Staging: sep: Fix the kernel-doc in SEP

The long blurb goes at the end

Signed-off-by: Alan Cox <alan@linux.intel.com>
Signed-off-by: Greg Kroah-Hartman <gregkh@suse.de>
This commit is contained in:
Alan Cox 2010-11-24 19:34:52 +00:00 коммит произвёл Greg Kroah-Hartman
Родитель 4c8e2a1f3d
Коммит d1bb83213d
1 изменённых файлов: 188 добавлений и 134 удалений

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@ -78,9 +78,10 @@ static struct sep_device *sep_dev;
/**
* sep_load_firmware - copy firmware cache/resident
* @sep: pointer to struct sep_device we are loading
*
* This functions copies the cache and resident from their source
* location into destination shared memory.
* @sep: pointer to struct sep_device
*/
static int sep_load_firmware(struct sep_device *sep)
@ -228,10 +229,11 @@ static void sep_unmap_and_free_shared_area(struct sep_device *sep)
/**
* sep_shared_bus_to_virt - convert bus/virt addresses
* Returns virtual address inside the shared area according
* to the bus address.
* @sep: pointer to struct sep_device
* @bus_address: address to convert
*
* Returns virtual address inside the shared area according
* to the bus address.
*/
static void *sep_shared_bus_to_virt(struct sep_device *sep,
@ -244,6 +246,8 @@ static void *sep_shared_bus_to_virt(struct sep_device *sep,
* open function for the singleton driver
* @inode_ptr struct inode *
* @file_ptr struct file *
*
* Called when the user opens the singleton device interface
*/
static int sep_singleton_open(struct inode *inode_ptr, struct file *file_ptr)
@ -252,8 +256,8 @@ static int sep_singleton_open(struct inode *inode_ptr, struct file *file_ptr)
struct sep_device *sep;
/**
* get the sep device structure and use it for the
/*
* Get the sep device structure and use it for the
* private_data field in filp for other methods
*/
sep = sep_dev;
@ -282,8 +286,7 @@ end_function:
* @filp: file handle to sep device
*
* Open method for the SEP device. Called when userspace opens
* the SEP device node. Must also release the memory data pool
* allocations.
* the SEP device node.
*
* Returns zero on success otherwise an error code.
*/
@ -292,8 +295,8 @@ static int sep_open(struct inode *inode, struct file *filp)
{
struct sep_device *sep;
/**
* get the sep device structure and use it for the
/*
* Get the sep device structure and use it for the
* private_data field in filp for other methods
*/
sep = sep_dev;
@ -301,7 +304,7 @@ static int sep_open(struct inode *inode, struct file *filp)
dev_dbg(&sep->pdev->dev, "Open for pid %d\n", current->pid);
/* anyone can open; locking takes place at transaction level */
/* Anyone can open; locking takes place at transaction level */
return 0;
}
@ -333,8 +336,7 @@ static int sep_singleton_release(struct inode *inode, struct file *filp)
* @filp: file handle to sep device
*
* Open method for the SEP request daemon. Called when
* request daemon in userspace opens
* the SEP device node.
* request daemon in userspace opens the SEP device node.
*
* Returns zero on success otherwise an error code.
*/
@ -385,9 +387,11 @@ static int sep_request_daemon_release(struct inode *inode, struct file *filp)
}
/**
* sep_req_daemon_send_reply_command_handler - poke the SEP
* @sep: struct sep_device *
*
* This function raises interrupt to SEPm that signals that is has a
* new command from HOST
* @sep: struct sep_device *
*/
static int sep_req_daemon_send_reply_command_handler(struct sep_device *sep)
{
@ -427,9 +431,10 @@ static int sep_req_daemon_send_reply_command_handler(struct sep_device *sep)
/**
* sep_free_dma_table_data_handler - handles the request
* for freeing dma table for synhronic actions
* sep_free_dma_table_data_handler - free DMA table
* @sep: pointere to struct sep_device
*
* Handles the request to free dma table for synchronic actions
*/
static int sep_free_dma_table_data_handler(struct sep_device *sep)
@ -531,10 +536,12 @@ static int sep_free_dma_table_data_handler(struct sep_device *sep)
/**
* sep_request_daemon_mmap - maps the
* shared area to user space
* sep_request_daemon_mmap - maps the shared area to user space
* @filp: pointer to struct file
* @vma: pointer to vm_area_struct
*
* Called by the kernel when the daemon attempts an mmap() syscall
* using our handle.
*/
static int sep_request_daemon_mmap(struct file *filp,
struct vm_area_struct *vma)
@ -577,10 +584,12 @@ end_function:
}
/**
* sep_request_daemon_poll -
* sep_request_daemon_poll - poll implementation
* @sep: struct sep_device * for current sep device
* @filp: struct file * for open file
* @wait: poll_table * for poll
*
* Called when our device is part of a poll() or select() syscall
*/
static unsigned int sep_request_daemon_poll(struct file *filp,
poll_table *wait)
@ -689,6 +698,8 @@ static int sep_release(struct inode *inode, struct file *filp)
* sep_mmap - maps the shared area to user space
* @filp: pointer to struct file
* @vma: pointer to vm_area_struct
*
* Called on an mmap of our space via the normal sep device
*/
static int sep_mmap(struct file *filp, struct vm_area_struct *vma)
{
@ -776,9 +787,12 @@ end_function:
}
/**
* sep_poll -
* sep_poll - poll handler
* @filp: pointer to struct file
* @wait: pointer to poll_table
*
* Called by the OS when the kernel is asked to do a poll on
* a SEP file handle.
*/
static unsigned int sep_poll(struct file *filp, poll_table *wait)
{
@ -792,7 +806,7 @@ static unsigned int sep_poll(struct file *filp, poll_table *wait)
dev_dbg(&sep->pdev->dev, "poll: start\n");
/* am I the process that own the transaction? */
/* Am I the process that owns the transaction? */
mutex_lock(&sep->sep_mutex);
if (current->pid != sep->pid_doing_transaction) {
dev_warn(&sep->pdev->dev, "poll; wrong pid\n");
@ -934,10 +948,12 @@ static unsigned long sep_set_time(struct sep_device *sep)
}
/**
* sep_set_caller_id_handler - inserts the data into the caller id table
* note that this function does fall under the ioctl lock
* sep_set_caller_id_handler - insert caller id entry
* @sep: sep device
* @arg: pointer to struct caller_id_struct
*
* Inserts the data into the caller id table. Note that this function
* falls under the ioctl lock
*/
static int sep_set_caller_id_handler(struct sep_device *sep, u32 arg)
{
@ -1003,9 +1019,11 @@ end_function:
}
/**
* sep_set_current_caller_id - set the caller id (if exists) to the sep
* note that this function does fall under the ioctl lock
* sep_set_current_caller_id - set the caller id
* @sep: pointer to struct_sep
*
* Set the caller ID (if it exists) to the sep. Note that this
* function falls under the ioctl lock
*/
static int sep_set_current_caller_id(struct sep_device *sep)
{
@ -1040,10 +1058,12 @@ static int sep_set_current_caller_id(struct sep_device *sep)
/**
* sep_send_command_handler - kick off a command
* note that this function does fall under the ioctl lock
* @sep: sep being signalled
*
* This function raises interrupt to SEP that signals that is has a new
* command from the host
* @sep: sep being signalled
*
* Note that this function does fall under the ioctl lock
*/
static int sep_send_command_handler(struct sep_device *sep)
@ -1085,14 +1105,15 @@ end_function:
}
/**
* sep_allocate_data_pool_memory_handler -
* sep_allocate_data_pool_memory_handler -allocate pool memory
* @sep: pointer to struct_sep
* @arg: pointer to struct alloc_struct
*
* This function handles the allocate data pool memory request
* This function returns calculates the bus address of the
* allocated memory, and the offset of this area from the mapped address.
* Therefore, the FVOs in user space can calculate the exact virtual
* address of this allocated memory
* @sep: pointer to struct_sep
* @arg: pointer to struct alloc_struct
*/
static int sep_allocate_data_pool_memory_handler(struct sep_device *sep,
unsigned long arg)
@ -1100,7 +1121,7 @@ static int sep_allocate_data_pool_memory_handler(struct sep_device *sep,
int error = 0;
struct alloc_struct command_args;
/* holds the allocated buffer address in the system memory pool */
/* Holds the allocated buffer address in the system memory pool */
u32 *token_addr;
dev_dbg(&sep->pdev->dev,
@ -1112,7 +1133,7 @@ static int sep_allocate_data_pool_memory_handler(struct sep_device *sep,
goto end_function;
}
/* allocate memory */
/* Allocate memory */
if ((sep->data_pool_bytes_allocated + command_args.num_bytes) >
SEP_DRIVER_DATA_POOL_SHARED_AREA_SIZE_IN_BYTES) {
error = -ENOMEM;
@ -1123,14 +1144,14 @@ static int sep_allocate_data_pool_memory_handler(struct sep_device *sep,
"bytes_allocated: %x\n", (int)sep->data_pool_bytes_allocated);
dev_dbg(&sep->pdev->dev,
"offset: %x\n", SEP_DRIVER_DATA_POOL_AREA_OFFSET_IN_BYTES);
/* set the virtual and bus address */
/* Set the virtual and bus address */
command_args.offset = SEP_DRIVER_DATA_POOL_AREA_OFFSET_IN_BYTES +
sep->data_pool_bytes_allocated;
dev_dbg(&sep->pdev->dev,
"command_args.offset: %x\n", command_args.offset);
/* place in the shared area that is known by the sep */
/* Place in the shared area that is known by the sep */
token_addr = (u32 *)(sep->shared_addr +
SEP_DRIVER_DATA_POOL_ALLOCATION_OFFSET_IN_BYTES +
(sep->num_of_data_allocations)*2*sizeof(u32));
@ -1148,7 +1169,7 @@ static int sep_allocate_data_pool_memory_handler(struct sep_device *sep,
dev_dbg(&sep->pdev->dev, "data pool token [0] %x\n", token_addr[0]);
dev_dbg(&sep->pdev->dev, "data pool token [1] %x\n", token_addr[1]);
/* write the memory back to the user space */
/* Write the memory back to the user space */
error = copy_to_user((void *)arg, (void *)&command_args,
sizeof(struct alloc_struct));
if (error) {
@ -1175,17 +1196,18 @@ end_function:
}
/**
* sep_lock_kernel_pages -
* This function locks all the physical pages of the kernel virtual buffer
* and construct a basic lli array, where each entry holds the physical
* page address and the size that application data holds in this page
* This function is used only during kernel crypto mod calls from within
* the kernel (when ioctl is not used)
* sep_lock_kernel_pages - map kernel pages for DMA
* @sep: pointer to struct sep_device
* @kernel_virt_addr: address of data buffer in kernel
* @data_size: size of data
* @lli_array_ptr: lli array
* @in_out_flag: input into device or output from device
*
* This function locks all the physical pages of the kernel virtual buffer
* and construct a basic lli array, where each entry holds the physical
* page address and the size that application data holds in this page
* This function is used only during kernel crypto mod calls from within
* the kernel (when ioctl is not used)
*/
static int sep_lock_kernel_pages(struct sep_device *sep,
u32 kernel_virt_addr,
@ -1273,16 +1295,17 @@ end_function:
}
/**
* sep_lock_user_pages -
* This function locks all the physical pages of the application
* virtual buffer and construct a basic lli array, where each entry
* holds the physical page address and the size that application
* data holds in this physical pages
* sep_lock_user_pages - lock and map user pages for DMA
* @sep: pointer to struct sep_device
* @app_virt_addr: user memory data buffer
* @data_size: size of data buffer
* @lli_array_ptr: lli array
* @in_out_flag: input or output to device
*
* This function locks all the physical pages of the application
* virtual buffer and construct a basic lli array, where each entry
* holds the physical page address and the size that application
* data holds in this physical pages
*/
static int sep_lock_user_pages(struct sep_device *sep,
u32 app_virt_addr,
@ -1505,17 +1528,16 @@ end_function:
}
/**
* u32 sep_calculate_lli_table_max_size -
* this function calculates the size of data
* that can be inserted into the lli
* table from this array the condition is that
* either the table is full
* (all etnries are entered), or there are no more
* entries in the lli array
* u32 sep_calculate_lli_table_max_size - size the LLI table
* @sep: pointer to struct sep_device
* @lli_in_array_ptr
* @num_array_entries
* @last_table_flag
*
* This function calculates the size of data that can be inserted into
* the lli table from this array, such that either the table is full
* (all entries are entered), or there are no more entries in the
* lli array
*/
static u32 sep_calculate_lli_table_max_size(struct sep_device *sep,
struct sep_lli_entry *lli_in_array_ptr,
@ -1590,15 +1612,16 @@ end_function:
}
/**
* sep_build_lli_table -
* this functions builds ont lli table from the lli_array according to
* the given size of data
* sep_build_lli_table - build an lli array for the given table
* @sep: pointer to struct sep_device
* @lli_array_ptr: pointer to lli array
* @lli_table_ptr: pointer to lli table
* @num_processed_entries_ptr: pointer to number of entries
* @num_table_entries_ptr: pointer to number of tables
* @table_data_size: total data size
*
* Builds ant lli table from the lli_array according to
* the given size of data
*/
static void sep_build_lli_table(struct sep_device *sep,
struct sep_lli_entry *lli_array_ptr,
@ -1707,13 +1730,14 @@ static void sep_build_lli_table(struct sep_device *sep,
}
/**
* sep_shared_area_virt_to_bus -
* sep_shared_area_virt_to_bus - map shared area to bus address
* @sep: pointer to struct sep_device
* @virt_address: virtual address to convert
*
* This functions returns the physical address inside shared area according
* to the virtual address. It can be either on the externa RAM device
* (ioremapped), or on the system RAM
* This implementation is for the external RAM
* @sep: pointer to struct sep_device
* @virt_address: virtual address to convert
*/
static dma_addr_t sep_shared_area_virt_to_bus(struct sep_device *sep,
void *virt_address)
@ -1731,13 +1755,14 @@ static dma_addr_t sep_shared_area_virt_to_bus(struct sep_device *sep,
}
/**
* sep_shared_area_bus_to_virt -
* sep_shared_area_bus_to_virt - map shared area bus address to kernel
* @sep: pointer to struct sep_device
* @bus_address: bus address to convert
*
* This functions returns the virtual address inside shared area
* according to the physical address. It can be either on the
* externa RAM device (ioremapped), or on the system RAM
* This implementation is for the external RAM
* @sep: pointer to struct sep_device
* @bus_address: bus address to convert
*/
static void *sep_shared_area_bus_to_virt(struct sep_device *sep,
@ -1754,13 +1779,13 @@ static void *sep_shared_area_bus_to_virt(struct sep_device *sep,
}
/**
* sep_debug_print_lli_tables -
* this function goes over the list of the print created tables and
* prints all the data
* sep_debug_print_lli_tables - dump LLI table
* @sep: pointer to struct sep_device
* @lli_table_ptr: pointer to sep_lli_entry
* @num_table_entries: number of entries
* @table_data_size: total data size
*
* Walk the the list of the print created tables and print all the data
*/
static void sep_debug_print_lli_tables(struct sep_device *sep,
struct sep_lli_entry *lli_table_ptr,
@ -1831,12 +1856,14 @@ static void sep_debug_print_lli_tables(struct sep_device *sep,
/**
* sep_prepare_empty_lli_table -
* This function creates empty lli tables when there is no data
* sep_prepare_empty_lli_table - create a blank LLI table
* @sep: pointer to struct sep_device
* @lli_table_addr_ptr: pointer to lli table
* @num_entries_ptr: pointer to number of entries
* @table_data_size_ptr: point to table data size
*
* This function creates empty lli tables when there is no data
*/
static void sep_prepare_empty_lli_table(struct sep_device *sep,
dma_addr_t *lli_table_addr_ptr,
@ -1881,11 +1908,7 @@ static void sep_prepare_empty_lli_table(struct sep_device *sep,
}
/**
* sep_prepare_input_dma_table -
* This function prepares only input DMA table for synhronic symmetric
* operations (HASH)
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
* sep_prepare_input_dma_table - prepare input DMA mappings
* @sep: pointer to struct sep_device
* @data_size:
* @block_size:
@ -1893,6 +1916,11 @@ static void sep_prepare_empty_lli_table(struct sep_device *sep,
* @num_entries_ptr:
* @table_data_size_ptr:
* @is_kva: set for kernel data (kernel cryptio call)
*
* This function prepares only input DMA table for synhronic symmetric
* operations (HASH)
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
*/
static int sep_prepare_input_dma_table(struct sep_device *sep,
unsigned long app_virt_addr,
@ -2099,12 +2127,7 @@ end_function:
}
/**
* sep_construct_dma_tables_from_lli -
* This function creates the input and output dma tables for
* symmetric operations (AES/DES) according to the block
* size from LLI arays
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
* sep_construct_dma_tables_from_lli - prepare AES/DES mappings
* @sep: pointer to struct_sep
* @lli_in_array:
* @sep_in_lli_entries:
@ -2116,6 +2139,12 @@ end_function:
* @in_num_entries_ptr
* @out_num_entries_ptr
* @table_data_size_ptr
*
* This function creates the input and output dma tables for
* symmetric operations (AES/DES) according to the block
* size from LLI arays
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
*/
static int sep_construct_dma_tables_from_lli(
struct sep_device *sep,
@ -2358,12 +2387,7 @@ static int sep_construct_dma_tables_from_lli(
}
/**
* sep_prepare_input_output_dma_table -
* This function builds input and output DMA tables for synhronic
* symmetric operations (AES, DES, HASH). It also checks that each table
* is of the modular block size
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
* sep_prepare_input_output_dma_table - prepare DMA I/O table
* @app_virt_in_addr:
* @app_virt_out_addr:
* @data_size:
@ -2374,6 +2398,12 @@ static int sep_construct_dma_tables_from_lli(
* @out_num_entries_ptr:
* @table_data_size_ptr:
* @is_kva: set for kernel data; used only for kernel crypto module
*
* This function builds input and output DMA tables for synhronic
* symmetric operations (AES, DES, HASH). It also checks that each table
* is of the modular block size
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
*/
static int sep_prepare_input_output_dma_table(struct sep_device *sep,
unsigned long app_virt_in_addr,
@ -2522,12 +2552,7 @@ end_function:
}
/**
* sep_prepare_input_output_dma_table_in_dcb -
* This function prepares the linked dma tables and puts the
* address for the linked list of tables inta a dcb (data control
* block) the address of which is known by the sep hardware
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
* sep_prepare_input_output_dma_table_in_dcb - prepare control blocks
* @app_in_address: unsigned long; for data buffer in (user space)
* @app_out_address: unsigned long; for data buffer out (user space)
* @data_in_size: u32; for size of data
@ -2535,6 +2560,12 @@ end_function:
* @tail_block_size: u32; for size of tail block
* @isapplet: bool; to indicate external app
* @is_kva: bool; kernel buffer; only used for kernel crypto module
*
* This function prepares the linked dma tables and puts the
* address for the linked list of tables inta a dcb (data control
* block) the address of which is known by the sep hardware
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
*/
static int sep_prepare_input_output_dma_table_in_dcb(struct sep_device *sep,
u32 app_in_address,
@ -2737,14 +2768,14 @@ end_function:
/**
* sep_create_sync_dma_tables_handler -
* this function handles tha request for creation of the DMA table
* for the synchronic symmetric operations (AES,DES)
* Note that all bus addresses that are passed to the sep
* are in 32 bit format; the SEP is a 32 bit device
* sep_create_sync_dma_tables_handler - create sync dma tables
* @sep: pointer to struct sep_device
* @arg: pointer to struct bld_syn_tab_struct
*/
*
* Handle the request for creation of the DMA tables for the synchronic
* symmetric operations (AES,DES). Note that all bus addresses that are
* passed to the SEP are in 32 bit format; the SEP is a 32 bit device
*/
static int sep_create_sync_dma_tables_handler(struct sep_device *sep,
unsigned long arg)
{
@ -2799,11 +2830,12 @@ end_function:
}
/**
* sep_free_dma_tables_and_dcb -
* This function frees the dma tables and dcb block
* sep_free_dma_tables_and_dcb - free DMA tables and DCBs
* @sep: pointer to struct sep_device
* @isapplet: indicates external application (used for kernel access)
* @is_kva: indicates kernel addresses (only used for kernel crypto)
*
* This function frees the dma tables and dcb block
*/
static int sep_free_dma_tables_and_dcb(struct sep_device *sep, bool isapplet,
bool is_kva)
@ -2858,11 +2890,12 @@ static int sep_free_dma_tables_and_dcb(struct sep_device *sep, bool isapplet,
}
/**
* sep_get_static_pool_addr_handler -
* this function sets the bus and virtual addresses of the static pool
* and returns the virtual address
* sep_get_static_pool_addr_handler - get static pool address
* @sep: pointer to struct sep_device
* @arg: parameters from user space application
*
* This function sets the bus and virtual addresses of the static pool
* and returns the virtual address
*/
static int sep_get_static_pool_addr_handler(struct sep_device *sep,
unsigned long arg)
@ -2901,8 +2934,7 @@ static int sep_get_static_pool_addr_handler(struct sep_device *sep,
}
/**
* sep_start_handler -
* This function starts the sep device
* sep_start_handler - start device
* @sep: pointer to struct sep_device
*/
static int sep_start_handler(struct sep_device *sep)
@ -2926,11 +2958,12 @@ static int sep_start_handler(struct sep_device *sep)
}
/**
* ep_check_sum_calc -
* This function performs a checsum for messages that are sent
* ep_check_sum_calc - checksum messages
* @data: buffer to checksum
* @length: buffer size
*
* This function performs a checksum for messages that are sent
* to the sep
* @data:
* @length:
*/
static u32 sep_check_sum_calc(u8 *data, u32 length)
{
@ -2956,17 +2989,18 @@ static u32 sep_check_sum_calc(u8 *data, u32 length)
/**
* sep_init_handler -
* this function handles the request for SEP initialization
* @sep: pointer to struct sep_device
* @arg: parameters from user space application
*
* Handles the request for SEP initialization
* Note that this will go away for Medfield once the SCU
* SEP initialization is complete
* Also note that the message to the sep has components
* from user space as well as components written by the driver
* This is becuase the portions of the message that partain to
* This is becuase the portions of the message that pertain to
* physical addresses must be set by the driver after the message
* leaves custody of the user space application for security
* reasons.
* @sep: pointer to struct sep_device
* @arg: parameters from user space application
*/
static int sep_init_handler(struct sep_device *sep, unsigned long arg)
{
@ -3127,9 +3161,10 @@ end_function:
}
/**
* sep_end_transaction_handler -
* This API handles the end transaction request
* sep_end_transaction_handler - end transaction
* @sep: pointer to struct sep_device
*
* This API handles the end transaction request
*/
static int sep_end_transaction_handler(struct sep_device *sep)
{
@ -3163,11 +3198,12 @@ static int sep_end_transaction_handler(struct sep_device *sep)
}
/**
* sep_prepare_dcb_handler -
* This function will retrieve the RAR buffer physical addresses, type
* & size corresponding to the RAR handles provided in the buffers vector.
* sep_prepare_dcb_handler - prepare a control block
* @sep: pointer to struct sep_device
* @arg: pointer to user parameters
*
* This function will retrieve the RAR buffer physical addresses, type
* & size corresponding to the RAR handles provided in the buffers vector.
*/
static int sep_prepare_dcb_handler(struct sep_device *sep, unsigned long arg)
@ -3211,10 +3247,11 @@ end_function:
}
/**
* sep_free_dcb_handler -
* this function frees the DCB resources
* and updates the needed user-space buffers
* sep_free_dcb_handler - free control block resources
* @sep: pointer to struct sep_device
*
* This function frees the DCB resources and updates the needed
* user-space buffers.
*/
static int sep_free_dcb_handler(struct sep_device *sep)
{
@ -3230,11 +3267,12 @@ static int sep_free_dcb_handler(struct sep_device *sep)
}
/**
* sep_rar_prepare_output_msg_handler -
* This function will retrieve the RAR buffer physical addresses, type
* & size corresponding to the RAR handles provided in the buffers vector.
* sep_rar_prepare_output_msg_handler - prepare an output message
* @sep: pointer to struct sep_device
* @arg: pointer to user parameters
*
* This function will retrieve the RAR buffer physical addresses, type
* & size corresponding to the RAR handles provided in the buffers vector.
*/
static int sep_rar_prepare_output_msg_handler(struct sep_device *sep,
@ -3300,10 +3338,11 @@ end_function:
}
/**
* sep_realloc_ext_cache_handler -
* This function tells the sep where the extapp is located
* sep_realloc_ext_cache_handler - report location of extcache
* @sep: pointer to struct sep_device
* @arg: pointer to user parameters
*
* This function tells the sep where the extapp is located
*/
static int sep_realloc_ext_cache_handler(struct sep_device *sep,
unsigned long arg)
@ -3332,6 +3371,8 @@ static int sep_realloc_ext_cache_handler(struct sep_device *sep,
* @filp: pointer to struct file
* @cmd: command
* @arg: pointer to argument structure
*
* Implement the ioctl methods availble on the SEP device.
*/
static long sep_ioctl(struct file *filp, unsigned int cmd, unsigned long arg)
{
@ -3462,6 +3503,8 @@ end_function:
* @filp: pointer to struct file
* @cmd: command
* @arg: pointer to argument structure
*
* Implement the additional ioctls for the singleton device
*/
static long sep_singleton_ioctl(struct file *filp, u32 cmd, unsigned long arg)
{
@ -3522,6 +3565,7 @@ end_function:
* @filp: pointer to struct file
* @cmd: command
* @arg: pointer to argument structure
*
* Called by the request daemon to perform ioctls on the daemon device
*/
@ -3643,10 +3687,11 @@ static irqreturn_t sep_inthandler(int irq, void *dev_id)
}
/**
* sep_callback -
* sep_callback - RAR callback
* @sep_context_pointer: pointer to struct sep_device
*
* Function that is called by rar_register when it is ready with
* a region (only for Moorestown)
* @sep_context_pointer: pointer to struct sep_device
*/
static int sep_callback(unsigned long sep_context_pointer)
{
@ -3696,10 +3741,12 @@ end_function:
}
/**
* sep_probe -
* Function that is activated on the successful probe of the SEP device
* sep_probe - probe a matching PCI device
* @pdev: pci_device
* @end: pci_device_id
*
* Attempt to set up and configure a SEP device that has been
* discovered by the PCI layer.
*/
static int __devinit sep_probe(struct pci_dev *pdev,
const struct pci_device_id *ent)
@ -3904,10 +3951,11 @@ static const struct file_operations sep_file_operations = {
};
/**
* sep_reconfig_shared_area -
* reconfig the shared area between HOST and SEP - needed in case
* the DX_CC_Init function was called before OS loading
* sep_reconfig_shared_area - reconfigure shared area
* @sep: pointer to struct sep_device
*
* Reconfig the shared area between HOST and SEP - needed in case
* the DX_CC_Init function was called before OS loading.
*/
static int sep_reconfig_shared_area(struct sep_device *sep)
{
@ -3948,9 +3996,10 @@ static int sep_reconfig_shared_area(struct sep_device *sep)
}
/**
* sep_register_driver_to_fs -
* This function registers the driver to the file system
* sep_register_driver_to_fs - register misc devices
* @sep: pointer to struct sep_device
*
* This function registers the driver to the file system
*/
static int sep_register_driver_to_fs(struct sep_device *sep)
{
@ -4000,7 +4049,9 @@ static int sep_register_driver_to_fs(struct sep_device *sep)
}
/**
* sep_init - init function; this is the first thing called on boot
* sep_init - init function
*
* Module load time. Register the PCI device driver.
*/
static int __init sep_init(void)
{
@ -4051,7 +4102,10 @@ end_function:
/**
* sep_exit - called to unload driver (never called on static compile)
* sep_exit - called to unload driver
*
* Drop the misc devices then remove and unmap the various resources
* that are not released by the driver remove method.
*/
static void __exit sep_exit(void)
{