Staging: sep: indent pass

Ok time to indent and get the code in vague shape. No other changes in this
patch.

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 2009-08-06 20:45:57 +01:00 committed by Greg Kroah-Hartman
parent 46eb5a13b7
commit d19cf32fdd
6 changed files with 1987 additions and 2612 deletions

View file

@ -121,9 +121,8 @@ static inline void sep_wait_sram_write(struct sep_device *dev)
u32 reg_val;
do
reg_val = sep_read_reg(dev, HW_SRAM_DATA_READY_REG_ADDR);
while(!(reg_val & 1));
while (!(reg_val & 1));
}
#endif

View file

@ -125,13 +125,13 @@ struct sep_driver_realloc_cache_resident_t {
/* current cache address */
unsigned long cache_addr;
/* cache size in bytes*/
/* cache size in bytes */
unsigned long cache_size_in_bytes;
/* current resident address */
unsigned long resident_addr;
/* resident size in bytes*/
/* resident size in bytes */
unsigned long resident_size_in_bytes;
/* new cache address */
@ -374,7 +374,7 @@ struct sep_lli_prepare_table_data_t {
*/
struct sep_lli_table_t {
/* number of pages mapped in this tables. If 0 - means that the table
is not defined (used as a valid flag)*/
is not defined (used as a valid flag) */
unsigned long num_pages;
/*
pointer to array of page pointers that represent the mapping of the
@ -478,26 +478,18 @@ void sep_send_msg_rdy_cmd(void);
This function releases all the application virtual
buffer physical pages, that were previously locked
*/
int sep_free_dma_pages(struct page **page_array_ptr,
unsigned long num_pages,
unsigned long dirtyFlag);
int sep_free_dma_pages(struct page **page_array_ptr, unsigned long num_pages, unsigned long dirtyFlag);
/*
This function creates the input and output dma tables for
symmetric operations (AES/DES) according to the block size
from LLI arays
*/
int sep_construct_dma_tables_from_lli(
struct sep_lli_entry_t *lli_in_array,
int sep_construct_dma_tables_from_lli(struct sep_lli_entry_t *lli_in_array,
unsigned long sep_in_lli_entries,
struct sep_lli_entry_t *lli_out_array,
unsigned long sep_out_lli_entries,
unsigned long block_size,
unsigned long *lli_table_in_ptr,
unsigned long *lli_table_out_ptr,
unsigned long *in_num_entries_ptr,
unsigned long *out_num_entries_ptr,
unsigned long *table_data_size_ptr);
unsigned long block_size, unsigned long *lli_table_in_ptr, unsigned long *lli_table_out_ptr, unsigned long *in_num_entries_ptr, unsigned long *out_num_entries_ptr, unsigned long *table_data_size_ptr);
/*
This function builds input and output DMA tables for synhronic symmetric
@ -508,24 +500,13 @@ int sep_prepare_input_output_dma_table(unsigned long app_virt_in_addr,
unsigned long app_virt_out_addr,
unsigned long data_size,
unsigned long block_size,
unsigned long *lli_table_in_ptr,
unsigned long *lli_table_out_ptr,
unsigned long *in_num_entries_ptr,
unsigned long *out_num_entries_ptr,
unsigned long *table_data_size_ptr,
bool isKernelVirtualAddress);
unsigned long *lli_table_in_ptr, unsigned long *lli_table_out_ptr, unsigned long *in_num_entries_ptr, unsigned long *out_num_entries_ptr, unsigned long *table_data_size_ptr, bool isKernelVirtualAddress);
/*
This function prepares only input DMA table for synhronic symmetric
operations (HASH)
*/
int sep_prepare_input_dma_table(unsigned long app_virt_addr,
unsigned long data_size,
unsigned long block_size,
unsigned long *lli_table_ptr,
unsigned long *num_entries_ptr,
unsigned long *table_data_size_ptr,
bool isKernelVirtualAddress);
int sep_prepare_input_dma_table(unsigned long app_virt_addr, unsigned long data_size, unsigned long block_size, unsigned long *lli_table_ptr, unsigned long *num_entries_ptr, unsigned long *table_data_size_ptr, bool isKernelVirtualAddress);
/* this functions frees all the resources that were allocated for the building
of the LLI DMA tables */

View file

@ -51,12 +51,7 @@ This functions copies the cache and resident from their source location into
destination memory, which is external to Linux VM and is given as physical
address
*/
int sep_copy_cache_resident_to_area(unsigned long src_cache_addr,
unsigned long cache_size_in_bytes,
unsigned long src_resident_addr,
unsigned long resident_size_in_bytes,
unsigned long *dst_new_cache_addr_ptr,
unsigned long *dst_new_resident_addr_ptr);
int sep_copy_cache_resident_to_area(unsigned long src_cache_addr, unsigned long cache_size_in_bytes, unsigned long src_resident_addr, unsigned long resident_size_in_bytes, unsigned long *dst_new_cache_addr_ptr, unsigned long *dst_new_resident_addr_ptr);
/*
This functions maps and allocates the shared area on the external
@ -65,9 +60,7 @@ to allocate. The outputs are kernel_shared_area_addr_ptr - the kerenl
address of the mapped and allocated shared area, and
phys_shared_area_addr_ptr - the physical address of the shared area
*/
int sep_map_and_alloc_shared_area(unsigned long shared_area_size,
unsigned long *kernel_shared_area_addr_ptr,
unsigned long *phys_shared_area_addr_ptr);
int sep_map_and_alloc_shared_area(unsigned long shared_area_size, unsigned long *kernel_shared_area_addr_ptr, unsigned long *phys_shared_area_addr_ptr);
/*
This functions unmaps and deallocates the shared area on the external
@ -76,9 +69,7 @@ deallocate,kernel_shared_area_addr_ptr - the kernel address of the
mapped and allocated shared area,phys_shared_area_addr_ptr - the physical
address of the shared area
*/
void sep_unmap_and_free_shared_area(unsigned long shared_area_size,
unsigned long kernel_shared_area_addr,
unsigned long phys_shared_area_addr);
void sep_unmap_and_free_shared_area(unsigned long shared_area_size, unsigned long kernel_shared_area_addr, unsigned long phys_shared_area_addr);
/*

View file

@ -90,7 +90,7 @@ static unsigned long CRYS_SEP_ROM[] = {
#define BASE_ADDRESS_FOR_SYSTEM 0xfffc0000
#define SEP_RAR_IO_MEM_REGION_SIZE 0x40000
irqreturn_t sep_inthandler(int irq , void* dev_id);
irqreturn_t sep_inthandler(int irq, void *dev_id);
/* Keep this a single static object for now to keep the conversion easy */
@ -107,12 +107,11 @@ unsigned long jiffies_future;
/*
function that is activated on the succesfull probe of the SEP device
*/
static int __devinit sep_probe(struct pci_dev *pdev,
const struct pci_device_id *ent);
static int __devinit sep_probe(struct pci_dev *pdev, const struct pci_device_id *ent);
static struct pci_device_id sep_pci_id_tbl[] = {
{ PCI_DEVICE(PCI_VENDOR_ID_INTEL, 0x080c) },
{ 0 }
{PCI_DEVICE(PCI_VENDOR_ID_INTEL, 0x080c)},
{0}
};
MODULE_DEVICE_TABLE(pci, sep_pci_id_tbl);
@ -141,12 +140,7 @@ void sep_lock_cache_resident_area(void)
destination memory, which is external to Linux VM and is given as
physical address
*/
int sep_copy_cache_resident_to_area(unsigned long src_cache_addr,
unsigned long cache_size_in_bytes,
unsigned long src_resident_addr,
unsigned long resident_size_in_bytes,
unsigned long *dst_new_cache_addr_ptr,
unsigned long *dst_new_resident_addr_ptr)
int sep_copy_cache_resident_to_area(unsigned long src_cache_addr, unsigned long cache_size_in_bytes, unsigned long src_resident_addr, unsigned long resident_size_in_bytes, unsigned long *dst_new_cache_addr_ptr, unsigned long *dst_new_resident_addr_ptr)
{
/* resident address in user space */
unsigned long resident_addr;
@ -167,14 +161,10 @@ int sep_copy_cache_resident_to_area(unsigned long src_cache_addr,
-------------------------------------*/
error = 0;
edbg(
"SEP Driver:rar_virtual is %p\n",
sep_dev->rar_virtual_address);
edbg(
"SEP Driver:rar_physical is %08lx\n",
sep_dev->rar_physical_address);
edbg("SEP Driver:rar_virtual is %p\n", sep_dev->rar_virtual_address);
edbg("SEP Driver:rar_physical is %08lx\n", sep_dev->rar_physical_address);
sep_dev->rar_region_addr = (unsigned long)sep_dev->rar_virtual_address;
sep_dev->rar_region_addr = (unsigned long) sep_dev->rar_virtual_address;
sep_dev->cache_physical_address = sep_dev->rar_physical_address;
sep_dev->cache_virtual_address = sep_dev->rar_virtual_address;
@ -182,72 +172,50 @@ int sep_copy_cache_resident_to_area(unsigned long src_cache_addr,
/* load cache */
error = request_firmware(&fw, cache_name, &sep_dev->sep_pci_dev_ptr->dev);
if (error) {
edbg(
"SEP Driver:cant request cache fw\n");
edbg("SEP Driver:cant request cache fw\n");
goto end_function;
}
edbg(
"SEP Driver:cache data loc is %p\n",
(void *)fw->data);
edbg(
"SEP Driver:cache data size is %08Zx\n",
fw->size);
edbg("SEP Driver:cache data loc is %p\n", (void *) fw->data);
edbg("SEP Driver:cache data size is %08Zx\n", fw->size);
memcpy((void *)sep_dev->cache_virtual_address, (void *)fw->data, fw->size);
memcpy((void *) sep_dev->cache_virtual_address, (void *) fw->data, fw->size);
sep_dev->cache_size = fw->size;
cache_addr = (unsigned long)sep_dev->cache_virtual_address;
cache_addr = (unsigned long) sep_dev->cache_virtual_address;
release_firmware(fw);
sep_dev->resident_physical_address = sep_dev->cache_physical_address
+ sep_dev->cache_size;
sep_dev->resident_virtual_address = sep_dev->cache_virtual_address
+ sep_dev->cache_size;
sep_dev->resident_physical_address = sep_dev->cache_physical_address + sep_dev->cache_size;
sep_dev->resident_virtual_address = sep_dev->cache_virtual_address + sep_dev->cache_size;
/* load resident */
error = request_firmware(&fw, res_name, &sep_dev->sep_pci_dev_ptr->dev);
if (error) {
edbg(
"SEP Driver:cant request res fw\n");
edbg("SEP Driver:cant request res fw\n");
goto end_function;
}
edbg(
"SEP Driver:res data loc is %p\n",
(void *)fw->data);
edbg(
"SEP Driver:res data size is %08Zx\n",
fw->size);
edbg("SEP Driver:res data loc is %p\n", (void *) fw->data);
edbg("SEP Driver:res data size is %08Zx\n", fw->size);
memcpy((void *)sep_dev->resident_virtual_address, (void *)fw->data, fw->size);
memcpy((void *) sep_dev->resident_virtual_address, (void *) fw->data, fw->size);
sep_dev->resident_size = fw->size;
release_firmware(fw);
resident_addr = (unsigned long)sep_dev->resident_virtual_address;
resident_addr = (unsigned long) sep_dev->resident_virtual_address;
edbg(
"SEP Driver:resident_addr (physical )is %08lx\n",
sep_dev->resident_physical_address);
edbg(
"SEP Driver:cache_addr (physical) is %08lx\n",
sep_dev->cache_physical_address);
edbg("SEP Driver:resident_addr (physical )is %08lx\n", sep_dev->resident_physical_address);
edbg("SEP Driver:cache_addr (physical) is %08lx\n", sep_dev->cache_physical_address);
edbg(
"SEP Driver:resident_addr (logical )is %08lx\n",
resident_addr);
edbg(
"SEP Driver:cache_addr (logical) is %08lx\n",
cache_addr);
edbg("SEP Driver:resident_addr (logical )is %08lx\n", resident_addr);
edbg("SEP Driver:cache_addr (logical) is %08lx\n", cache_addr);
edbg(
"SEP Driver:resident_size is %08lx\n", sep_dev->resident_size);
edbg(
"SEP Driver:cache_size is %08lx\n", sep_dev->cache_size);
edbg("SEP Driver:resident_size is %08lx\n", sep_dev->resident_size);
edbg("SEP Driver:cache_size is %08lx\n", sep_dev->cache_size);
@ -255,7 +223,7 @@ int sep_copy_cache_resident_to_area(unsigned long src_cache_addr,
*dst_new_cache_addr_ptr = sep_dev->cache_physical_address;
*dst_new_resident_addr_ptr = sep_dev->resident_physical_address;
end_function:
end_function:
return error;
}
@ -270,15 +238,12 @@ end_function:
shared area, and phys_shared_area_addr_ptr
- the physical address of the shared area
*/
int sep_map_and_alloc_shared_area(unsigned long shared_area_size,
unsigned long *kernel_shared_area_addr_ptr,
unsigned long *phys_shared_area_addr_ptr)
int sep_map_and_alloc_shared_area(unsigned long shared_area_size, unsigned long *kernel_shared_area_addr_ptr, unsigned long *phys_shared_area_addr_ptr)
{
// shared_virtual_address = ioremap_nocache(0xda00000,shared_area_size);
sep_dev->shared_virtual_address = kmalloc(shared_area_size, GFP_KERNEL);
if (!sep_dev->shared_virtual_address) {
edbg(
"sep_driver:shared memory kmalloc failed\n");
edbg("sep_driver:shared memory kmalloc failed\n");
return -1;
}
@ -286,19 +251,13 @@ int sep_map_and_alloc_shared_area(unsigned long shared_area_size,
sep_dev->shared_physical_address = __pa(sep_dev->shared_virtual_address);
// shared_physical_address = 0xda00000;
*kernel_shared_area_addr_ptr = (unsigned long)sep_dev->shared_virtual_address;
*kernel_shared_area_addr_ptr = (unsigned long) sep_dev->shared_virtual_address;
/* set the physical address of the shared area */
*phys_shared_area_addr_ptr = sep_dev->shared_physical_address;
edbg(
"SEP Driver:shared_virtual_address is %p\n",
sep_dev->shared_virtual_address);
edbg(
"SEP Driver:shared_region_size is %08lx\n",
shared_area_size);
edbg(
"SEP Driver:shared_physical_addr is %08lx\n",
*phys_shared_area_addr_ptr);
edbg("SEP Driver:shared_virtual_address is %p\n", sep_dev->shared_virtual_address);
edbg("SEP Driver:shared_region_size is %08lx\n", shared_area_size);
edbg("SEP Driver:shared_physical_addr is %08lx\n", *phys_shared_area_addr_ptr);
return 0;
}
@ -311,11 +270,9 @@ int sep_map_and_alloc_shared_area(unsigned long shared_area_size,
shared area,phys_shared_area_addr_ptr - the physical address of
the shared area
*/
void sep_unmap_and_free_shared_area(unsigned long shared_area_size,
unsigned long kernel_shared_area_addr,
unsigned long phys_shared_area_addr)
void sep_unmap_and_free_shared_area(unsigned long shared_area_size, unsigned long kernel_shared_area_addr, unsigned long phys_shared_area_addr)
{
kfree((void *)kernel_shared_area_addr);
kfree((void *) kernel_shared_area_addr);
return;
}
@ -327,16 +284,10 @@ void sep_unmap_and_free_shared_area(unsigned long shared_area_size,
*/
unsigned long sep_shared_area_virt_to_phys(unsigned long virt_address)
{
edbg(
"SEP Driver:sh virt to phys v %08lx\n",
virt_address);
edbg(
"SEP Driver:sh virt to phys p %08lx\n",
sep_dev->shared_physical_address
+ (virt_address - (unsigned long)sep_dev->shared_virtual_address));
edbg("SEP Driver:sh virt to phys v %08lx\n", virt_address);
edbg("SEP Driver:sh virt to phys p %08lx\n", sep_dev->shared_physical_address + (virt_address - (unsigned long) sep_dev->shared_virtual_address));
return (unsigned long)sep_dev->shared_physical_address +
(virt_address - (unsigned long)sep_dev->shared_virtual_address);
return (unsigned long) sep_dev->shared_physical_address + (virt_address - (unsigned long) sep_dev->shared_virtual_address);
}
/*
@ -347,16 +298,14 @@ unsigned long sep_shared_area_virt_to_phys(unsigned long virt_address)
*/
unsigned long sep_shared_area_phys_to_virt(unsigned long phys_address)
{
return (unsigned long)sep_dev->shared_virtual_address
+ (phys_address - sep_dev->shared_physical_address);
return (unsigned long) sep_dev->shared_virtual_address + (phys_address - sep_dev->shared_physical_address);
}
/*
function that is activaed on the succesfull probe of the SEP device
*/
static int __devinit sep_probe(struct pci_dev *pdev,
const struct pci_device_id *ent)
static int __devinit sep_probe(struct pci_dev *pdev, const struct pci_device_id *ent)
{
/* error */
int error;
@ -365,15 +314,13 @@ static int __devinit sep_probe(struct pci_dev *pdev,
CODE
---------------------------*/
edbg(
"Sep pci probe starting\n");
edbg("Sep pci probe starting\n");
error = 0;
/* enable the device */
error = pci_enable_device(pdev);
if (error) {
edbg(
"error enabling pci device\n");
edbg("error enabling pci device\n");
goto end_function;
}
@ -383,111 +330,83 @@ static int __devinit sep_probe(struct pci_dev *pdev,
/* get the io memory start address */
sep_dev->io_memory_start_physical_address = pci_resource_start(pdev, 0);
if (!sep_dev->io_memory_start_physical_address) {
edbg(
"SEP Driver error pci resource start\n");
edbg("SEP Driver error pci resource start\n");
goto end_function;
}
/* get the io memory end address */
sep_dev->io_memory_end_physical_address = pci_resource_end(pdev, 0);
if (!sep_dev->io_memory_end_physical_address) {
edbg(
"SEP Driver error pci resource end\n");
edbg("SEP Driver error pci resource end\n");
goto end_function;
}
sep_dev->io_memory_size = sep_dev->io_memory_end_physical_address -
sep_dev->io_memory_start_physical_address + 1;
sep_dev->io_memory_size = sep_dev->io_memory_end_physical_address - sep_dev->io_memory_start_physical_address + 1;
edbg(
"SEP Driver:io_memory_start_physical_address is %08lx\n",
sep_dev->io_memory_start_physical_address);
edbg("SEP Driver:io_memory_start_physical_address is %08lx\n", sep_dev->io_memory_start_physical_address);
edbg(
"SEP Driver:io_memory_end_phyaical_address is %08lx\n",
sep_dev->io_memory_end_physical_address);
edbg("SEP Driver:io_memory_end_phyaical_address is %08lx\n", sep_dev->io_memory_end_physical_address);
edbg(
"SEP Driver:io_memory_size is %08lx\n",
sep_dev->io_memory_size);
edbg("SEP Driver:io_memory_size is %08lx\n", sep_dev->io_memory_size);
sep_dev->io_memory_start_virtual_address =
ioremap_nocache(sep_dev->io_memory_start_physical_address,
sep_dev->io_memory_size);
sep_dev->io_memory_start_virtual_address = ioremap_nocache(sep_dev->io_memory_start_physical_address, sep_dev->io_memory_size);
if (!sep_dev->io_memory_start_virtual_address) {
edbg(
"SEP Driver error ioremap of io memory\n");
edbg("SEP Driver error ioremap of io memory\n");
goto end_function;
}
edbg(
"SEP Driver:io_memory_start_virtual_address is %p\n",
sep_dev->io_memory_start_virtual_address);
edbg("SEP Driver:io_memory_start_virtual_address is %p\n", sep_dev->io_memory_start_virtual_address);
sep_dev->reg_base_address = (void __iomem *)sep_dev->io_memory_start_virtual_address;
sep_dev->reg_base_address = (void __iomem *) sep_dev->io_memory_start_virtual_address;
/* set up system base address and shared memory location */
sep_dev->rar_virtual_address = kmalloc(2 * SEP_RAR_IO_MEM_REGION_SIZE,
GFP_KERNEL);
sep_dev->rar_virtual_address = kmalloc(2 * SEP_RAR_IO_MEM_REGION_SIZE, GFP_KERNEL);
if (!sep_dev->rar_virtual_address) {
edbg(
"SEP Driver:cant kmalloc rar\n");
edbg("SEP Driver:cant kmalloc rar\n");
goto end_function;
}
/* FIXME */
sep_dev->rar_physical_address = __pa(sep_dev->rar_virtual_address);
edbg(
"SEP Driver:rar_physical is %08lx\n",
sep_dev->rar_physical_address);
edbg("SEP Driver:rar_physical is %08lx\n", sep_dev->rar_physical_address);
edbg(
"SEP Driver:rar_virtual is %p\n",
sep_dev->rar_virtual_address);
edbg("SEP Driver:rar_virtual is %p\n", sep_dev->rar_virtual_address);
#if !SEP_DRIVER_POLLING_MODE
edbg(
"SEP Driver: about to write IMR and ICR REG_ADDR\n");
edbg("SEP Driver: about to write IMR and ICR REG_ADDR\n");
/* clear ICR register */
sep_write_reg(sep_dev, HW_HOST_ICR_REG_ADDR,
0xFFFFFFFF);
sep_write_reg(sep_dev, HW_HOST_ICR_REG_ADDR, 0xFFFFFFFF);
/* set the IMR register - open only GPR 2 */
sep_write_reg(sep_dev, HW_HOST_IMR_REG_ADDR,
(~(0x1 << 13)));
sep_write_reg(sep_dev, HW_HOST_IMR_REG_ADDR, (~(0x1 << 13)));
/* figure out our irq */
/* FIXME: */
error = pci_read_config_byte(pdev, PCI_INTERRUPT_LINE, (u8 *)&sep_dev->sep_irq);
error = pci_read_config_byte(pdev, PCI_INTERRUPT_LINE, (u8 *) & sep_dev->sep_irq);
edbg(
"SEP Driver: my irq is %d\n", sep_irq);
edbg("SEP Driver: my irq is %d\n", sep_irq);
edbg(
"SEP Driver: about to call request_irq\n");
edbg("SEP Driver: about to call request_irq\n");
/* get the interrupt line */
error = request_irq(sep_irq, sep_inthandler, IRQF_SHARED,
"sep_driver", &sep_dev->reg_base_address);
error = request_irq(sep_irq, sep_inthandler, IRQF_SHARED, "sep_driver", &sep_dev->reg_base_address);
if (error)
goto end_function;
goto end_function;
edbg(
"SEP Driver: about to write IMR REG_ADDR");
edbg("SEP Driver: about to write IMR REG_ADDR");
/* set the IMR register - open only GPR 2 */
sep_write_reg(sep_dev, HW_HOST_IMR_REG_ADDR,
(~(0x1 << 13)));
sep_write_reg(sep_dev, HW_HOST_IMR_REG_ADDR, (~(0x1 << 13)));
#endif /* SEP_DRIVER_POLLING_MODE */
end_function:
end_function:
return error;
}
@ -515,26 +434,18 @@ void sep_load_rom_code(void)
/* Loading ROM from SEP_ROM_image.h file */
k = sizeof(CRYS_SEP_ROM);
edbg(
"SEP Driver: DX_CC_TST_SepRomLoader start\n");
edbg("SEP Driver: DX_CC_TST_SepRomLoader start\n");
edbg(
"SEP Driver: k is %lu\n", k);
edbg(
"SEP Driver: sep_dev->reg_base_address is %p\n",
sep_dev->reg_base_address);
edbg(
"SEP Driver: CRYS_SEP_ROM_start_address_offset is %p\n",
CRYS_SEP_ROM_start_address_offset);
edbg("SEP Driver: k is %lu\n", k);
edbg("SEP Driver: sep_dev->reg_base_address is %p\n", sep_dev->reg_base_address);
edbg("SEP Driver: CRYS_SEP_ROM_start_address_offset is %p\n", CRYS_SEP_ROM_start_address_offset);
for (i = 0; i < 4; i++) {
/* write bank */
sep_write_reg(sep_dev, SEP_ROM_BANK_register_offset, i);
for (j = 0; j < CRYS_SEP_ROM_length / 4; j++) {
sep_write_reg(sep_dev,
CRYS_SEP_ROM_start_address_offset + 4*j,
CRYS_SEP_ROM[i * 0x1000 + j]);
sep_write_reg(sep_dev, CRYS_SEP_ROM_start_address_offset + 4 * j, CRYS_SEP_ROM[i * 0x1000 + j]);
k = k - 4;
@ -545,7 +456,7 @@ void sep_load_rom_code(void)
}
}
/* reset the SEP*/
/* reset the SEP */
sep_write_reg(sep_dev, HW_HOST_SEP_SW_RST_REG_ADDR, 0x1);
/* poll for SEP ROM boot finish */
@ -553,49 +464,41 @@ void sep_load_rom_code(void)
retVal = sep_read_reg(sep_dev, HW_HOST_SEP_HOST_GPR3_REG_ADDR);
} while (!regVal);
edbg(
"SEP Driver: ROM polling ended\n");
edbg("SEP Driver: ROM polling ended\n");
switch (regVal) {
case 0x1:
/* fatal error - read erro status from GPRO */
Error = sep_read_reg(sep_dev, HW_HOST_SEP_HOST_GPR0_REG_ADDR);
edbg(
"SEP Driver: ROM polling case 1\n");
edbg("SEP Driver: ROM polling case 1\n");
break;
case 0x2:
/* Boot First Phase ended */
warning = sep_read_reg(sep_dev, HW_HOST_SEP_HOST_GPR0_REG_ADDR);
edbg(
"SEP Driver: ROM polling case 2\n");
edbg("SEP Driver: ROM polling case 2\n");
break;
case 0x4:
/* Cold boot ended successfully */
warning = sep_read_reg(sep_dev, HW_HOST_SEP_HOST_GPR0_REG_ADDR);
edbg(
"SEP Driver: ROM polling case 4\n");
edbg("SEP Driver: ROM polling case 4\n");
Error = 0;
break;
case 0x8:
/* Warmboot ended successfully */
warning = sep_read_reg(sep_dev, HW_HOST_SEP_HOST_GPR0_REG_ADDR);
edbg(
"SEP Driver: ROM polling case 8\n");
edbg("SEP Driver: ROM polling case 8\n");
Error = 0;
break;
case 0x10:
/* ColdWarm boot ended successfully */
warning = sep_read_reg(sep_dev, HW_HOST_SEP_HOST_GPR0_REG_ADDR);
edbg(
"SEP Driver: ROM polling case 16\n");
edbg("SEP Driver: ROM polling case 16\n");
Error = 0;
break;
case 0x20:
edbg(
"SEP Driver: ROM polling case 32\n");
edbg("SEP Driver: ROM polling case 32\n");
break;
}
#endif
}

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