDR_FROM_TOP(calling->argc);
struct rb_call_data cd;
unsigned int argc;
CALLER_SETUP_ARG(reg_cfp, calling, orig_ci);
argc = calling->argc + 1;
unsigned int flag = VM_CALL_FCALL | VM_CALL_OPT_SEND | (calling->kw_splat ? VM_CALL_KW_SPLAT : 0);
cd.ci = vm_ci_new_runtime(idMethodMissing, flag, argc, vm_ci_kwarg(orig_ci));
struct rb_callcache cc_body;
cd.cc = vm_cc_fill(&cc_body,
Qundef,
rb_callable_method_entry_without_refinements(CLASS_OF(calling->recv), idMethodMissing, NULL),
vm_call_general);
calling->argc = argc;
/* shift arguments: m(a, b, c) #=> method_missing(:m, a, b, c) */
CHECK_VM_STACK_OVERFLOW(reg_cfp, 1);
vm_check_canary(ec, reg_cfp->sp);
if (argc > 1) {
MEMMOVE(argv+1, argv, VALUE, argc-1);
}
argv[0] = ID2SYM(vm_ci_mid(orig_ci));
INC_SP(1);
ec->method_missing_reason = reason;
return vm_call_method(ec, reg_cfp, calling, &cd);
}
static VALUE
vm_call_method_missing(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, struct rb_call_data *cd)
{
return vm_call_method_missing_body(ec, reg_cfp, calling, cd->ci, vm_cc_cmethod_missing_reason(cd->cc));
}
static const rb_callable_method_entry_t *refined_method_callable_without_refinement(const rb_callable_method_entry_t *me);
static VALUE
vm_call_zsuper(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd, VALUE klass)
{
klass = RCLASS_SUPER(klass);
const rb_callable_method_entry_t *cme = klass ? rb_callable_method_entry(klass, vm_ci_mid(cd->ci)) : NULL;
if (cme == NULL) {
return vm_call_method_nome(ec, cfp, calling, cd);
}
if (cme->def->type == VM_METHOD_TYPE_REFINED &&
cme->def->body.refined.orig_me) {
cme = refined_method_callable_without_refinement(cme);
}
struct rb_callcache cc_body;
struct rb_call_data cd_body = {
.ci = cd->ci,
.cc = vm_cc_fill(&cc_body, Qundef, cme, 0),
};
return vm_call_method_each_type(ec, cfp, calling, &cd_body);
}
static inline VALUE
* revised r37993 to avoid SEGV/ILL in tests. In r37993, a method entry with VM_METHOD_TYPE_REFINED holds only the original method definition, so ci->me is set to a method entry allocated in the stack, and it causes SEGV/ILL. In this commit, a method entry with VM_METHOD_TYPE_REFINED holds the whole original method entry. Furthermore, rb_thread_mark() is changed to mark cfp->klass to avoid GC for iclasses created by copy_refinement_iclass(). * vm_method.c (rb_method_entry_make): add a method entry with VM_METHOD_TYPE_REFINED to the class refined by the refinement if the target module is a refinement. When a method entry with VM_METHOD_TYPE_UNDEF is invoked by vm_call_method(), a method with the same name is searched in refinements. If such a method is found, the method is invoked. Otherwise, the original method in the refined class (rb_method_definition_t::body.orig_me) is invoked. This change is made to simplify the normal method lookup and to improve the performance of normal method calls. * vm_method.c (EXPR1, search_method, rb_method_entry), vm_eval.c (rb_call0, rb_search_method_entry): do not use refinements for method lookup. * vm_insnhelper.c (vm_call_method): search methods in refinements if ci->me is VM_METHOD_TYPE_REFINED. If the method is called by super (i.e., ci->call == vm_call_super_method), skip the same method entry as the current method to avoid infinite call of the same method. * class.c (include_modules_at): add a refined method entry for each method defined in a module included in a refinement. * class.c (rb_prepend_module): set an empty table to RCLASS_M_TBL(klass) to add refined method entries, because refinements should have priority over prepended modules. * proc.c (mnew): use rb_method_entry_with_refinements() to get a refined method. * vm.c (rb_thread_mark): mark cfp->klass for iclasses created by copy_refinement_iclass(). * vm.c (Init_VM), cont.c (fiber_init): initialize th->cfp->klass. * test/ruby/test_refinement.rb (test_inline_method_cache): do not skip the test because it should pass successfully. * test/ruby/test_refinement.rb (test_redefine_refined_method): new test for the case a refined method is redefined. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38236 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-06 17:08:41 +04:00
find_refinement(VALUE refinements, VALUE klass)
{
if (NIL_P(refinements)) {
return Qnil;
}
return rb_hash_lookup(refinements, klass);
* revised r37993 to avoid SEGV/ILL in tests. In r37993, a method entry with VM_METHOD_TYPE_REFINED holds only the original method definition, so ci->me is set to a method entry allocated in the stack, and it causes SEGV/ILL. In this commit, a method entry with VM_METHOD_TYPE_REFINED holds the whole original method entry. Furthermore, rb_thread_mark() is changed to mark cfp->klass to avoid GC for iclasses created by copy_refinement_iclass(). * vm_method.c (rb_method_entry_make): add a method entry with VM_METHOD_TYPE_REFINED to the class refined by the refinement if the target module is a refinement. When a method entry with VM_METHOD_TYPE_UNDEF is invoked by vm_call_method(), a method with the same name is searched in refinements. If such a method is found, the method is invoked. Otherwise, the original method in the refined class (rb_method_definition_t::body.orig_me) is invoked. This change is made to simplify the normal method lookup and to improve the performance of normal method calls. * vm_method.c (EXPR1, search_method, rb_method_entry), vm_eval.c (rb_call0, rb_search_method_entry): do not use refinements for method lookup. * vm_insnhelper.c (vm_call_method): search methods in refinements if ci->me is VM_METHOD_TYPE_REFINED. If the method is called by super (i.e., ci->call == vm_call_super_method), skip the same method entry as the current method to avoid infinite call of the same method. * class.c (include_modules_at): add a refined method entry for each method defined in a module included in a refinement. * class.c (rb_prepend_module): set an empty table to RCLASS_M_TBL(klass) to add refined method entries, because refinements should have priority over prepended modules. * proc.c (mnew): use rb_method_entry_with_refinements() to get a refined method. * vm.c (rb_thread_mark): mark cfp->klass for iclasses created by copy_refinement_iclass(). * vm.c (Init_VM), cont.c (fiber_init): initialize th->cfp->klass. * test/ruby/test_refinement.rb (test_inline_method_cache): do not skip the test because it should pass successfully. * test/ruby/test_refinement.rb (test_redefine_refined_method): new test for the case a refined method is redefined. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38236 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-06 17:08:41 +04:00
}
PUREFUNC(static rb_control_frame_t * current_method_entry(const rb_execution_context_t *ec, rb_control_frame_t *cfp));
static rb_control_frame_t *
current_method_entry(const rb_execution_context_t *ec, rb_control_frame_t *cfp)
{
rb_control_frame_t *top_cfp = cfp;
2015-07-22 01:52:59 +03:00
if (cfp->iseq && cfp->iseq->body->type == ISEQ_TYPE_BLOCK) {
const rb_iseq_t *local_iseq = cfp->iseq->body->local_iseq;
do {
cfp = RUBY_VM_PREVIOUS_CONTROL_FRAME(cfp);
if (RUBY_VM_CONTROL_FRAME_STACK_OVERFLOW_P(ec, cfp)) {
/* TODO: orphan block */
return top_cfp;
}
} while (cfp->iseq != local_iseq);
}
return cfp;
}
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
static const rb_callable_method_entry_t *
refined_method_callable_without_refinement(const rb_callable_method_entry_t *me)
{
const rb_method_entry_t *orig_me = me->def->body.refined.orig_me;
const rb_callable_method_entry_t *cme;
if (orig_me->defined_class == 0) {
cme = NULL;
rb_notimplement();
}
else {
cme = (const rb_callable_method_entry_t *)orig_me;
}
VM_ASSERT(callable_method_entry_p(cme));
if (UNDEFINED_METHOD_ENTRY_P(cme)) {
cme = NULL;
}
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
return cme;
}
static const rb_callable_method_entry_t *
search_refined_method(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_call_data *cd)
{
ID mid = vm_ci_mid(cd->ci);
const rb_cref_t *cref = vm_get_cref(cfp->ep);
const struct rb_callcache * const cc = cd->cc;
const rb_callable_method_entry_t *cme = vm_cc_cme(cc);
for (; cref; cref = CREF_NEXT(cref)) {
const VALUE refinement = find_refinement(CREF_REFINEMENTS(cref), vm_cc_cme(cc)->owner);
if (NIL_P(refinement)) continue;
const rb_callable_method_entry_t *const ref_me =
rb_callable_method_entry(refinement, mid);
if (ref_me) {
if (vm_cc_call(cc) == vm_call_super_method) {
const rb_control_frame_t *top_cfp = current_method_entry(ec, cfp);
const rb_callable_method_entry_t *top_me = rb_vm_frame_method_entry(top_cfp);
if (top_me && rb_method_definition_eq(ref_me->def, top_me->def)) {
continue;
}
}
if (cme->def->type != VM_METHOD_TYPE_REFINED ||
cme->def != ref_me->def) {
cme = ref_me;
}
if (ref_me->def->type != VM_METHOD_TYPE_REFINED) {
return cme;
}
}
else {
return NULL;
}
}
if (vm_cc_cme(cc)->def->body.refined.orig_me) {
return refined_method_callable_without_refinement(vm_cc_cme(cc));
}
else {
VALUE klass = RCLASS_SUPER(vm_cc_cme(cc)->defined_class);
const rb_callable_method_entry_t *cme = klass ? rb_callable_method_entry(klass, mid) : NULL;
return cme;
}
}
static VALUE
vm_call_refined(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const rb_callable_method_entry_t *cme = search_refined_method(ec, cfp, cd);
if (cme != NULL) {
struct rb_callcache cc_body;
struct rb_call_data cd_body = {
.ci = cd->ci,
.cc = vm_cc_fill(&cc_body, Qundef, cme, 0),
};
return vm_call_method(ec, cfp, calling, &cd_body);
}
else {
return vm_call_method_nome(ec, cfp, calling, cd);
}
}
static VALUE
vm_call_method_each_type(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const struct rb_callinfo *ci = cd->ci;
const struct rb_callcache *cc = cd->cc;
switch (vm_cc_cme(cc)->def->type) {
case VM_METHOD_TYPE_ISEQ:
CC_SET_FASTPATH(cc, vm_call_iseq_setup, TRUE);
return vm_call_iseq_setup(ec, cfp, calling, cd);
case VM_METHOD_TYPE_NOTIMPLEMENTED:
case VM_METHOD_TYPE_CFUNC:
CC_SET_FASTPATH(cc, vm_call_cfunc, TRUE);
return vm_call_cfunc(ec, cfp, calling, cd);
case VM_METHOD_TYPE_ATTRSET:
CALLER_SETUP_ARG(cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(cfp, calling, ci);
rb_check_arity(calling->argc, 1, 1);
vm_cc_attr_index_set(cc, 0);
CC_SET_FASTPATH(cc, vm_call_attrset, !(vm_ci_flag(ci) & (VM_CALL_ARGS_SPLAT | VM_CALL_KW_SPLAT | VM_CALL_KWARG)));
return vm_call_attrset(ec, cfp, calling, cd);
case VM_METHOD_TYPE_IVAR:
CALLER_SETUP_ARG(cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(cfp, calling, ci);
rb_check_arity(calling->argc, 0, 0);
vm_cc_attr_index_set(cc, 0);
CC_SET_FASTPATH(cc, vm_call_ivar, !(vm_ci_flag(ci) & (VM_CALL_ARGS_SPLAT | VM_CALL_KW_SPLAT)));
return vm_call_ivar(ec, cfp, calling, cd);
case VM_METHOD_TYPE_MISSING:
vm_cc_method_missing_reason_set(cc, 0);
CC_SET_FASTPATH(cc, vm_call_method_missing, TRUE);
return vm_call_method_missing(ec, cfp, calling, cd);
case VM_METHOD_TYPE_BMETHOD:
CC_SET_FASTPATH(cc, vm_call_bmethod, TRUE);
return vm_call_bmethod(ec, cfp, calling, cd);
case VM_METHOD_TYPE_ALIAS:
CC_SET_FASTPATH(cc, vm_call_alias, TRUE);
return vm_call_alias(ec, cfp, calling, cd);
case VM_METHOD_TYPE_OPTIMIZED:
switch (vm_cc_cme(cc)->def->body.optimize_type) {
case OPTIMIZED_METHOD_TYPE_SEND:
CC_SET_FASTPATH(cc, vm_call_opt_send, TRUE);
return vm_call_opt_send(ec, cfp, calling, cd);
case OPTIMIZED_METHOD_TYPE_CALL:
CC_SET_FASTPATH(cc, vm_call_opt_call, TRUE);
return vm_call_opt_call(ec, cfp, calling, cd);
case OPTIMIZED_METHOD_TYPE_BLOCK_CALL:
CC_SET_FASTPATH(cc, vm_call_opt_block_call, TRUE);
return vm_call_opt_block_call(ec, cfp, calling, cd);
default:
rb_bug("vm_call_method: unsupported optimized method type (%d)",
vm_cc_cme(cc)->def->body.optimize_type);
}
case VM_METHOD_TYPE_UNDEF:
break;
case VM_METHOD_TYPE_ZSUPER:
return vm_call_zsuper(ec, cfp, calling, cd, RCLASS_ORIGIN(vm_cc_cme(cc)->defined_class));
case VM_METHOD_TYPE_REFINED:
// CC_SET_FASTPATH(cc, vm_call_refined, TRUE);
// should not set FASTPATH since vm_call_refined assumes cc->call is vm_call_super_method on invokesuper.
return vm_call_refined(ec, cfp, calling, cd);
}
rb_bug("vm_call_method: unsupported method type (%d)", vm_cc_cme(cc)->def->type);
}
* revised r37993 to avoid SEGV/ILL in tests. In r37993, a method entry with VM_METHOD_TYPE_REFINED holds only the original method definition, so ci->me is set to a method entry allocated in the stack, and it causes SEGV/ILL. In this commit, a method entry with VM_METHOD_TYPE_REFINED holds the whole original method entry. Furthermore, rb_thread_mark() is changed to mark cfp->klass to avoid GC for iclasses created by copy_refinement_iclass(). * vm_method.c (rb_method_entry_make): add a method entry with VM_METHOD_TYPE_REFINED to the class refined by the refinement if the target module is a refinement. When a method entry with VM_METHOD_TYPE_UNDEF is invoked by vm_call_method(), a method with the same name is searched in refinements. If such a method is found, the method is invoked. Otherwise, the original method in the refined class (rb_method_definition_t::body.orig_me) is invoked. This change is made to simplify the normal method lookup and to improve the performance of normal method calls. * vm_method.c (EXPR1, search_method, rb_method_entry), vm_eval.c (rb_call0, rb_search_method_entry): do not use refinements for method lookup. * vm_insnhelper.c (vm_call_method): search methods in refinements if ci->me is VM_METHOD_TYPE_REFINED. If the method is called by super (i.e., ci->call == vm_call_super_method), skip the same method entry as the current method to avoid infinite call of the same method. * class.c (include_modules_at): add a refined method entry for each method defined in a module included in a refinement. * class.c (rb_prepend_module): set an empty table to RCLASS_M_TBL(klass) to add refined method entries, because refinements should have priority over prepended modules. * proc.c (mnew): use rb_method_entry_with_refinements() to get a refined method. * vm.c (rb_thread_mark): mark cfp->klass for iclasses created by copy_refinement_iclass(). * vm.c (Init_VM), cont.c (fiber_init): initialize th->cfp->klass. * test/ruby/test_refinement.rb (test_inline_method_cache): do not skip the test because it should pass successfully. * test/ruby/test_refinement.rb (test_redefine_refined_method): new test for the case a refined method is redefined. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38236 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-06 17:08:41 +04:00
NORETURN(static void vm_raise_method_missing(rb_execution_context_t *ec, int argc, const VALUE *argv, VALUE obj, int call_status));
static VALUE
vm_call_method_nome(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
/* method missing */
const struct rb_callinfo *ci = cd->ci;
const int stat = ci_missing_reason(ci);
if (vm_ci_mid(ci) == idMethodMissing) {
rb_control_frame_t *reg_cfp = cfp;
VALUE *argv = STACK_ADDR_FROM_TOP(calling->argc);
vm_raise_method_missing(ec, calling->argc, argv, calling->recv, stat);
}
else {
return vm_call_method_missing_body(ec, cfp, calling, cd->ci, stat);
}
}
static inline VALUE
vm_call_method(rb_execution_context_t *ec, rb_control_frame_t *cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
const struct rb_callinfo *ci = cd->ci;
const struct rb_callcache *cc = cd->cc;
VM_ASSERT(callable_method_entry_p(vm_cc_cme(cc)));
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
if (vm_cc_cme(cc) != NULL) {
switch (METHOD_ENTRY_VISI(vm_cc_cme(cc))) {
case METHOD_VISI_PUBLIC: /* likely */
return vm_call_method_each_type(ec, cfp, calling, cd);
case METHOD_VISI_PRIVATE:
if (!(vm_ci_flag(ci) & VM_CALL_FCALL)) {
enum method_missing_reason stat = MISSING_PRIVATE;
if (vm_ci_flag(ci) & VM_CALL_VCALL) stat |= MISSING_VCALL;
vm_cc_method_missing_reason_set(cc, stat);
CC_SET_FASTPATH(cc, vm_call_method_missing, TRUE);
return vm_call_method_missing(ec, cfp, calling, cd);
}
return vm_call_method_each_type(ec, cfp, calling, cd);
case METHOD_VISI_PROTECTED:
if (!(vm_ci_flag(ci) & VM_CALL_OPT_SEND)) {
if (!rb_obj_is_kind_of(cfp->self, vm_cc_cme(cc)->defined_class)) {
vm_cc_method_missing_reason_set(cc, MISSING_PROTECTED);
return vm_call_method_missing(ec, cfp, calling, cd);
}
else {
/* caching method info to dummy cc */
VM_ASSERT(vm_cc_cme(cc) != NULL);
struct rb_callcache cc_body;
struct rb_call_data cd_body = {
.ci = ci,
.cc = vm_cc_fill(&cc_body, cc->klass, vm_cc_cme(cc), vm_cc_call(cc)),
};
return vm_call_method_each_type(ec, cfp, calling, &cd_body);
}
}
return vm_call_method_each_type(ec, cfp, calling, cd);
default:
rb_bug("unreachable");
}
}
else {
return vm_call_method_nome(ec, cfp, calling, cd);
}
}
static VALUE
vm_call_general(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
{
RB_DEBUG_COUNTER_INC(ccf_general);
return vm_call_method(ec, reg_cfp, calling, cd);
}
* revised r37993 to avoid SEGV/ILL in tests. In r37993, a method entry with VM_METHOD_TYPE_REFINED holds only the original method definition, so ci->me is set to a method entry allocated in the stack, and it causes SEGV/ILL. In this commit, a method entry with VM_METHOD_TYPE_REFINED holds the whole original method entry. Furthermore, rb_thread_mark() is changed to mark cfp->klass to avoid GC for iclasses created by copy_refinement_iclass(). * vm_method.c (rb_method_entry_make): add a method entry with VM_METHOD_TYPE_REFINED to the class refined by the refinement if the target module is a refinement. When a method entry with VM_METHOD_TYPE_UNDEF is invoked by vm_call_method(), a method with the same name is searched in refinements. If such a method is found, the method is invoked. Otherwise, the original method in the refined class (rb_method_definition_t::body.orig_me) is invoked. This change is made to simplify the normal method lookup and to improve the performance of normal method calls. * vm_method.c (EXPR1, search_method, rb_method_entry), vm_eval.c (rb_call0, rb_search_method_entry): do not use refinements for method lookup. * vm_insnhelper.c (vm_call_method): search methods in refinements if ci->me is VM_METHOD_TYPE_REFINED. If the method is called by super (i.e., ci->call == vm_call_super_method), skip the same method entry as the current method to avoid infinite call of the same method. * class.c (include_modules_at): add a refined method entry for each method defined in a module included in a refinement. * class.c (rb_prepend_module): set an empty table to RCLASS_M_TBL(klass) to add refined method entries, because refinements should have priority over prepended modules. * proc.c (mnew): use rb_method_entry_with_refinements() to get a refined method. * vm.c (rb_thread_mark): mark cfp->klass for iclasses created by copy_refinement_iclass(). * vm.c (Init_VM), cont.c (fiber_init): initialize th->cfp->klass. * test/ruby/test_refinement.rb (test_inline_method_cache): do not skip the test because it should pass successfully. * test/ruby/test_refinement.rb (test_redefine_refined_method): new test for the case a refined method is redefined. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38236 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-06 17:08:41 +04:00
static VALUE
vm_call_super_method(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, struct rb_calling_info *calling, struct rb_call_data *cd)
* revised r37993 to avoid SEGV/ILL in tests. In r37993, a method entry with VM_METHOD_TYPE_REFINED holds only the original method definition, so ci->me is set to a method entry allocated in the stack, and it causes SEGV/ILL. In this commit, a method entry with VM_METHOD_TYPE_REFINED holds the whole original method entry. Furthermore, rb_thread_mark() is changed to mark cfp->klass to avoid GC for iclasses created by copy_refinement_iclass(). * vm_method.c (rb_method_entry_make): add a method entry with VM_METHOD_TYPE_REFINED to the class refined by the refinement if the target module is a refinement. When a method entry with VM_METHOD_TYPE_UNDEF is invoked by vm_call_method(), a method with the same name is searched in refinements. If such a method is found, the method is invoked. Otherwise, the original method in the refined class (rb_method_definition_t::body.orig_me) is invoked. This change is made to simplify the normal method lookup and to improve the performance of normal method calls. * vm_method.c (EXPR1, search_method, rb_method_entry), vm_eval.c (rb_call0, rb_search_method_entry): do not use refinements for method lookup. * vm_insnhelper.c (vm_call_method): search methods in refinements if ci->me is VM_METHOD_TYPE_REFINED. If the method is called by super (i.e., ci->call == vm_call_super_method), skip the same method entry as the current method to avoid infinite call of the same method. * class.c (include_modules_at): add a refined method entry for each method defined in a module included in a refinement. * class.c (rb_prepend_module): set an empty table to RCLASS_M_TBL(klass) to add refined method entries, because refinements should have priority over prepended modules. * proc.c (mnew): use rb_method_entry_with_refinements() to get a refined method. * vm.c (rb_thread_mark): mark cfp->klass for iclasses created by copy_refinement_iclass(). * vm.c (Init_VM), cont.c (fiber_init): initialize th->cfp->klass. * test/ruby/test_refinement.rb (test_inline_method_cache): do not skip the test because it should pass successfully. * test/ruby/test_refinement.rb (test_redefine_refined_method): new test for the case a refined method is redefined. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38236 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-06 17:08:41 +04:00
{
RB_DEBUG_COUNTER_INC(ccf_super_method);
/* this check is required to distinguish with other functions. */
const struct rb_callcache *cc = cd->cc;
if (vm_cc_call(cc) != vm_call_super_method) rb_bug("bug");
return vm_call_method(ec, reg_cfp, calling, cd);
* revised r37993 to avoid SEGV/ILL in tests. In r37993, a method entry with VM_METHOD_TYPE_REFINED holds only the original method definition, so ci->me is set to a method entry allocated in the stack, and it causes SEGV/ILL. In this commit, a method entry with VM_METHOD_TYPE_REFINED holds the whole original method entry. Furthermore, rb_thread_mark() is changed to mark cfp->klass to avoid GC for iclasses created by copy_refinement_iclass(). * vm_method.c (rb_method_entry_make): add a method entry with VM_METHOD_TYPE_REFINED to the class refined by the refinement if the target module is a refinement. When a method entry with VM_METHOD_TYPE_UNDEF is invoked by vm_call_method(), a method with the same name is searched in refinements. If such a method is found, the method is invoked. Otherwise, the original method in the refined class (rb_method_definition_t::body.orig_me) is invoked. This change is made to simplify the normal method lookup and to improve the performance of normal method calls. * vm_method.c (EXPR1, search_method, rb_method_entry), vm_eval.c (rb_call0, rb_search_method_entry): do not use refinements for method lookup. * vm_insnhelper.c (vm_call_method): search methods in refinements if ci->me is VM_METHOD_TYPE_REFINED. If the method is called by super (i.e., ci->call == vm_call_super_method), skip the same method entry as the current method to avoid infinite call of the same method. * class.c (include_modules_at): add a refined method entry for each method defined in a module included in a refinement. * class.c (rb_prepend_module): set an empty table to RCLASS_M_TBL(klass) to add refined method entries, because refinements should have priority over prepended modules. * proc.c (mnew): use rb_method_entry_with_refinements() to get a refined method. * vm.c (rb_thread_mark): mark cfp->klass for iclasses created by copy_refinement_iclass(). * vm.c (Init_VM), cont.c (fiber_init): initialize th->cfp->klass. * test/ruby/test_refinement.rb (test_inline_method_cache): do not skip the test because it should pass successfully. * test/ruby/test_refinement.rb (test_redefine_refined_method): new test for the case a refined method is redefined. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38236 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-06 17:08:41 +04:00
}
/* super */
static inline VALUE
vm_search_normal_superclass(VALUE klass)
{
if (BUILTIN_TYPE(klass) == T_ICLASS &&
FL_TEST(RBASIC(klass)->klass, RMODULE_IS_REFINEMENT)) {
* fix the behavior when a module is included into a refinement. This change is a little tricky, so it might be better to prohibit module inclusion to refinements. * include/ruby/ruby.h (RMODULE_INCLUDED_INTO_REFINEMENT): new flag to represent that a module (iclass) is included into a refinement. * class.c (include_modules_at): set RMODULE_INCLUDED_INTO_REFINEMENT if klass is a refinement. * eval.c (rb_mod_refine): set the superclass of a refinement to the refined class for super. * eval.c (rb_using_refinement): skip the above superclass (the refined class) when creating iclasses for refinements. Otherwise, `using Refinement1; using Refinement2' creates iclasses: <Refinement2> -> <RefinedClass> -> <Refinement1> -> RefinedClass, where <Module> is an iclass for Module, so RefinedClass is searched before Refinement1. The correct iclasses should be <Refinement2> -> <Refinement1> -> RefinedClass. * vm_insnhelper.c (vm_search_normal_superclass): if klass is an iclass for a refinement, use the refinement's superclass instead of the iclass's superclass. Otherwise, multiple refinements are searched by super. For example, if a refinement Refinement2 includes a module M (i.e., Refinement2 -> <M> -> RefinedClass, and if refinements iclasses are <Refinement2> -> <M>' -> <Refinement1> -> RefinedClass, then super in <Refinement2> should use Refinement2's superclass <M> instead of <Refinement2>'s superclass <M>'. * vm_insnhelper.c (vm_search_super_method): do not raise a NotImplementError if current_defind_class is a module included into a refinement. Because of the change of vm_search_normal_superclass(), the receiver might not be an instance of the module('s iclass). * test/ruby/test_refinement.rb: related test. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38298 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-10 20:05:45 +04:00
klass = RBASIC(klass)->klass;
}
* fix the behavior when a module is included into a refinement. This change is a little tricky, so it might be better to prohibit module inclusion to refinements. * include/ruby/ruby.h (RMODULE_INCLUDED_INTO_REFINEMENT): new flag to represent that a module (iclass) is included into a refinement. * class.c (include_modules_at): set RMODULE_INCLUDED_INTO_REFINEMENT if klass is a refinement. * eval.c (rb_mod_refine): set the superclass of a refinement to the refined class for super. * eval.c (rb_using_refinement): skip the above superclass (the refined class) when creating iclasses for refinements. Otherwise, `using Refinement1; using Refinement2' creates iclasses: <Refinement2> -> <RefinedClass> -> <Refinement1> -> RefinedClass, where <Module> is an iclass for Module, so RefinedClass is searched before Refinement1. The correct iclasses should be <Refinement2> -> <Refinement1> -> RefinedClass. * vm_insnhelper.c (vm_search_normal_superclass): if klass is an iclass for a refinement, use the refinement's superclass instead of the iclass's superclass. Otherwise, multiple refinements are searched by super. For example, if a refinement Refinement2 includes a module M (i.e., Refinement2 -> <M> -> RefinedClass, and if refinements iclasses are <Refinement2> -> <M>' -> <Refinement1> -> RefinedClass, then super in <Refinement2> should use Refinement2's superclass <M> instead of <Refinement2>'s superclass <M>'. * vm_insnhelper.c (vm_search_super_method): do not raise a NotImplementError if current_defind_class is a module included into a refinement. Because of the change of vm_search_normal_superclass(), the receiver might not be an instance of the module('s iclass). * test/ruby/test_refinement.rb: related test. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@38298 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2012-12-10 20:05:45 +04:00
klass = RCLASS_ORIGIN(klass);
return RCLASS_SUPER(klass);
}
NORETURN(static void vm_super_outside(void));
static void
vm_super_outside(void)
{
rb_raise(rb_eNoMethodError, "super called outside of method");
}
static void
vm_search_super_method(const rb_control_frame_t *reg_cfp, struct rb_call_data *cd, VALUE recv)
{
VALUE current_defined_class, klass;
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
const rb_callable_method_entry_t *me = rb_vm_frame_method_entry(reg_cfp);
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
if (!me) {
vm_super_outside();
}
* method.h: introduce rb_callable_method_entry_t to remove rb_control_frame_t::klass. [Bug #11278], [Bug #11279] rb_method_entry_t data belong to modules/classes. rb_method_entry_t::owner points defined module or class. module M def foo; end end In this case, owner is M. rb_callable_method_entry_t data belong to only classes. For modules, MRI creates corresponding T_ICLASS internally. rb_callable_method_entry_t can also belong to T_ICLASS. rb_callable_method_entry_t::defined_class points T_CLASS or T_ICLASS. rb_method_entry_t data for classes (not for modules) are also rb_callable_method_entry_t data because it is completely same data. In this case, rb_method_entry_t::owner == rb_method_entry_t::defined_class. For example, there are classes C and D, and incldues M, class C; include M; end class D; include M; end then, two T_ICLASS objects for C's super class and D's super class will be created. When C.new.foo is called, then M#foo is searcheed and rb_callable_method_t data is used by VM to invoke M#foo. rb_method_entry_t data is only one for M#foo. However, rb_callable_method_entry_t data are two (and can be more). It is proportional to the number of including (and prepending) classes (the number of T_ICLASS which point to the module). Now, created rb_callable_method_entry_t are collected when the original module M was modified. We can think it is a cache. We need to select what kind of method entry data is needed. To operate definition, then you need to use rb_method_entry_t. You can access them by the following functions. * rb_method_entry(VALUE klass, ID id); * rb_method_entry_with_refinements(VALUE klass, ID id); * rb_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method(VALUE refinements, const rb_method_entry_t *me); To invoke methods, then you need to use rb_callable_method_entry_t which you can get by the following APIs corresponding to the above listed functions. * rb_callable_method_entry(VALUE klass, ID id); * rb_callable_method_entry_with_refinements(VALUE klass, ID id); * rb_callable_method_entry_without_refinements(VALUE klass, ID id); * rb_resolve_refined_method_callable(VALUE refinements, const rb_callable_method_entry_t *me); VM pushes rb_callable_method_entry_t, so that rb_vm_frame_method_entry() returns rb_callable_method_entry_t. You can check a super class of current method by rb_callable_method_entry_t::defined_class. * method.h: renamed from rb_method_entry_t::klass to rb_method_entry_t::owner. * internal.h: add rb_classext_struct::callable_m_tbl to cache rb_callable_method_entry_t data. We need to consider abotu this field again because it is only active for T_ICLASS. * class.c (method_entry_i): ditto. * class.c (rb_define_attr): rb_method_entry() does not takes defiend_class_ptr. * gc.c (mark_method_entry): mark RCLASS_CALLABLE_M_TBL() for T_ICLASS. * cont.c (fiber_init): rb_control_frame_t::klass is removed. * proc.c: fix `struct METHOD' data structure because rb_callable_method_t has all information. * vm_core.h: remove several fields. * rb_control_frame_t::klass. * rb_block_t::klass. And catch up changes. * eval.c: catch up changes. * gc.c: ditto. * insns.def: ditto. * vm.c: ditto. * vm_args.c: ditto. * vm_backtrace.c: ditto. * vm_dump.c: ditto. * vm_eval.c: ditto. * vm_insnhelper.c: ditto. * vm_method.c: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@51126 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2015-07-03 14:24:50 +03:00
current_defined_class = me->defined_class;
if (!NIL_P(RCLASS_REFINED_CLASS(current_defined_class))) {
current_defined_class = RCLASS_REFINED_CLASS(current_defined_class);
}
if (BUILTIN_TYPE(current_defined_class) != T_MODULE &&
!FL_TEST(current_defined_class, RMODULE_INCLUDED_INTO_REFINEMENT) &&
!rb_obj_is_kind_of(recv, current_defined_class)) {
VALUE m = RB_TYPE_P(current_defined_class, T_ICLASS) ?
RCLASS_INCLUDER(current_defined_class) : current_defined_class;
if (m) { /* not bound UnboundMethod */
rb_raise(rb_eTypeError,
"self has wrong type to call super in this context: "
"%"PRIsVALUE" (expected %"PRIsVALUE")",
rb_obj_class(recv), m);
}
}
if (me->def->type == VM_METHOD_TYPE_BMETHOD && (vm_ci_flag(cd->ci) & VM_CALL_ZSUPER)) {
rb_raise(rb_eRuntimeError,
"implicit argument passing of super from method defined"
" by define_method() is not supported."
" Specify all arguments explicitly.");
}
// update iseq. really? (TODO)
cd->ci = vm_ci_new_runtime(me->def->original_id,
vm_ci_flag(cd->ci),
vm_ci_argc(cd->ci),
vm_ci_kwarg(cd->ci));
RB_OBJ_WRITTEN(reg_cfp->iseq, Qundef, cd->ci);
klass = vm_search_normal_superclass(me->defined_class);
if (!klass) {
/* bound instance method of module */
const struct rb_callcache *cc = vm_cc_new(klass, NULL, vm_call_method_missing);
RB_OBJ_WRITE(reg_cfp->iseq, &cd->cc, cc);
}
else {
vm_search_method_fastpath((VALUE)reg_cfp->iseq, cd, klass);
const rb_callable_method_entry_t *cached_cme = vm_cc_cme(cd->cc);
ID mid = vm_ci_mid(cd->ci);
// define_method can cache for different method id
if (cached_cme == NULL) {
// temporary CC. revisit it
static const struct rb_callcache *empty_cc_for_super = NULL;
if (empty_cc_for_super == NULL) {
empty_cc_for_super = vm_cc_new(0, NULL, vm_call_super_method);
FL_SET_RAW((VALUE)empty_cc_for_super, VM_CALLCACHE_UNMARKABLE);
rb_gc_register_mark_object((VALUE)empty_cc_for_super);
}
RB_OBJ_WRITE(reg_cfp->iseq, &cd->cc, empty_cc_for_super);
}
else if (cached_cme->called_id != mid) {
const rb_callable_method_entry_t *cme = rb_callable_method_entry(klass, mid);
const struct rb_callcache *cc = vm_cc_new(klass, cme, vm_call_super_method);
RB_OBJ_WRITE(reg_cfp->iseq, &cd->cc, cc);
}
else {
switch (cached_cme->def->type) {
// vm_call_refined (search_refined_method) assumes cc->call is vm_call_super_method on invokesuper
case VM_METHOD_TYPE_REFINED:
// cc->klass is superclass of receiver class. Checking cc->klass is not enough to invalidate IVC for the receiver class.
case VM_METHOD_TYPE_ATTRSET:
case VM_METHOD_TYPE_IVAR:
vm_cc_call_set(cd->cc, vm_call_super_method); // invalidate fastpath
break;
default:
break; // use fastpath
}
}
}
}
/* yield */
static inline int
block_proc_is_lambda(const VALUE procval)
{
rb_proc_t *proc;
if (procval) {
GetProcPtr(procval, proc);
return proc->is_lambda;
}
else {
return 0;
}
}
static VALUE
vm_yield_with_cfunc(rb_execution_context_t *ec,
const struct rb_captured_block *captured,
VALUE self, int argc, const VALUE *argv, int kw_splat, VALUE block_handler,
const rb_callable_method_entry_t *me)
{
int is_lambda = FALSE; /* TODO */
VALUE val, arg, blockarg;
int frame_flag;
const struct vm_ifunc *ifunc = captured->code.ifunc;
if (is_lambda) {
arg = rb_ary_new4(argc, argv);
}
else if (argc == 0) {
arg = Qnil;
}
else {
arg = argv[0];
}
blockarg = rb_vm_bh_to_procval(ec, block_handler);
frame_flag = VM_FRAME_MAGIC_IFUNC | VM_FRAME_FLAG_CFRAME | (me ? VM_FRAME_FLAG_BMETHOD : 0);
if (kw_splat) {
2020-02-21 18:17:31 +03:00
frame_flag |= VM_FRAME_FLAG_CFRAME_KW;
}
vm_push_frame(ec, (const rb_iseq_t *)captured->code.ifunc,
frame_flag,
self,
VM_GUARDED_PREV_EP(captured->ep),
(VALUE)me,
0, ec->cfp->sp, 0, 0);
val = (*ifunc->func)(arg, (VALUE)ifunc->data, argc, argv, blockarg);
rb_vm_pop_frame(ec);
return val;
}
static VALUE
vm_yield_with_symbol(rb_execution_context_t *ec, VALUE symbol, int argc, const VALUE *argv, int kw_splat, VALUE block_handler)
{
return rb_sym_proc_call(SYM2ID(symbol), argc, argv, kw_splat, rb_vm_bh_to_procval(ec, block_handler));
}
static inline int
vm_callee_setup_block_arg_arg0_splat(rb_control_frame_t *cfp, const rb_iseq_t *iseq, VALUE *argv, VALUE ary)
{
int i;
long len = RARRAY_LEN(ary);
CHECK_VM_STACK_OVERFLOW(cfp, iseq->body->param.lead_num);
for (i=0; i<len && i<iseq->body->param.lead_num; i++) {
argv[i] = RARRAY_AREF(ary, i);
}
return i;
}
static inline VALUE
vm_callee_setup_block_arg_arg0_check(VALUE *argv)
{
VALUE ary, arg0 = argv[0];
ary = rb_check_array_type(arg0);
#if 0
argv[0] = arg0;
#else
VM_ASSERT(argv[0] == arg0);
#endif
return ary;
}
static int
vm_callee_setup_block_arg(rb_execution_context_t *ec, struct rb_calling_info *calling, const struct rb_callinfo *ci, const rb_iseq_t *iseq, VALUE *argv, const enum arg_setup_type arg_setup_type)
{
if (rb_simple_iseq_p(iseq)) {
rb_control_frame_t *cfp = ec->cfp;
VALUE arg0;
CALLER_SETUP_ARG(cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(cfp, calling, ci);
if (arg_setup_type == arg_setup_block &&
calling->argc == 1 &&
iseq->body->param.flags.has_lead &&
!iseq->body->param.flags.ambiguous_param0 &&
!NIL_P(arg0 = vm_callee_setup_block_arg_arg0_check(argv))) {
calling->argc = vm_callee_setup_block_arg_arg0_splat(cfp, iseq, argv, arg0);
}
if (calling->argc != iseq->body->param.lead_num) {
if (arg_setup_type == arg_setup_block) {
if (calling->argc < iseq->body->param.lead_num) {
int i;
CHECK_VM_STACK_OVERFLOW(cfp, iseq->body->param.lead_num);
for (i=calling->argc; i<iseq->body->param.lead_num; i++) argv[i] = Qnil;
calling->argc = iseq->body->param.lead_num; /* fill rest parameters */
}
else if (calling->argc > iseq->body->param.lead_num) {
calling->argc = iseq->body->param.lead_num; /* simply truncate arguments */
}
}
else {
argument_arity_error(ec, iseq, calling->argc, iseq->body->param.lead_num, iseq->body->param.lead_num);
}
}
return 0;
}
else {
return setup_parameters_complex(ec, iseq, calling, ci, argv, arg_setup_type);
}
}
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
static int
vm_yield_setup_args(rb_execution_context_t *ec, const rb_iseq_t *iseq, const int argc, VALUE *argv, int kw_splat, VALUE block_handler, enum arg_setup_type arg_setup_type)
{
struct rb_calling_info calling_entry, *calling;
calling = &calling_entry;
calling->argc = argc;
calling->block_handler = block_handler;
calling->kw_splat = kw_splat;
calling->recv = Qundef;
struct rb_callinfo dummy_ci = {
.flags = T_IMEMO | (imemo_callinfo << FL_USHIFT),
.flag = (VALUE)(kw_splat ? VM_CALL_KW_SPLAT : 0),
};
return vm_callee_setup_block_arg(ec, calling, &dummy_ci, iseq, argv, arg_setup_type);
}
/* ruby iseq -> ruby block */
static VALUE
vm_invoke_iseq_block(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
bool is_lambda, VALUE block_handler)
{
const struct rb_captured_block *captured = VM_BH_TO_ISEQ_BLOCK(block_handler);
const rb_iseq_t *iseq = rb_iseq_check(captured->code.iseq);
const int arg_size = iseq->body->param.size;
VALUE * const rsp = GET_SP() - calling->argc;
int opt_pc = vm_callee_setup_block_arg(ec, calling, ci, iseq, rsp, is_lambda ? arg_setup_method : arg_setup_block);
SET_SP(rsp);
vm_push_frame(ec, iseq,
VM_FRAME_MAGIC_BLOCK | (is_lambda ? VM_FRAME_FLAG_LAMBDA : 0),
captured->self,
VM_GUARDED_PREV_EP(captured->ep), 0,
iseq->body->iseq_encoded + opt_pc,
rsp + arg_size,
iseq->body->local_table_size - arg_size, iseq->body->stack_max);
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
return Qundef;
}
static VALUE
vm_invoke_symbol_block(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
MAYBE_UNUSED(bool is_lambda), VALUE block_handler)
{
if (calling->argc < 1) {
rb_raise(rb_eArgError, "no receiver given");
}
else {
VALUE symbol = VM_BH_TO_SYMBOL(block_handler);
CALLER_SETUP_ARG(reg_cfp, calling, ci);
calling->recv = TOPN(--calling->argc);
return vm_call_symbol(ec, reg_cfp, calling, ci, symbol);
}
}
static VALUE
vm_invoke_ifunc_block(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
MAYBE_UNUSED(bool is_lambda), VALUE block_handler)
{
VALUE val;
int argc;
const struct rb_captured_block *captured = VM_BH_TO_IFUNC_BLOCK(block_handler);
CALLER_SETUP_ARG(ec->cfp, calling, ci);
CALLER_REMOVE_EMPTY_KW_SPLAT(ec->cfp, calling, ci);
argc = calling->argc;
val = vm_yield_with_cfunc(ec, captured, captured->self, argc, STACK_ADDR_FROM_TOP(argc), calling->kw_splat, calling->block_handler, NULL);
POPN(argc); /* TODO: should put before C/yield? */
return val;
}
static VALUE
vm_proc_to_block_handler(VALUE procval)
{
const struct rb_block *block = vm_proc_block(procval);
switch (vm_block_type(block)) {
case block_type_iseq:
return VM_BH_FROM_ISEQ_BLOCK(&block->as.captured);
case block_type_ifunc:
return VM_BH_FROM_IFUNC_BLOCK(&block->as.captured);
case block_type_symbol:
return VM_BH_FROM_SYMBOL(block->as.symbol);
case block_type_proc:
return VM_BH_FROM_PROC(block->as.proc);
}
VM_UNREACHABLE(vm_yield_with_proc);
return Qundef;
}
static VALUE
vm_invoke_proc_block(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
bool is_lambda, VALUE block_handler)
{
while (vm_block_handler_type(block_handler) == block_handler_type_proc) {
VALUE proc = VM_BH_TO_PROC(block_handler);
is_lambda = block_proc_is_lambda(proc);
block_handler = vm_proc_to_block_handler(proc);
}
return vm_invoke_block(ec, reg_cfp, calling, ci, is_lambda, block_handler);
}
static inline VALUE
vm_invoke_block(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
bool is_lambda, VALUE block_handler)
{
VALUE (*func)(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp,
struct rb_calling_info *calling, const struct rb_callinfo *ci,
bool is_lambda, VALUE block_handler);
switch (vm_block_handler_type(block_handler)) {
case block_handler_type_iseq: func = vm_invoke_iseq_block; break;
case block_handler_type_ifunc: func = vm_invoke_ifunc_block; break;
case block_handler_type_proc: func = vm_invoke_proc_block; break;
case block_handler_type_symbol: func = vm_invoke_symbol_block; break;
}
return func(ec, reg_cfp, calling, ci, is_lambda, block_handler);
}
static VALUE
vm_make_proc_with_iseq(const rb_iseq_t *blockiseq)
{
const rb_execution_context_t *ec = GET_EC();
const rb_control_frame_t *cfp = rb_vm_get_ruby_level_next_cfp(ec, ec->cfp);
struct rb_captured_block *captured;
if (cfp == 0) {
rb_bug("vm_make_proc_with_iseq: unreachable");
}
captured = VM_CFP_TO_CAPTURED_BLOCK(cfp);
captured->code.iseq = blockiseq;
return rb_vm_make_proc(ec, captured, rb_cProc);
}
static VALUE
vm_once_exec(VALUE iseq)
{
VALUE proc = vm_make_proc_with_iseq((rb_iseq_t *)iseq);
return rb_proc_call_with_block(proc, 0, 0, Qnil);
}
static VALUE
vm_once_clear(VALUE data)
{
union iseq_inline_storage_entry *is = (union iseq_inline_storage_entry *)data;
is->once.running_thread = NULL;
return Qnil;
}
* rewrite method/block parameter fitting logic to optimize keyword arguments/parameters and a splat argument. [Feature #10440] (Details are described in this ticket) Most of complex part is moved to vm_args.c. Now, ISeq#to_a does not catch up new instruction format. * vm_core.h: change iseq data structures. * introduce rb_call_info_kw_arg_t to represent keyword arguments. * add rb_call_info_t::kw_arg. * rename rb_iseq_t::arg_post_len to rb_iseq_t::arg_post_num. * rename rb_iseq_t::arg_keywords to arg_keyword_num. * rename rb_iseq_t::arg_keyword to rb_iseq_t::arg_keyword_bits. to represent keyword bitmap parameter index. This bitmap parameter shows that which keyword parameters are given or not given (0 for given). It is refered by `checkkeyword' instruction described bellow. * rename rb_iseq_t::arg_keyword_check to rb_iseq_t::arg_keyword_rest to represent keyword rest parameter index. * add rb_iseq_t::arg_keyword_default_values to represent default keyword values. * rename VM_CALL_ARGS_SKIP_SETUP to VM_CALL_ARGS_SIMPLE to represent (ci->flag & (SPLAT|BLOCKARG)) && ci->blockiseq == NULL && ci->kw_arg == NULL. * vm_insnhelper.c, vm_args.c: rewrite with refactoring. * rewrite splat argument code. * rewrite keyword arguments/parameters code. * merge method and block parameter fitting code into one code base. * vm.c, vm_eval.c: catch up these changes. * compile.c (new_callinfo): callinfo requires kw_arg parameter. * compile.c (compile_array_): check the last argument Hash object or not. If Hash object and all keys are Symbol literals, they are compiled to keyword arguments. * insns.def (checkkeyword): add new instruction. This instruction check the availability of corresponding keyword. For example, a method "def foo k1: 'v1'; end" is cimpiled to the following instructions. 0000 checkkeyword 2, 0 # check k1 is given. 0003 branchif 9 # if given, jump to address #9 0005 putstring "v1" 0007 setlocal_OP__WC__0 3 # k1 = 'v1' 0009 trace 8 0011 putnil 0012 trace 16 0014 leave * insns.def (opt_send_simple): removed and add new instruction "opt_send_without_block". * parse.y (new_args_tail_gen): reorder variables. Before this patch, a method "def foo(k1: 1, kr1:, k2: 2, **krest, &b)" has parameter variables "k1, kr1, k2, &b, internal_id, krest", but this patch reorders to "kr1, k1, k2, internal_id, krest, &b". (locate a block variable at last) * parse.y (vtable_pop): added. This function remove latest `n' variables from vtable. * iseq.c: catch up iseq data changes. * proc.c: ditto. * class.c (keyword_error): export as rb_keyword_error(). * common.mk: depend vm_args.c for vm.o. * hash.c (rb_hash_has_key): export. * internal.h: ditto. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@48239 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2014-11-02 21:02:55 +03:00
rb_control_frame_t *
FUNC_FASTCALL(rb_vm_opt_struct_aref)(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp)
{
TOPN(0) = rb_struct_aref(GET_SELF(), TOPN(0));
return reg_cfp;
}
rb_control_frame_t *
FUNC_FASTCALL(rb_vm_opt_struct_aset)(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp)
{
rb_struct_aset(GET_SELF(), TOPN(0), TOPN(1));
return reg_cfp;
}
/* defined insn */
static enum defined_type
check_respond_to_missing(VALUE obj, VALUE v)
{
VALUE args[2];
VALUE r;
args[0] = obj; args[1] = Qfalse;
r = rb_check_funcall(v, idRespond_to_missing, 2, args);
if (r != Qundef && RTEST(r)) {
return DEFINED_METHOD;
}
else {
return DEFINED_NOT_DEFINED;
}
}
static VALUE
vm_defined(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, rb_num_t op_type, VALUE obj, VALUE needstr, VALUE v)
{
VALUE klass;
enum defined_type expr_type = DEFINED_NOT_DEFINED;
enum defined_type type = (enum defined_type)op_type;
switch (type) {
case DEFINED_IVAR:
if (rb_ivar_defined(GET_SELF(), SYM2ID(obj))) {
expr_type = DEFINED_IVAR;
}
break;
case DEFINED_IVAR2:
klass = vm_get_cbase(GET_EP());
break;
case DEFINED_GVAR:
if (rb_gvar_defined(rb_global_entry(SYM2ID(obj)))) {
expr_type = DEFINED_GVAR;
}
break;
case DEFINED_CVAR: {
const rb_cref_t *cref = vm_get_cref(GET_EP());
klass = vm_get_cvar_base(cref, GET_CFP(), 0);
if (rb_cvar_defined(klass, SYM2ID(obj))) {
expr_type = DEFINED_CVAR;
}
break;
}
case DEFINED_CONST:
case DEFINED_CONST_FROM: {
bool allow_nil = type == DEFINED_CONST;
klass = v;
if (vm_get_ev_const(ec, klass, SYM2ID(obj), allow_nil, true)) {
expr_type = DEFINED_CONST;
}
break;
}
case DEFINED_FUNC:
klass = CLASS_OF(v);
if (rb_method_boundp(klass, SYM2ID(obj), 0)) {
expr_type = DEFINED_METHOD;
}
else {
expr_type = check_respond_to_missing(obj, v);
}
break;
case DEFINED_METHOD:{
VALUE klass = CLASS_OF(v);
const rb_method_entry_t *me = rb_method_entry_with_refinements(klass, SYM2ID(obj), NULL);
if (me) {
switch (METHOD_ENTRY_VISI(me)) {
case METHOD_VISI_PRIVATE:
break;
case METHOD_VISI_PROTECTED:
if (!rb_obj_is_kind_of(GET_SELF(), rb_class_real(me->defined_class))) {
break;
}
case METHOD_VISI_PUBLIC:
expr_type = DEFINED_METHOD;
break;
default:
rb_bug("vm_defined: unreachable: %u", (unsigned int)METHOD_ENTRY_VISI(me));
}
}
else {
expr_type = check_respond_to_missing(obj, v);
}
break;
}
case DEFINED_YIELD:
if (GET_BLOCK_HANDLER() != VM_BLOCK_HANDLER_NONE) {
expr_type = DEFINED_YIELD;
}
break;
case DEFINED_ZSUPER:
{
const rb_callable_method_entry_t *me = rb_vm_frame_method_entry(GET_CFP());
if (me) {
VALUE klass = vm_search_normal_superclass(me->defined_class);
ID id = me->def->original_id;
if (rb_method_boundp(klass, id, 0)) {
expr_type = DEFINED_ZSUPER;
}
}
}
break;
case DEFINED_REF:{
if (vm_getspecial(ec, GET_LEP(), Qfalse, FIX2INT(obj)) != Qnil) {
expr_type = DEFINED_GVAR;
}
break;
}
default:
rb_bug("unimplemented defined? type (VM)");
break;
}
if (expr_type != 0) {
if (needstr != Qfalse) {
return rb_iseq_defined_string(expr_type);
}
else {
return Qtrue;
}
}
else {
return Qnil;
}
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
static const VALUE *
vm_get_ep(const VALUE *const reg_ep, rb_num_t lv)
{
rb_num_t i;
const VALUE *ep = reg_ep;
for (i = 0; i < lv; i++) {
ep = GET_PREV_EP(ep);
}
return ep;
}
static VALUE
vm_get_special_object(const VALUE *const reg_ep,
enum vm_special_object_type type)
{
switch (type) {
case VM_SPECIAL_OBJECT_VMCORE:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return rb_mRubyVMFrozenCore;
case VM_SPECIAL_OBJECT_CBASE:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return vm_get_cbase(reg_ep);
case VM_SPECIAL_OBJECT_CONST_BASE:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return vm_get_const_base(reg_ep);
default:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
rb_bug("putspecialobject insn: unknown value_type %d", type);
}
}
static void
vm_freezestring(VALUE str, VALUE debug)
{
if (!NIL_P(debug)) {
rb_ivar_set(str, id_debug_created_info, debug);
}
rb_str_freeze(str);
}
static VALUE
vm_concat_array(VALUE ary1, VALUE ary2st)
{
const VALUE ary2 = ary2st;
VALUE tmp1 = rb_check_to_array(ary1);
VALUE tmp2 = rb_check_to_array(ary2);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
if (NIL_P(tmp1)) {
tmp1 = rb_ary_new3(1, ary1);
}
if (NIL_P(tmp2)) {
tmp2 = rb_ary_new3(1, ary2);
}
if (tmp1 == ary1) {
tmp1 = rb_ary_dup(ary1);
}
return rb_ary_concat(tmp1, tmp2);
}
static VALUE
vm_splat_array(VALUE flag, VALUE ary)
{
VALUE tmp = rb_check_to_array(ary);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
if (NIL_P(tmp)) {
return rb_ary_new3(1, ary);
}
else if (RTEST(flag)) {
return rb_ary_dup(tmp);
}
else {
return tmp;
}
}
static VALUE
vm_check_match(rb_execution_context_t *ec, VALUE target, VALUE pattern, rb_num_t flag)
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
{
enum vm_check_match_type type = ((int)flag) & VM_CHECKMATCH_TYPE_MASK;
if (flag & VM_CHECKMATCH_ARRAY) {
long i;
const long n = RARRAY_LEN(pattern);
for (i = 0; i < n; i++) {
VALUE v = RARRAY_AREF(pattern, i);
VALUE c = check_match(ec, v, target, type);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
if (RTEST(c)) {
return c;
}
}
return Qfalse;
}
else {
return check_match(ec, pattern, target, type);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
static VALUE
vm_check_keyword(lindex_t bits, lindex_t idx, const VALUE *ep)
{
const VALUE kw_bits = *(ep - bits);
if (FIXNUM_P(kw_bits)) {
unsigned int b = (unsigned int)FIX2ULONG(kw_bits);
if ((idx < KW_SPECIFIED_BITS_MAX) && (b & (0x01 << idx)))
return Qfalse;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else {
VM_ASSERT(RB_TYPE_P(kw_bits, T_HASH));
if (rb_hash_has_key(kw_bits, INT2FIX(idx))) return Qfalse;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
return Qtrue;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
static void
vm_dtrace(rb_event_flag_t flag, rb_execution_context_t *ec)
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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{
if (RUBY_DTRACE_METHOD_ENTRY_ENABLED() ||
RUBY_DTRACE_METHOD_RETURN_ENABLED() ||
RUBY_DTRACE_CMETHOD_ENTRY_ENABLED() ||
RUBY_DTRACE_CMETHOD_RETURN_ENABLED()) {
switch (flag) {
case RUBY_EVENT_CALL:
RUBY_DTRACE_METHOD_ENTRY_HOOK(ec, 0, 0);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return;
case RUBY_EVENT_C_CALL:
RUBY_DTRACE_CMETHOD_ENTRY_HOOK(ec, 0, 0);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return;
case RUBY_EVENT_RETURN:
RUBY_DTRACE_METHOD_RETURN_HOOK(ec, 0, 0);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return;
case RUBY_EVENT_C_RETURN:
RUBY_DTRACE_CMETHOD_RETURN_HOOK(ec, 0, 0);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return;
}
}
}
static VALUE
vm_const_get_under(ID id, rb_num_t flags, VALUE cbase)
{
VALUE ns;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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if ((ns = vm_search_const_defined_class(cbase, id)) == 0) {
return ns;
}
else if (VM_DEFINECLASS_SCOPED_P(flags)) {
return rb_public_const_get_at(ns, id);
}
else {
return rb_const_get_at(ns, id);
}
}
static VALUE
vm_check_if_class(ID id, rb_num_t flags, VALUE super, VALUE klass)
{
if (!RB_TYPE_P(klass, T_CLASS)) {
return 0;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (VM_DEFINECLASS_HAS_SUPERCLASS_P(flags)) {
VALUE tmp = rb_class_real(RCLASS_SUPER(klass));
if (tmp != super) {
rb_raise(rb_eTypeError,
"superclass mismatch for class %"PRIsVALUE"",
rb_id2str(id));
}
else {
return klass;
}
}
else {
return klass;
}
}
static VALUE
vm_check_if_module(ID id, VALUE mod)
{
if (!RB_TYPE_P(mod, T_MODULE)) {
return 0;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
else {
return mod;
}
}
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static VALUE
declare_under(ID id, VALUE cbase, VALUE c)
{
rb_set_class_path_string(c, cbase, rb_id2str(id));
rb_const_set(cbase, id, c);
return c;
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
static VALUE
vm_declare_class(ID id, rb_num_t flags, VALUE cbase, VALUE super)
{
/* new class declaration */
VALUE s = VM_DEFINECLASS_HAS_SUPERCLASS_P(flags) ? super : rb_cObject;
2019-10-09 19:08:42 +03:00
VALUE c = declare_under(id, cbase, rb_define_class_id(id, s));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
rb_class_inherited(s, c);
return c;
}
static VALUE
vm_declare_module(ID id, VALUE cbase)
{
/* new module declaration */
2019-10-09 19:08:42 +03:00
return declare_under(id, cbase, rb_define_module_id(id));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
NORETURN(static void unmatched_redefinition(const char *type, VALUE cbase, ID id, VALUE old));
static void
unmatched_redefinition(const char *type, VALUE cbase, ID id, VALUE old)
{
VALUE name = rb_id2str(id);
VALUE message = rb_sprintf("%"PRIsVALUE" is not a %s",
name, type);
VALUE location = rb_const_source_location_at(cbase, id);
if (!NIL_P(location)) {
rb_str_catf(message, "\n%"PRIsVALUE":%"PRIsVALUE":"
" previous definition of %"PRIsVALUE" was here",
rb_ary_entry(location, 0), rb_ary_entry(location, 1), name);
}
rb_exc_raise(rb_exc_new_str(rb_eTypeError, message));
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
static VALUE
vm_define_class(ID id, rb_num_t flags, VALUE cbase, VALUE super)
{
VALUE klass;
if (VM_DEFINECLASS_HAS_SUPERCLASS_P(flags) && !RB_TYPE_P(super, T_CLASS)) {
rb_raise(rb_eTypeError,
"superclass must be a Class (%"PRIsVALUE" given)",
rb_obj_class(super));
}
vm_check_if_namespace(cbase);
/* find klass */
rb_autoload_load(cbase, id);
if ((klass = vm_const_get_under(id, flags, cbase)) != 0) {
if (!vm_check_if_class(id, flags, super, klass))
unmatched_redefinition("class", cbase, id, klass);
return klass;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else {
return vm_declare_class(id, flags, cbase, super);
}
}
static VALUE
vm_define_module(ID id, rb_num_t flags, VALUE cbase)
{
VALUE mod;
vm_check_if_namespace(cbase);
if ((mod = vm_const_get_under(id, flags, cbase)) != 0) {
if (!vm_check_if_module(id, mod))
unmatched_redefinition("module", cbase, id, mod);
return mod;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else {
return vm_declare_module(id, cbase);
}
}
static VALUE
vm_find_or_create_class_by_id(ID id,
rb_num_t flags,
VALUE cbase,
VALUE super)
{
rb_vm_defineclass_type_t type = VM_DEFINECLASS_TYPE(flags);
switch (type) {
case VM_DEFINECLASS_TYPE_CLASS:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
/* classdef returns class scope value */
return vm_define_class(id, flags, cbase, super);
case VM_DEFINECLASS_TYPE_SINGLETON_CLASS:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
/* classdef returns class scope value */
return rb_singleton_class(cbase);
case VM_DEFINECLASS_TYPE_MODULE:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
/* classdef returns class scope value */
return vm_define_module(id, flags, cbase);
default:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
rb_bug("unknown defineclass type: %d", (int)type);
}
}
static rb_method_visibility_t
vm_scope_visibility_get(const rb_execution_context_t *ec)
{
const rb_control_frame_t *cfp = rb_vm_get_ruby_level_next_cfp(ec, ec->cfp);
if (!vm_env_cref_by_cref(cfp->ep)) {
return METHOD_VISI_PUBLIC;
}
else {
return CREF_SCOPE_VISI(vm_ec_cref(ec))->method_visi;
}
}
static int
vm_scope_module_func_check(const rb_execution_context_t *ec)
{
const rb_control_frame_t *cfp = rb_vm_get_ruby_level_next_cfp(ec, ec->cfp);
if (!vm_env_cref_by_cref(cfp->ep)) {
return FALSE;
}
else {
return CREF_SCOPE_VISI(vm_ec_cref(ec))->module_func;
}
}
static void
vm_define_method(const rb_execution_context_t *ec, VALUE obj, ID id, VALUE iseqval, int is_singleton)
{
VALUE klass;
rb_method_visibility_t visi;
rb_cref_t *cref = vm_ec_cref(ec);
if (!is_singleton) {
klass = CREF_CLASS(cref);
visi = vm_scope_visibility_get(ec);
}
else { /* singleton */
klass = rb_singleton_class(obj); /* class and frozen checked in this API */
visi = METHOD_VISI_PUBLIC;
}
if (NIL_P(klass)) {
rb_raise(rb_eTypeError, "no class/module to add method");
}
rb_add_method_iseq(klass, id, (const rb_iseq_t *)iseqval, cref, visi);
if (!is_singleton && vm_scope_module_func_check(ec)) {
klass = rb_singleton_class(klass);
rb_add_method_iseq(klass, id, (const rb_iseq_t *)iseqval, cref, METHOD_VISI_PUBLIC);
}
}
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
static void
vm_search_method_wrap(
const struct rb_control_frame_struct *reg_cfp,
struct rb_call_data *cd,
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
VALUE recv)
{
vm_search_method((VALUE)reg_cfp->iseq, cd, recv);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
}
static void
vm_search_invokeblock(
const struct rb_control_frame_struct *reg_cfp,
struct rb_call_data *cd,
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
VALUE recv)
{
/* Does nothing. */
}
static VALUE
vm_invokeblock_i(
struct rb_execution_context_struct *ec,
struct rb_control_frame_struct *reg_cfp,
struct rb_calling_info *calling,
struct rb_call_data *cd)
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
{
const struct rb_callinfo *ci = cd->ci;
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
VALUE block_handler = VM_CF_BLOCK_HANDLER(GET_CFP());
if (block_handler == VM_BLOCK_HANDLER_NONE) {
rb_vm_localjump_error("no block given (yield)", Qnil, 0);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
}
else {
return vm_invoke_block(ec, GET_CFP(), calling, ci, false, block_handler);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
}
}
static VALUE
vm_sendish(
struct rb_execution_context_struct *ec,
struct rb_control_frame_struct *reg_cfp,
struct rb_call_data *cd,
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
VALUE block_handler,
void (*method_explorer)(
const struct rb_control_frame_struct *reg_cfp,
struct rb_call_data *cd,
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
VALUE recv))
{
VALUE val;
const struct rb_callinfo *ci = cd->ci;
int argc = vm_ci_argc(ci);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
VALUE recv = TOPN(argc);
struct rb_calling_info calling;
calling.block_handler = block_handler;
calling.kw_splat = IS_ARGS_KW_SPLAT(ci) > 0;
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
calling.recv = recv;
calling.argc = argc;
method_explorer(GET_CFP(), cd, recv);
const struct rb_callcache *cc = cd->cc;
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
val = vm_cc_call(cc)(ec, GET_CFP(), &calling, cd);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
if (val != Qundef) {
return val; /* CFUNC normal return */
}
else {
RESTORE_REGS(); /* CFP pushed in cc->call() */
}
#ifdef MJIT_HEADER
/* When calling ISeq which may catch an exception from JIT-ed
code, we should not call mjit_exec directly to prevent the
caller frame from being canceled. That's because the caller
frame may have stack values in the local variables and the
cancelling the caller frame will purge them. But directly
calling mjit_exec is faster... */
if (GET_ISEQ()->body->catch_except_p) {
VM_ENV_FLAGS_SET(GET_EP(), VM_FRAME_FLAG_FINISH);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
return vm_exec(ec, true);
}
else if ((val = mjit_exec(ec)) == Qundef) {
VM_ENV_FLAGS_SET(GET_EP(), VM_FRAME_FLAG_FINISH);
insns.def: refactor to avoid CALL_METHOD macro These send and its variant instructions are the most frequently called paths in the entire process. Reducing macro expansions to make them dedicated function called vm_sendish() is the main goal of this changeset. It reduces the size of vm_exec_coref from 25,552 bytes to 23,728 bytes on my machine. I see no significant slowdown. Fix: [GH-2056] vanilla: ruby 2.6.0dev (2018-12-19 trunk 66449) [x86_64-darwin15] ours: ruby 2.6.0dev (2018-12-19 refactor-send 66449) [x86_64-darwin15] last_commit=insns.def: refactor to avoid CALL_METHOD macro Calculating ------------------------------------- vanilla ours vm2_defined_method 2.645M 2.823M i/s - 6.000M times in 5.109888s 4.783254s vm2_method 8.553M 8.873M i/s - 6.000M times in 1.579892s 1.524026s vm2_method_missing 3.772M 3.858M i/s - 6.000M times in 3.579482s 3.499220s vm2_method_with_block 8.494M 8.944M i/s - 6.000M times in 1.589774s 1.509463s vm2_poly_method 0.571 0.607 i/s - 1.000 times in 3.947570s 3.733528s vm2_poly_method_ov 5.514 5.168 i/s - 1.000 times in 0.408156s 0.436169s vm3_clearmethodcache 2.875 2.837 i/s - 1.000 times in 0.783018s 0.793493s Comparison: vm2_defined_method ours: 2822555.4 i/s vanilla: 2644878.1 i/s - 1.07x slower vm2_method ours: 8872947.8 i/s vanilla: 8553433.1 i/s - 1.04x slower vm2_method_missing ours: 3858192.3 i/s vanilla: 3772296.3 i/s - 1.02x slower vm2_method_with_block ours: 8943825.1 i/s vanilla: 8493955.0 i/s - 1.05x slower vm2_poly_method ours: 0.6 i/s vanilla: 0.6 i/s - 1.06x slower vm2_poly_method_ov vanilla: 5.5 i/s ours: 5.2 i/s - 1.07x slower vm3_clearmethodcache vanilla: 2.9 i/s ours: 2.8 i/s - 1.01x slower git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66565 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-12-26 03:59:37 +03:00
return vm_exec(ec, false);
}
else {
return val;
}
#else
/* When calling from VM, longjmp in the callee won't purge any
JIT-ed caller frames. So it's safe to directly call
mjit_exec. */
return mjit_exec(ec);
#endif
}
static VALUE
vm_opt_str_freeze(VALUE str, int bop, ID id)
{
if (BASIC_OP_UNREDEFINED_P(bop, STRING_REDEFINED_OP_FLAG)) {
return str;
}
else {
return Qundef;
}
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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/* this macro is mandatory to use OPTIMIZED_CMP. What a design! */
#define id_cmp idCmp
static VALUE
vm_opt_newarray_max(rb_num_t num, const VALUE *ptr)
{
if (BASIC_OP_UNREDEFINED_P(BOP_MAX, ARRAY_REDEFINED_OP_FLAG)) {
if (num == 0) {
return Qnil;
}
else {
struct cmp_opt_data cmp_opt = { 0, 0 };
VALUE result = *ptr;
rb_snum_t i = num - 1;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
while (i-- > 0) {
const VALUE v = *++ptr;
if (OPTIMIZED_CMP(v, result, cmp_opt) > 0) {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
result = v;
}
}
return result;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
}
else {
VALUE ary = rb_ary_new4(num, ptr);
return rb_funcall(ary, idMax, 0);
}
}
static VALUE
vm_opt_newarray_min(rb_num_t num, const VALUE *ptr)
{
if (BASIC_OP_UNREDEFINED_P(BOP_MIN, ARRAY_REDEFINED_OP_FLAG)) {
if (num == 0) {
return Qnil;
}
else {
struct cmp_opt_data cmp_opt = { 0, 0 };
VALUE result = *ptr;
rb_snum_t i = num - 1;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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while (i-- > 0) {
const VALUE v = *++ptr;
if (OPTIMIZED_CMP(v, result, cmp_opt) < 0) {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
result = v;
}
}
return result;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
else {
VALUE ary = rb_ary_new4(num, ptr);
return rb_funcall(ary, idMin, 0);
}
}
#undef id_cmp
static int
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
vm_ic_hit_p(IC ic, const VALUE *reg_ep)
{
if (ic->ic_serial == GET_GLOBAL_CONSTANT_STATE()) {
return (ic->ic_cref == NULL || // no need to check CREF
ic->ic_cref == vm_get_cref(reg_ep));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
return FALSE;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
static void
vm_ic_update(IC ic, VALUE val, const VALUE *reg_ep)
{
VM_ASSERT(ic->value != Qundef);
ic->value = val;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
ic->ic_serial = GET_GLOBAL_CONSTANT_STATE() - ruby_vm_const_missing_count;
ic->ic_cref = vm_get_const_key_cref(reg_ep);
ruby_vm_const_missing_count = 0;
}
static VALUE
vm_once_dispatch(rb_execution_context_t *ec, ISEQ iseq, ISE is)
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
{
rb_thread_t *th = rb_ec_thread_ptr(ec);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
rb_thread_t *const RUNNING_THREAD_ONCE_DONE = (rb_thread_t *)(0x1);
again:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
if (is->once.running_thread == RUNNING_THREAD_ONCE_DONE) {
return is->once.value;
}
else if (is->once.running_thread == NULL) {
VALUE val;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
is->once.running_thread = th;
val = rb_ensure(vm_once_exec, (VALUE)iseq, vm_once_clear, (VALUE)is);
RB_OBJ_WRITE(ec->cfp->iseq, &is->once.value, val);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
/* is->once.running_thread is cleared by vm_once_clear() */
is->once.running_thread = RUNNING_THREAD_ONCE_DONE; /* success */
return val;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (is->once.running_thread == th) {
/* recursive once */
return vm_once_exec((VALUE)iseq);
}
else {
/* waiting for finish */
RUBY_VM_CHECK_INTS(ec);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
rb_thread_schedule();
goto again;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
static OFFSET
vm_case_dispatch(CDHASH hash, OFFSET else_offset, VALUE key)
{
switch (OBJ_BUILTIN_TYPE(key)) {
case -1:
case T_FLOAT:
case T_SYMBOL:
case T_BIGNUM:
case T_STRING:
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
if (BASIC_OP_UNREDEFINED_P(BOP_EQQ,
SYMBOL_REDEFINED_OP_FLAG |
INTEGER_REDEFINED_OP_FLAG |
FLOAT_REDEFINED_OP_FLAG |
NIL_REDEFINED_OP_FLAG |
TRUE_REDEFINED_OP_FLAG |
FALSE_REDEFINED_OP_FLAG |
STRING_REDEFINED_OP_FLAG)) {
st_data_t val;
if (RB_FLOAT_TYPE_P(key)) {
double kval = RFLOAT_VALUE(key);
if (!isinf(kval) && modf(kval, &kval) == 0.0) {
key = FIXABLE(kval) ? LONG2FIX((long)kval) : rb_dbl2big(kval);
}
}
if (rb_hash_stlike_lookup(hash, key, &val)) {
return FIX2LONG((VALUE)val);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else {
return else_offset;
}
}
}
return 0;
}
NORETURN(static void
vm_stack_consistency_error(const rb_execution_context_t *ec,
const rb_control_frame_t *,
const VALUE *));
static void
vm_stack_consistency_error(const rb_execution_context_t *ec,
const rb_control_frame_t *cfp,
const VALUE *bp)
{
const ptrdiff_t nsp = VM_SP_CNT(ec, cfp->sp);
const ptrdiff_t nbp = VM_SP_CNT(ec, bp);
static const char stack_consistency_error[] =
"Stack consistency error (sp: %"PRIdPTRDIFF", bp: %"PRIdPTRDIFF")";
#if defined RUBY_DEVEL
VALUE mesg = rb_sprintf(stack_consistency_error, nsp, nbp);
rb_str_cat_cstr(mesg, "\n");
rb_str_append(mesg, rb_iseq_disasm(cfp->iseq));
rb_exc_fatal(rb_exc_new3(rb_eFatal, mesg));
#else
rb_bug(stack_consistency_error, nsp, nbp);
#endif
}
static VALUE
vm_opt_plus(VALUE recv, VALUE obj)
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_PLUS, INTEGER_REDEFINED_OP_FLAG)) {
return rb_fix_plus_fix(recv, obj);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_PLUS, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(RFLOAT_VALUE(recv) + RFLOAT_VALUE(obj));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_PLUS, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(RFLOAT_VALUE(recv) + RFLOAT_VALUE(obj));
}
else if (RBASIC_CLASS(recv) == rb_cString &&
RBASIC_CLASS(obj) == rb_cString &&
BASIC_OP_UNREDEFINED_P(BOP_PLUS, STRING_REDEFINED_OP_FLAG)) {
2019-08-06 14:59:41 +03:00
return rb_str_opt_plus(recv, obj);
}
else if (RBASIC_CLASS(recv) == rb_cArray &&
RBASIC_CLASS(obj) == rb_cArray &&
BASIC_OP_UNREDEFINED_P(BOP_PLUS, ARRAY_REDEFINED_OP_FLAG)) {
return rb_ary_plus(recv, obj);
}
else {
return Qundef;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
static VALUE
vm_opt_minus(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_MINUS, INTEGER_REDEFINED_OP_FLAG)) {
return rb_fix_minus_fix(recv, obj);
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_MINUS, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(RFLOAT_VALUE(recv) - RFLOAT_VALUE(obj));
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_MINUS, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(RFLOAT_VALUE(recv) - RFLOAT_VALUE(obj));
}
else {
return Qundef;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
static VALUE
vm_opt_mult(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_MULT, INTEGER_REDEFINED_OP_FLAG)) {
return rb_fix_mul_fix(recv, obj);
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_MULT, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(RFLOAT_VALUE(recv) * RFLOAT_VALUE(obj));
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_MULT, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(RFLOAT_VALUE(recv) * RFLOAT_VALUE(obj));
}
else {
return Qundef;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
static VALUE
vm_opt_div(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_DIV, INTEGER_REDEFINED_OP_FLAG)) {
return (FIX2LONG(obj) == 0) ? Qundef : rb_fix_div_fix(recv, obj);
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_DIV, FLOAT_REDEFINED_OP_FLAG)) {
return rb_flo_div_flo(recv, obj);
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_DIV, FLOAT_REDEFINED_OP_FLAG)) {
return rb_flo_div_flo(recv, obj);
}
else {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return Qundef;
}
}
static VALUE
vm_opt_mod(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_MOD, INTEGER_REDEFINED_OP_FLAG)) {
return (FIX2LONG(obj) == 0) ? Qundef : rb_fix_mod_fix(recv, obj);
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_MOD, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(ruby_float_mod(RFLOAT_VALUE(recv), RFLOAT_VALUE(obj)));
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_MOD, FLOAT_REDEFINED_OP_FLAG)) {
return DBL2NUM(ruby_float_mod(RFLOAT_VALUE(recv), RFLOAT_VALUE(obj)));
}
else {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return Qundef;
}
}
static VALUE
vm_opt_neq(const rb_iseq_t *iseq, CALL_DATA cd, CALL_DATA cd_eq, VALUE recv, VALUE obj)
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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{
if (vm_method_cfunc_is(iseq, cd, recv, rb_obj_not_equal)) {
VALUE val = opt_equality(iseq, recv, obj, cd_eq);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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if (val != Qundef) {
return RTEST(val) ? Qfalse : Qtrue;
}
}
return Qundef;
}
static VALUE
vm_opt_lt(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_LT, INTEGER_REDEFINED_OP_FLAG)) {
return (SIGNED_VALUE)recv < (SIGNED_VALUE)obj ? Qtrue : Qfalse;
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_LT, FLOAT_REDEFINED_OP_FLAG)) {
return RFLOAT_VALUE(recv) < RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_LT, FLOAT_REDEFINED_OP_FLAG)) {
CHECK_CMP_NAN(RFLOAT_VALUE(recv), RFLOAT_VALUE(obj));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return RFLOAT_VALUE(recv) < RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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return Qundef;
}
}
static VALUE
vm_opt_le(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_LE, INTEGER_REDEFINED_OP_FLAG)) {
return (SIGNED_VALUE)recv <= (SIGNED_VALUE)obj ? Qtrue : Qfalse;
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_LE, FLOAT_REDEFINED_OP_FLAG)) {
return RFLOAT_VALUE(recv) <= RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_LE, FLOAT_REDEFINED_OP_FLAG)) {
CHECK_CMP_NAN(RFLOAT_VALUE(recv), RFLOAT_VALUE(obj));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return RFLOAT_VALUE(recv) <= RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return Qundef;
}
}
static VALUE
vm_opt_gt(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_GT, INTEGER_REDEFINED_OP_FLAG)) {
return (SIGNED_VALUE)recv > (SIGNED_VALUE)obj ? Qtrue : Qfalse;
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_GT, FLOAT_REDEFINED_OP_FLAG)) {
return RFLOAT_VALUE(recv) > RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_GT, FLOAT_REDEFINED_OP_FLAG)) {
CHECK_CMP_NAN(RFLOAT_VALUE(recv), RFLOAT_VALUE(obj));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return RFLOAT_VALUE(recv) > RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return Qundef;
}
}
static VALUE
vm_opt_ge(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_GE, INTEGER_REDEFINED_OP_FLAG)) {
return (SIGNED_VALUE)recv >= (SIGNED_VALUE)obj ? Qtrue : Qfalse;
}
else if (FLONUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_GE, FLOAT_REDEFINED_OP_FLAG)) {
return RFLOAT_VALUE(recv) >= RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else if (SPECIAL_CONST_P(recv) || SPECIAL_CONST_P(obj)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cFloat &&
RBASIC_CLASS(obj) == rb_cFloat &&
BASIC_OP_UNREDEFINED_P(BOP_GE, FLOAT_REDEFINED_OP_FLAG)) {
CHECK_CMP_NAN(RFLOAT_VALUE(recv), RFLOAT_VALUE(obj));
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return RFLOAT_VALUE(recv) >= RFLOAT_VALUE(obj) ? Qtrue : Qfalse;
}
else {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return Qundef;
}
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
static VALUE
vm_opt_ltlt(VALUE recv, VALUE obj)
{
if (SPECIAL_CONST_P(recv)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cString &&
BASIC_OP_UNREDEFINED_P(BOP_LTLT, STRING_REDEFINED_OP_FLAG)) {
return rb_str_concat(recv, obj);
}
else if (RBASIC_CLASS(recv) == rb_cArray &&
BASIC_OP_UNREDEFINED_P(BOP_LTLT, ARRAY_REDEFINED_OP_FLAG)) {
return rb_ary_push(recv, obj);
}
else {
return Qundef;
}
}
static VALUE
vm_opt_and(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_AND, INTEGER_REDEFINED_OP_FLAG)) {
return (recv & obj) | 1;
}
else {
return Qundef;
}
}
static VALUE
vm_opt_or(VALUE recv, VALUE obj)
{
if (FIXNUM_2_P(recv, obj) &&
BASIC_OP_UNREDEFINED_P(BOP_OR, INTEGER_REDEFINED_OP_FLAG)) {
return recv | obj;
}
else {
return Qundef;
}
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
static VALUE
vm_opt_aref(VALUE recv, VALUE obj)
{
if (SPECIAL_CONST_P(recv)) {
if (FIXNUM_2_P(recv, obj) &&
2019-06-01 07:34:55 +03:00
BASIC_OP_UNREDEFINED_P(BOP_AREF, INTEGER_REDEFINED_OP_FLAG)) {
return rb_fix_aref(recv, obj);
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cArray &&
BASIC_OP_UNREDEFINED_P(BOP_AREF, ARRAY_REDEFINED_OP_FLAG)) {
if (FIXNUM_P(obj)) {
return rb_ary_entry_internal(recv, FIX2LONG(obj));
}
else {
return rb_ary_aref1(recv, obj);
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
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}
else if (RBASIC_CLASS(recv) == rb_cHash &&
BASIC_OP_UNREDEFINED_P(BOP_AREF, HASH_REDEFINED_OP_FLAG)) {
return rb_hash_aref(recv, obj);
}
else {
return Qundef;
}
}
static VALUE
vm_opt_aset(VALUE recv, VALUE obj, VALUE set)
{
if (SPECIAL_CONST_P(recv)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cArray &&
BASIC_OP_UNREDEFINED_P(BOP_ASET, ARRAY_REDEFINED_OP_FLAG) &&
FIXNUM_P(obj)) {
rb_ary_store(recv, FIX2LONG(obj), set);
return set;
}
else if (RBASIC_CLASS(recv) == rb_cHash &&
BASIC_OP_UNREDEFINED_P(BOP_ASET, HASH_REDEFINED_OP_FLAG)) {
rb_hash_aset(recv, obj, set);
return set;
}
else {
return Qundef;
}
}
static VALUE
vm_opt_aref_with(VALUE recv, VALUE key)
{
if (!SPECIAL_CONST_P(recv) && RBASIC_CLASS(recv) == rb_cHash &&
BASIC_OP_UNREDEFINED_P(BOP_AREF, HASH_REDEFINED_OP_FLAG) &&
rb_hash_compare_by_id_p(recv) == Qfalse) {
return rb_hash_aref(recv, key);
}
else {
return Qundef;
}
}
static VALUE
vm_opt_aset_with(VALUE recv, VALUE key, VALUE val)
{
if (!SPECIAL_CONST_P(recv) && RBASIC_CLASS(recv) == rb_cHash &&
BASIC_OP_UNREDEFINED_P(BOP_ASET, HASH_REDEFINED_OP_FLAG) &&
rb_hash_compare_by_id_p(recv) == Qfalse) {
return rb_hash_aset(recv, key, val);
}
else {
return Qundef;
}
}
static VALUE
vm_opt_length(VALUE recv, int bop)
{
if (SPECIAL_CONST_P(recv)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cString &&
BASIC_OP_UNREDEFINED_P(bop, STRING_REDEFINED_OP_FLAG)) {
if (bop == BOP_EMPTY_P) {
return LONG2NUM(RSTRING_LEN(recv));
}
else {
return rb_str_length(recv);
}
}
else if (RBASIC_CLASS(recv) == rb_cArray &&
BASIC_OP_UNREDEFINED_P(bop, ARRAY_REDEFINED_OP_FLAG)) {
return LONG2NUM(RARRAY_LEN(recv));
}
else if (RBASIC_CLASS(recv) == rb_cHash &&
BASIC_OP_UNREDEFINED_P(bop, HASH_REDEFINED_OP_FLAG)) {
return INT2FIX(RHASH_SIZE(recv));
}
else {
return Qundef;
}
}
static VALUE
vm_opt_empty_p(VALUE recv)
{
switch (vm_opt_length(recv, BOP_EMPTY_P)) {
case Qundef: return Qundef;
case INT2FIX(0): return Qtrue;
default: return Qfalse;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
VALUE rb_false(VALUE obj);
static VALUE
vm_opt_nil_p(const rb_iseq_t *iseq, CALL_DATA cd, VALUE recv)
{
if (recv == Qnil &&
BASIC_OP_UNREDEFINED_P(BOP_NIL_P, NIL_REDEFINED_OP_FLAG)) {
return Qtrue;
}
else if (vm_method_cfunc_is(iseq, cd, recv, rb_false)) {
return Qfalse;
2019-09-27 04:20:56 +03:00
}
else {
return Qundef;
}
}
static VALUE
fix_succ(VALUE x)
{
switch (x) {
case ~0UL:
/* 0xFFFF_FFFF == INT2FIX(-1)
* `-1.succ` is of course 0. */
return INT2FIX(0);
case RSHIFT(~0UL, 1):
/* 0x7FFF_FFFF == LONG2FIX(0x3FFF_FFFF)
* 0x3FFF_FFFF + 1 == 0x4000_0000, which is a Bignum. */
return rb_uint2big(1UL << (SIZEOF_LONG * CHAR_BIT - 2));
default:
/* LONG2FIX(FIX2LONG(x)+FIX2LONG(y))
* == ((lx*2+1)/2 + (ly*2+1)/2)*2+1
* == lx*2 + ly*2 + 1
* == (lx*2+1) + (ly*2+1) - 1
* == x + y - 1
*
* Here, if we put y := INT2FIX(1):
*
* == x + INT2FIX(1) - 1
* == x + 2 .
*/
return x + 2;
}
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
static VALUE
vm_opt_succ(VALUE recv)
{
if (FIXNUM_P(recv) &&
BASIC_OP_UNREDEFINED_P(BOP_SUCC, INTEGER_REDEFINED_OP_FLAG)) {
return fix_succ(recv);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (SPECIAL_CONST_P(recv)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cString &&
BASIC_OP_UNREDEFINED_P(BOP_SUCC, STRING_REDEFINED_OP_FLAG)) {
return rb_str_succ(recv);
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
else {
return Qundef;
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
}
static VALUE
vm_opt_not(const rb_iseq_t *iseq, CALL_DATA cd, VALUE recv)
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
{
if (vm_method_cfunc_is(iseq, cd, recv, rb_obj_not)) {
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
return RTEST(recv) ? Qfalse : Qtrue;
}
else {
return Qundef;
}
}
static VALUE
vm_opt_regexpmatch2(VALUE recv, VALUE obj)
{
if (SPECIAL_CONST_P(recv)) {
return Qundef;
}
else if (RBASIC_CLASS(recv) == rb_cString &&
CLASS_OF(obj) == rb_cRegexp &&
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
BASIC_OP_UNREDEFINED_P(BOP_MATCH, STRING_REDEFINED_OP_FLAG)) {
return rb_reg_match(obj, recv);
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
}
else if (RBASIC_CLASS(recv) == rb_cRegexp &&
BASIC_OP_UNREDEFINED_P(BOP_MATCH, REGEXP_REDEFINED_OP_FLAG)) {
return rb_reg_match(recv, obj);
}
split insns.def into functions Contemporary C compilers are good at function inlining. They fold multiple functions into one. However they are not yet smart enough to unfold a function into several ones. So generally speaking, it is wiser for a C programmer to manually split C functions whenever possible. That should make rooms for compilers to optimize at will. Before this changeset insns.def was converted into single HUGE function called vm_exec_core(). By moving each instruction's core into individual functions, generated C source code is reduced from 3,428 lines to 2,847 lines. Looking at the generated assembly however, it seems my compiler (gcc 6.2) is extraordinary smart so that it inlines almost all functions I introduced in this changeset back into that vm_exec_core. On my machine compiled machine binary of the function does not shrink very much in size (28,432 bytes to 26,816 bytes, according to nm(1)). I believe this change is zero-cost. Several benchmarks I exercised showed no significant difference beyond error mergin. For instance 3 repeated runs of optcarrot benchmark on my machine resulted in: before this: 28.330329285707490, 27.513378371065920, 29.40420215754537 after this: 27.107195867280414, 25.549324021385907, 30.31581919050884 in fps (greater==faster). ---- * internal.h (rb_obj_not_equal): used from vm_insnhelper.c * insns.def: move vast majority of lines into vm_insnhelper.c * vm_insnhelper.c: moved here. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@58390 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2017-04-18 13:58:49 +03:00
else {
return Qundef;
}
}
rb_event_flag_t rb_iseq_event_flags(const rb_iseq_t *iseq, size_t pos);
NOINLINE(static void vm_trace(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, const VALUE *pc));
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
static inline void
vm_trace_hook(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, const VALUE *pc,
rb_event_flag_t pc_events, rb_event_flag_t target_event,
rb_hook_list_t *global_hooks, rb_hook_list_t *local_hooks, VALUE val)
{
rb_event_flag_t event = pc_events & target_event;
VALUE self = GET_SELF();
VM_ASSERT(rb_popcount64((uint64_t)event) == 1);
if (event & global_hooks->events) {
/* increment PC because source line is calculated with PC-1 */
reg_cfp->pc++;
vm_dtrace(event, ec);
rb_exec_event_hook_orig(ec, global_hooks, event, self, 0, 0, 0 , val, 0);
reg_cfp->pc--;
}
if (local_hooks != NULL) {
if (event & local_hooks->events) {
/* increment PC because source line is calculated with PC-1 */
reg_cfp->pc++;
rb_exec_event_hook_orig(ec, local_hooks, event, self, 0, 0, 0 , val, 0);
reg_cfp->pc--;
}
}
}
#define VM_TRACE_HOOK(target_event, val) do { \
if ((pc_events & (target_event)) & enabled_flags) { \
vm_trace_hook(ec, reg_cfp, pc, pc_events, (target_event), global_hooks, local_hooks, (val)); \
} \
} while (0)
static void
vm_trace(rb_execution_context_t *ec, rb_control_frame_t *reg_cfp, const VALUE *pc)
{
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
rb_event_flag_t enabled_flags = ruby_vm_event_flags & ISEQ_TRACE_EVENTS;
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
if (enabled_flags == 0 && ruby_vm_event_local_num == 0) {
return;
}
else {
const rb_iseq_t *iseq = reg_cfp->iseq;
size_t pos = pc - iseq->body->iseq_encoded;
rb_event_flag_t pc_events = rb_iseq_event_flags(iseq, pos);
rb_hook_list_t *local_hooks = iseq->aux.exec.local_hooks;
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
rb_event_flag_t local_hook_events = local_hooks != NULL ? local_hooks->events : 0;
enabled_flags |= local_hook_events;
VM_ASSERT((local_hook_events & ~ISEQ_TRACE_EVENTS) == 0);
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
if ((pc_events & enabled_flags) == 0) {
#if 0
/* disable trace */
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
/* TODO: incomplete */
rb_iseq_trace_set(iseq, vm_event_flags & ISEQ_TRACE_EVENTS);
#else
/* do not disable trace because of performance problem
* (re-enable overhead)
*/
#endif
return;
}
Support targetting TracePoint [Feature #15289] * vm_trace.c (rb_tracepoint_enable_for_target): support targetting TracePoint. [Feature #15289] Tragetting TracePoint is only enabled on specified method, proc and so on, example: `tp.enable(target: code)`. `code` should be consisted of InstructionSeuqnece (iseq) (RubyVM::InstructionSeuqnece.of(code) should not return nil) If code is a tree of iseq, TracePoint is enabled on all of iseqs in a tree. Enabled tragetting TracePoints can not enabled again with and without target. * vm_core.h (rb_iseq_t): introduce `rb_iseq_t::local_hooks` to store local hooks. `rb_iseq_t::aux::trace_events` is renamed to `global_trace_events` to contrast with `local_hooks`. * vm_core.h (rb_hook_list_t): add `rb_hook_list_t::running` to represent how many Threads/Fibers are used this list. If this field is 0, nobody using this hooks and we can delete it. This is why we can remove code from cont.c. * vm_core.h (rb_vm_t): because of above change, we can eliminate `rb_vm_t::trace_running` field. Also renamed from `rb_vm_t::event_hooks` to `global_hooks`. * vm_core.h, vm.c (ruby_vm_event_enabled_global_flags): renamed from `ruby_vm_event_enabled_flags. * vm_core.h, vm.c (ruby_vm_event_local_num): added to count enabled targetting TracePoints. * vm_core.h, vm_trace.c (rb_exec_event_hooks): accepts hook list. * vm_core.h (rb_vm_global_hooks): added for convinience. * method.h (rb_method_bmethod_t): added to maintain Proc and `rb_hook_list_t` for bmethod (defined by define_method). * prelude.rb (TracePoint#enable): extracet a keyword parameter (because it is easy than writing in C). It calls `TracePoint#__enable` internal method written in C. * vm_insnhelper.c (vm_trace): check also iseq->local_hooks. * vm.c (invoke_bmethod): check def->body.bmethod.hooks. * vm.c (hook_before_rewind): check iseq->local_hooks and def->body.bmethod.hooks before rewind by exception. git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@66003 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2018-11-26 21:16:39 +03:00
else if (ec->trace_arg != NULL) {
/* already tracing */
return;
}
else {
rb_hook_list_t *global_hooks = rb_vm_global_hooks(ec);
if (0) {
fprintf(stderr, "vm_trace>>%4d (%4x) - %s:%d %s\n",
(int)pos,
(int)pc_events,
RSTRING_PTR(rb_iseq_path(iseq)),
(int)rb_iseq_line_no(iseq, pos),
RSTRING_PTR(rb_iseq_label(iseq)));
}
VM_ASSERT(reg_cfp->pc == pc);
VM_ASSERT(pc_events != 0);
VM_ASSERT(enabled_flags & pc_events);
/* check traces */
VM_TRACE_HOOK(RUBY_EVENT_CLASS | RUBY_EVENT_CALL | RUBY_EVENT_B_CALL, Qundef);
VM_TRACE_HOOK(RUBY_EVENT_LINE, Qundef);
VM_TRACE_HOOK(RUBY_EVENT_COVERAGE_LINE, Qundef);
VM_TRACE_HOOK(RUBY_EVENT_COVERAGE_BRANCH, Qundef);
VM_TRACE_HOOK(RUBY_EVENT_END | RUBY_EVENT_RETURN | RUBY_EVENT_B_RETURN, TOPN(0));
}
}
}
#if VM_CHECK_MODE > 0
static NORETURN( NOINLINE( COLDFUNC
void vm_canary_is_found_dead(enum ruby_vminsn_type i, VALUE c)));
void
Init_vm_stack_canary(void)
{
/* This has to be called _after_ our PRNG is properly set up. */
int n = ruby_fill_random_bytes(&vm_stack_canary, sizeof vm_stack_canary, false);
vm_stack_canary_was_born = true;
VM_ASSERT(n == 0);
}
#ifndef MJIT_HEADER
MJIT_FUNC_EXPORTED void
vm_canary_is_found_dead(enum ruby_vminsn_type i, VALUE c)
{
/* Because a method has already been called, why not call
* another one. */
const char *insn = rb_insns_name(i);
VALUE inspection = rb_inspect(c);
const char *str = StringValueCStr(inspection);
rb_bug("dead canary found at %s: %s", insn, str);
}
#endif
#else
void Init_vm_stack_canary(void) { /* nothing to do */ }
#endif
2019-11-07 10:58:00 +03:00
/* a part of the following code is generated by this ruby script:
16.times{|i|
typedef_args = (0...i).map{|j| "VALUE v#{j+1}"}.join(", ")
typedef_args.prepend(", ") if i != 0
call_args = (0...i).map{|j| "argv[#{j}]"}.join(", ")
call_args.prepend(", ") if i != 0
puts %Q{
static VALUE
builtin_invoker#{i}(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr#{i}_t)(rb_execution_context_t *ec, VALUE self#{typedef_args});
return (*(rb_invoke_funcptr#{i}_t)funcptr)(ec, self#{call_args});
}}
}
puts
puts "static VALUE (* const cfunc_invokers[])(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr) = {"
16.times{|i|
puts " builtin_invoker#{i},"
}
puts "};"
*/
static VALUE
builtin_invoker0(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr0_t)(rb_execution_context_t *ec, VALUE self);
return (*(rb_invoke_funcptr0_t)funcptr)(ec, self);
}
static VALUE
builtin_invoker1(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr1_t)(rb_execution_context_t *ec, VALUE self, VALUE v1);
return (*(rb_invoke_funcptr1_t)funcptr)(ec, self, argv[0]);
}
static VALUE
builtin_invoker2(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr2_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2);
return (*(rb_invoke_funcptr2_t)funcptr)(ec, self, argv[0], argv[1]);
}
static VALUE
builtin_invoker3(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr3_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3);
return (*(rb_invoke_funcptr3_t)funcptr)(ec, self, argv[0], argv[1], argv[2]);
}
static VALUE
builtin_invoker4(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr4_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4);
return (*(rb_invoke_funcptr4_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3]);
}
static VALUE
builtin_invoker5(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr5_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5);
return (*(rb_invoke_funcptr5_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4]);
}
static VALUE
builtin_invoker6(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr6_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6);
return (*(rb_invoke_funcptr6_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5]);
}
static VALUE
builtin_invoker7(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr7_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7);
return (*(rb_invoke_funcptr7_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6]);
}
static VALUE
builtin_invoker8(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr8_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8);
return (*(rb_invoke_funcptr8_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7]);
}
static VALUE
builtin_invoker9(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr9_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9);
return (*(rb_invoke_funcptr9_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8]);
}
static VALUE
builtin_invoker10(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr10_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9, VALUE v10);
return (*(rb_invoke_funcptr10_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9]);
}
static VALUE
builtin_invoker11(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr11_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9, VALUE v10, VALUE v11);
return (*(rb_invoke_funcptr11_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10]);
}
static VALUE
builtin_invoker12(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr12_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9, VALUE v10, VALUE v11, VALUE v12);
return (*(rb_invoke_funcptr12_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11]);
}
static VALUE
builtin_invoker13(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr13_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9, VALUE v10, VALUE v11, VALUE v12, VALUE v13);
return (*(rb_invoke_funcptr13_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11], argv[12]);
}
static VALUE
builtin_invoker14(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr14_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9, VALUE v10, VALUE v11, VALUE v12, VALUE v13, VALUE v14);
return (*(rb_invoke_funcptr14_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11], argv[12], argv[13]);
}
static VALUE
builtin_invoker15(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr)
{
typedef VALUE (*rb_invoke_funcptr15_t)(rb_execution_context_t *ec, VALUE self, VALUE v1, VALUE v2, VALUE v3, VALUE v4, VALUE v5, VALUE v6, VALUE v7, VALUE v8, VALUE v9, VALUE v10, VALUE v11, VALUE v12, VALUE v13, VALUE v14, VALUE v15);
return (*(rb_invoke_funcptr15_t)funcptr)(ec, self, argv[0], argv[1], argv[2], argv[3], argv[4], argv[5], argv[6], argv[7], argv[8], argv[9], argv[10], argv[11], argv[12], argv[13], argv[14]);
}
typedef VALUE (*builtin_invoker)(rb_execution_context_t *ec, VALUE self, const VALUE *argv, rb_insn_func_t funcptr);
static builtin_invoker
lookup_builtin_invoker(int argc)
{
static const builtin_invoker invokers[] = {
builtin_invoker0,
builtin_invoker1,
builtin_invoker2,
builtin_invoker3,
builtin_invoker4,
builtin_invoker5,
builtin_invoker6,
builtin_invoker7,
builtin_invoker8,
builtin_invoker9,
builtin_invoker10,
builtin_invoker11,
builtin_invoker12,
builtin_invoker13,
builtin_invoker14,
builtin_invoker15,
};
return invokers[argc];
}
static inline VALUE
invoke_bf(rb_execution_context_t *ec, rb_control_frame_t *cfp, const struct rb_builtin_function* bf, const VALUE *argv)
{
VALUE self = cfp->self;
return (*lookup_builtin_invoker(bf->argc))(ec, self, argv, (rb_insn_func_t)bf->func_ptr);
}
static VALUE
vm_invoke_builtin(rb_execution_context_t *ec, rb_control_frame_t *cfp, const struct rb_builtin_function* bf, const VALUE *argv)
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{
return invoke_bf(ec, cfp, bf, argv);
}
static VALUE
vm_invoke_builtin_delegate(rb_execution_context_t *ec, rb_control_frame_t *cfp, const struct rb_builtin_function *bf, unsigned int start_index)
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{
if (0) { // debug print
fprintf(stderr, "vm_invoke_builtin_delegate: passing -> ");
for (int i=0; i<bf->argc; i++) {
fprintf(stderr, ":%s ", rb_id2name(cfp->iseq->body->local_table[i+start_index]));
}
fprintf(stderr, "\n");
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fprintf(stderr, "%s %s(%d):%p\n", RUBY_FUNCTION_NAME_STRING, bf->name, bf->argc, bf->func_ptr);
}
if (bf->argc == 0) {
return invoke_bf(ec, cfp, bf, NULL);
}
else {
const VALUE *argv = cfp->ep - cfp->iseq->body->local_table_size - VM_ENV_DATA_SIZE + 1 + start_index;
return invoke_bf(ec, cfp, bf, argv);
}
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}
// for __builtin_inline!()
VALUE
rb_vm_lvar_exposed(rb_execution_context_t *ec, int index)
{
const rb_control_frame_t *cfp = ec->cfp;
return cfp->ep[index];
}