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gecko-dev/media/mtransport/test/test_nr_socket_unittest.cpp

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/* -*- Mode: C++; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 2 -*- */
/* vim: set ts=2 et sw=2 tw=80: */
/* This Source Code Form is subject to the terms of the Mozilla Public
* License, v. 2.0. If a copy of the MPL was not distributed with this file,
* You can obtain one at http://mozilla.org/MPL/2.0/. */
// Original author: bcampen@mozilla.com
extern "C" {
#include "stun_msg.h" // for NR_STUN_MAX_MESSAGE_SIZE
#include "stun_util.h"
#include "nr_api.h"
#include "async_wait.h"
#include "nr_socket.h"
#include "nr_socket_local.h"
#include "stun_hint.h"
#include "local_addr.h"
#include "registry.h"
}
#include "test_nr_socket.h"
#include "nsCOMPtr.h"
#include "nsNetCID.h"
#include "nsServiceManagerUtils.h"
#include "nsAutoPtr.h"
#include "runnable_utils.h"
#include <vector>
#define GTEST_HAS_RTTI 0
#include "gtest/gtest.h"
#include "gtest_utils.h"
#define DATA_BUF_SIZE 1024
namespace mozilla {
class TestNrSocketTest : public MtransportTest {
public:
TestNrSocketTest() :
MtransportTest(),
wait_done_for_main_(false),
sts_(),
public_addrs_(),
private_addrs_(),
nats_() {
}
void SetUp() override {
MtransportTest::SetUp();
// Get the transport service as a dispatch target
nsresult rv;
sts_ = do_GetService(NS_SOCKETTRANSPORTSERVICE_CONTRACTID, &rv);
EXPECT_TRUE(NS_SUCCEEDED(rv)) << "Failed to get STS: " << (int)rv;
}
void TearDown() override {
sts_->Dispatch(WrapRunnable(this, &TestNrSocketTest::TearDown_s),
NS_DISPATCH_SYNC);
MtransportTest::TearDown();
}
void TearDown_s() {
public_addrs_.clear();
private_addrs_.clear();
nats_.clear();
sts_ = nullptr;
}
RefPtr<TestNrSocket> CreateTestNrSocket_s(const char *ip_str,
int proto,
TestNat *nat) {
// If no nat is supplied, we create a default NAT which is disabled. This
// is how we simulate a non-natted socket.
RefPtr<TestNrSocket> sock(new TestNrSocket(nat ? nat : new TestNat));
nr_transport_addr address;
nr_str_port_to_transport_addr(ip_str, 0, proto, &address);
int r = sock->create(&address);
if (r) {
return nullptr;
}
return sock;
}
void CreatePublicAddrs(size_t count,
const char *ip_str = "127.0.0.1",
int proto = IPPROTO_UDP) {
sts_->Dispatch(
WrapRunnable(this,
&TestNrSocketTest::CreatePublicAddrs_s,
count,
ip_str,
proto),
NS_DISPATCH_SYNC);
}
void CreatePublicAddrs_s(size_t count, const char* ip_str, int proto) {
while (count--) {
auto sock = CreateTestNrSocket_s(ip_str, proto, nullptr);
ASSERT_TRUE(sock) << "Failed to create socket";
public_addrs_.push_back(sock);
}
}
RefPtr<TestNat> CreatePrivateAddrs(size_t size,
const char* ip_str = "127.0.0.1",
int proto = IPPROTO_UDP) {
RefPtr<TestNat> result;
sts_->Dispatch(
WrapRunnableRet(&result,
this,
&TestNrSocketTest::CreatePrivateAddrs_s,
size,
ip_str,
proto),
NS_DISPATCH_SYNC);
return result;
}
RefPtr<TestNat> CreatePrivateAddrs_s(size_t count,
const char* ip_str,
int proto) {
RefPtr<TestNat> nat(new TestNat);
while (count--) {
auto sock = CreateTestNrSocket_s(ip_str, proto, nat);
if (!sock) {
EXPECT_TRUE(false) << "Failed to create socket";
break;
}
private_addrs_.push_back(sock);
}
nat->enabled_ = true;
nats_.push_back(nat);
return nat;
}
bool CheckConnectivityVia(
TestNrSocket *from,
TestNrSocket *to,
const nr_transport_addr &via,
nr_transport_addr *sender_external_address = nullptr) {
MOZ_ASSERT(from);
if (!WaitForWriteable(from)) {
return false;
}
int result = 0;
sts_->Dispatch(WrapRunnableRet(&result,
this,
&TestNrSocketTest::SendData_s,
from,
via),
NS_DISPATCH_SYNC);
if (result) {
return false;
}
if (!WaitForReadable(to)) {
return false;
}
nr_transport_addr dummy_outparam;
if (!sender_external_address) {
sender_external_address = &dummy_outparam;
}
MOZ_ASSERT(to);
sts_->Dispatch(WrapRunnableRet(&result,
this,
&TestNrSocketTest::RecvData_s,
to,
sender_external_address),
NS_DISPATCH_SYNC);
return !result;
}
bool CheckConnectivity(
TestNrSocket *from,
TestNrSocket *to,
nr_transport_addr *sender_external_address = nullptr) {
nr_transport_addr destination_address;
int r = GetAddress(to, &destination_address);
if (r) {
return false;
}
return CheckConnectivityVia(from,
to,
destination_address,
sender_external_address);
}
bool CheckTcpConnectivity(TestNrSocket *from, TestNrSocket *to) {
NrSocketBase *accepted_sock;
if (!Connect(from, to, &accepted_sock)) {
std::cerr << "Connect failed" << std::endl;
return false;
}
// write on |from|, recv on |accepted_sock|
if (!WaitForWriteable(from)) {
std::cerr << __LINE__ << "WaitForWriteable (1) failed" << std::endl;
return false;
}
int r;
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::SendDataTcp_s,
from),
NS_DISPATCH_SYNC);
if (r) {
std::cerr << "SendDataTcp_s (1) failed" << std::endl;
return false;
}
if (!WaitForReadable(accepted_sock)) {
std::cerr << __LINE__ << "WaitForReadable (1) failed" << std::endl;
return false;
}
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::RecvDataTcp_s,
accepted_sock),
NS_DISPATCH_SYNC);
if (r) {
std::cerr << "RecvDataTcp_s (1) failed" << std::endl;
return false;
}
if (!WaitForWriteable(accepted_sock)) {
std::cerr << __LINE__ << "WaitForWriteable (2) failed" << std::endl;
return false;
}
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::SendDataTcp_s,
accepted_sock),
NS_DISPATCH_SYNC);
if (r) {
std::cerr << "SendDataTcp_s (2) failed" << std::endl;
return false;
}
if (!WaitForReadable(from)) {
std::cerr << __LINE__ << "WaitForReadable (2) failed" << std::endl;
return false;
}
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::RecvDataTcp_s,
from),
NS_DISPATCH_SYNC);
if (r) {
std::cerr << "RecvDataTcp_s (2) failed" << std::endl;
return false;
}
return true;
}
int GetAddress(TestNrSocket *sock, nr_transport_addr_ *address) {
MOZ_ASSERT(sock);
MOZ_ASSERT(address);
int r;
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::GetAddress_s,
sock,
address),
NS_DISPATCH_SYNC);
return r;
}
int GetAddress_s(TestNrSocket *sock, nr_transport_addr *address) {
return sock->getaddr(address);
}
int SendData_s(TestNrSocket *from, const nr_transport_addr &to) {
// It is up to caller to ensure that |from| is writeable.
const char buf[] = "foobajooba";
return from->sendto(buf, sizeof(buf), 0,
// TODO(bug 1170299): Remove const_cast when no longer necessary
const_cast<nr_transport_addr*>(&to));
}
int SendDataTcp_s(NrSocketBase *from) {
// It is up to caller to ensure that |from| is writeable.
const char buf[] = "foobajooba";
size_t written;
return from->write(buf, sizeof(buf), &written);
}
int RecvData_s(TestNrSocket *to, nr_transport_addr *from) {
// It is up to caller to ensure that |to| is readable
char buf[DATA_BUF_SIZE];
size_t len;
// Maybe check that data matches?
int r = to->recvfrom(buf, sizeof(buf), &len, 0, from);
if (!r && (len == 0)) {
r = R_INTERNAL;
}
return r;
}
int RecvDataTcp_s(NrSocketBase *to) {
// It is up to caller to ensure that |to| is readable
char buf[DATA_BUF_SIZE];
size_t len;
// Maybe check that data matches?
int r = to->read(buf, sizeof(buf), &len);
if (!r && (len == 0)) {
r = R_INTERNAL;
}
return r;
}
int Listen_s(TestNrSocket *to) {
// listen on |to|
int r = to->listen(1);
if (r) {
return r;
}
return 0;
}
int Connect_s(TestNrSocket *from, TestNrSocket *to) {
// connect on |from|
nr_transport_addr destination_address;
int r = to->getaddr(&destination_address);
if (r) {
return r;
}
r = from->connect(&destination_address);
if (r) {
return r;
}
return 0;
}
int Accept_s(TestNrSocket *to, NrSocketBase **accepted_sock) {
nr_socket *sock;
nr_transport_addr source_address;
int r = to->accept(&source_address, &sock);
if (r) {
return r;
}
*accepted_sock = reinterpret_cast<NrSocketBase*>(sock->obj);
return 0;
}
bool Connect(TestNrSocket *from,
TestNrSocket *to,
NrSocketBase **accepted_sock) {
int r;
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::Listen_s,
to),
NS_DISPATCH_SYNC);
if (r) {
std::cerr << "Listen_s failed: " << r << std::endl;
return false;
}
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::Connect_s,
from,
to),
NS_DISPATCH_SYNC);
if (r && r != R_WOULDBLOCK) {
std::cerr << "Connect_s failed: " << r << std::endl;
return false;
}
if (!WaitForReadable(to)) {
std::cerr << "WaitForReadable failed" << std::endl;
return false;
}
sts_->Dispatch(WrapRunnableRet(&r,
this,
&TestNrSocketTest::Accept_s,
to,
accepted_sock),
NS_DISPATCH_SYNC);
if (r) {
std::cerr << "Accept_s failed: " << r << std::endl;
return false;
}
return true;
}
bool WaitForSocketState(NrSocketBase *sock, int state) {
MOZ_ASSERT(sock);
sts_->Dispatch(WrapRunnable(this,
&TestNrSocketTest::WaitForSocketState_s,
sock,
state),
NS_DISPATCH_SYNC);
bool res;
WAIT_(wait_done_for_main_, 500, res);
wait_done_for_main_ = false;
if (!res) {
sts_->Dispatch(WrapRunnable(this,
&TestNrSocketTest::CancelWait_s,
sock,
state),
NS_DISPATCH_SYNC);
}
return res;
}
void WaitForSocketState_s(NrSocketBase *sock, int state) {
NR_ASYNC_WAIT(sock, state, &WaitDone, this);
}
void CancelWait_s(NrSocketBase *sock, int state) {
sock->cancel(state);
}
bool WaitForReadable(NrSocketBase *sock) {
return WaitForSocketState(sock, NR_ASYNC_WAIT_READ);
}
bool WaitForWriteable(NrSocketBase *sock) {
return WaitForSocketState(sock, NR_ASYNC_WAIT_WRITE);
}
static void WaitDone(void *sock, int how, void *test_fixture) {
TestNrSocketTest *test = static_cast<TestNrSocketTest*>(test_fixture);
test->wait_done_for_main_ = true;
}
// Simple busywait boolean for the test cases to spin on.
Atomic<bool> wait_done_for_main_;
nsCOMPtr<nsIEventTarget> sts_;
std::vector<RefPtr<TestNrSocket>> public_addrs_;
std::vector<RefPtr<TestNrSocket>> private_addrs_;
std::vector<RefPtr<TestNat>> nats_;
};
} // namespace mozilla
using mozilla::TestNrSocketTest;
using mozilla::TestNat;
TEST_F(TestNrSocketTest, PublicConnectivity) {
CreatePublicAddrs(2);
ASSERT_TRUE(CheckConnectivity(public_addrs_[0], public_addrs_[1]));
ASSERT_TRUE(CheckConnectivity(public_addrs_[1], public_addrs_[0]));
ASSERT_TRUE(CheckConnectivity(public_addrs_[0], public_addrs_[0]));
ASSERT_TRUE(CheckConnectivity(public_addrs_[1], public_addrs_[1]));
}
TEST_F(TestNrSocketTest, PrivateConnectivity) {
RefPtr<TestNat> nat(CreatePrivateAddrs(2));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0], private_addrs_[1]));
ASSERT_TRUE(CheckConnectivity(private_addrs_[1], private_addrs_[0]));
ASSERT_TRUE(CheckConnectivity(private_addrs_[0], private_addrs_[0]));
ASSERT_TRUE(CheckConnectivity(private_addrs_[1], private_addrs_[1]));
}
TEST_F(TestNrSocketTest, NoConnectivityWithoutPinhole) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(1);
ASSERT_FALSE(CheckConnectivity(public_addrs_[0], private_addrs_[0]));
}
TEST_F(TestNrSocketTest, NoConnectivityBetweenSubnets) {
RefPtr<TestNat> nat1(CreatePrivateAddrs(1));
nat1->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat1->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
RefPtr<TestNat> nat2(CreatePrivateAddrs(1));
nat2->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat2->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
ASSERT_FALSE(CheckConnectivity(private_addrs_[0], private_addrs_[1]));
ASSERT_FALSE(CheckConnectivity(private_addrs_[1], private_addrs_[0]));
ASSERT_TRUE(CheckConnectivity(private_addrs_[0], private_addrs_[0]));
ASSERT_TRUE(CheckConnectivity(private_addrs_[1], private_addrs_[1]));
}
TEST_F(TestNrSocketTest, FullConeAcceptIngress) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(2);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
// Verify that other public IP can use the pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address));
}
TEST_F(TestNrSocketTest, FullConeOnePinhole) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(2);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
// Send traffic to other public IP, verify that it uses the same pinhole
nr_transport_addr sender_external_address2;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[1],
&sender_external_address2));
ASSERT_FALSE(nr_transport_addr_cmp(&sender_external_address,
&sender_external_address2,
NR_TRANSPORT_ADDR_CMP_MODE_ALL))
<< "addr1: " << sender_external_address.as_string << " addr2: "
<< sender_external_address2.as_string;
}
// OS 10.6 doesn't seem to allow us to open ports on 127.0.0.2, and while linux
// does allow this, it has other behavior (see below) that prevents this test
// from working.
TEST_F(TestNrSocketTest, DISABLED_AddressRestrictedCone) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::ADDRESS_DEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(2, "127.0.0.1");
CreatePublicAddrs(1, "127.0.0.2");
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
// Verify that another address on the same host can use the pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address));
// Linux has a tendency to monkey around with source addresses, doing
// stuff like substituting 127.0.0.1 for packets sent by 127.0.0.2, and even
// going as far as substituting localhost for a packet sent from a real IP
// address when the destination is localhost. The only way to make this test
// work on linux is to have two real IP addresses.
#ifndef __linux__
// Verify that an address on a different host can't use the pinhole
ASSERT_FALSE(CheckConnectivityVia(public_addrs_[2],
private_addrs_[0],
sender_external_address));
#endif
// Send traffic to other public IP, verify that it uses the same pinhole
nr_transport_addr sender_external_address2;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[1],
&sender_external_address2));
ASSERT_FALSE(nr_transport_addr_cmp(&sender_external_address,
&sender_external_address2,
NR_TRANSPORT_ADDR_CMP_MODE_ALL))
<< "addr1: " << sender_external_address.as_string << " addr2: "
<< sender_external_address2.as_string;
// Verify that the other public IP can now use the pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address2));
// Send traffic to other public IP, verify that it uses the same pinhole
nr_transport_addr sender_external_address3;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[2],
&sender_external_address3));
ASSERT_FALSE(nr_transport_addr_cmp(&sender_external_address,
&sender_external_address3,
NR_TRANSPORT_ADDR_CMP_MODE_ALL))
<< "addr1: " << sender_external_address.as_string << " addr2: "
<< sender_external_address3.as_string;
// Verify that the other public IP can now use the pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[2],
private_addrs_[0],
sender_external_address3));
}
TEST_F(TestNrSocketTest, RestrictedCone) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::PORT_DEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(2);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
// Verify that other public IP cannot use the pinhole
ASSERT_FALSE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address));
// Send traffic to other public IP, verify that it uses the same pinhole
nr_transport_addr sender_external_address2;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[1],
&sender_external_address2));
ASSERT_FALSE(nr_transport_addr_cmp(&sender_external_address,
&sender_external_address2,
NR_TRANSPORT_ADDR_CMP_MODE_ALL))
<< "addr1: " << sender_external_address.as_string << " addr2: "
<< sender_external_address2.as_string;
// Verify that the other public IP can now use the pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address2));
}
TEST_F(TestNrSocketTest, PortDependentMappingFullCone) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::PORT_DEPENDENT;
CreatePublicAddrs(2);
nr_transport_addr sender_external_address0;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address0));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address0));
// Verify that other public IP can use the pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address0));
// Send traffic to other public IP, verify that it uses a different pinhole
nr_transport_addr sender_external_address1;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[1],
&sender_external_address1));
ASSERT_TRUE(nr_transport_addr_cmp(&sender_external_address0,
&sender_external_address1,
NR_TRANSPORT_ADDR_CMP_MODE_ALL))
<< "addr1: " << sender_external_address0.as_string << " addr2: "
<< sender_external_address1.as_string;
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address1));
// Verify that other public IP can use the original pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address1));
}
TEST_F(TestNrSocketTest, Symmetric) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::PORT_DEPENDENT;
nat->mapping_type_ = TestNat::PORT_DEPENDENT;
CreatePublicAddrs(2);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
// Verify that other public IP cannot use the pinhole
ASSERT_FALSE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address));
// Send traffic to other public IP, verify that it uses a new pinhole
nr_transport_addr sender_external_address2;
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[1],
&sender_external_address2));
ASSERT_TRUE(nr_transport_addr_cmp(&sender_external_address,
&sender_external_address2,
NR_TRANSPORT_ADDR_CMP_MODE_ALL));
// Verify that the other public IP can use the new pinhole
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[1],
private_addrs_[0],
sender_external_address2));
}
TEST_F(TestNrSocketTest, BlockUdp) {
RefPtr<TestNat> nat(CreatePrivateAddrs(2));
nat->block_udp_ = true;
CreatePublicAddrs(1);
nr_transport_addr sender_external_address;
ASSERT_FALSE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Make sure UDP behind the NAT still works
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
private_addrs_[1]));
ASSERT_TRUE(CheckConnectivity(private_addrs_[1],
private_addrs_[0]));
}
TEST_F(TestNrSocketTest, DenyHairpinning) {
RefPtr<TestNat> nat(CreatePrivateAddrs(2));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(1);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that hairpinning is disallowed
ASSERT_FALSE(CheckConnectivityVia(private_addrs_[1],
private_addrs_[0],
sender_external_address));
}
TEST_F(TestNrSocketTest, AllowHairpinning) {
RefPtr<TestNat> nat(CreatePrivateAddrs(2));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_timeout_ = 30000;
nat->allow_hairpinning_ = true;
CreatePublicAddrs(1);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0, obtain external address
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that hairpinning is allowed
ASSERT_TRUE(CheckConnectivityVia(private_addrs_[1],
private_addrs_[0],
sender_external_address));
}
TEST_F(TestNrSocketTest, FullConeTimeout) {
RefPtr<TestNat> nat(CreatePrivateAddrs(1));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_timeout_ = 200;
CreatePublicAddrs(2);
nr_transport_addr sender_external_address;
// Open pinhole to public IP 0
ASSERT_TRUE(CheckConnectivity(private_addrs_[0],
public_addrs_[0],
&sender_external_address));
// Verify that return traffic works
ASSERT_TRUE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
PR_Sleep(201);
// Verify that return traffic does not work
ASSERT_FALSE(CheckConnectivityVia(public_addrs_[0],
private_addrs_[0],
sender_external_address));
}
TEST_F(TestNrSocketTest, PublicConnectivityTcp)
{
CreatePublicAddrs(2, "127.0.0.1", IPPROTO_TCP);
ASSERT_TRUE(CheckTcpConnectivity(public_addrs_[0], public_addrs_[1]));
}
TEST_F(TestNrSocketTest, PrivateConnectivityTcp) {
RefPtr<TestNat> nat(CreatePrivateAddrs(2, "127.0.0.1", IPPROTO_TCP));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
ASSERT_TRUE(CheckTcpConnectivity(private_addrs_[0], private_addrs_[1]));
}
TEST_F(TestNrSocketTest, PrivateToPublicConnectivityTcp)
{
RefPtr<TestNat> nat(CreatePrivateAddrs(1, "127.0.0.1", IPPROTO_TCP));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(1, "127.0.0.1", IPPROTO_TCP);
ASSERT_TRUE(CheckTcpConnectivity(private_addrs_[0], public_addrs_[0]));
}
TEST_F(TestNrSocketTest, NoConnectivityBetweenSubnetsTcp)
{
RefPtr<TestNat> nat1(CreatePrivateAddrs(1, "127.0.0.1", IPPROTO_TCP));
nat1->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat1->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
RefPtr<TestNat> nat2(CreatePrivateAddrs(1, "127.0.0.1", IPPROTO_TCP));
nat2->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat2->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
ASSERT_FALSE(CheckTcpConnectivity(private_addrs_[0], private_addrs_[1]));
}
TEST_F(TestNrSocketTest, NoConnectivityPublicToPrivateTcp)
{
RefPtr<TestNat> nat(CreatePrivateAddrs(1, "127.0.0.1", IPPROTO_TCP));
nat->filtering_type_ = TestNat::ENDPOINT_INDEPENDENT;
nat->mapping_type_ = TestNat::ENDPOINT_INDEPENDENT;
CreatePublicAddrs(1, "127.0.0.1", IPPROTO_TCP);
ASSERT_FALSE(CheckTcpConnectivity(public_addrs_[0], private_addrs_[0]));
}
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