Commit a6bff488 authored by Rene Sapiens's avatar Rene Sapiens Committed by Greg Kroah-Hartman

staging: ti dspbridge: Rename words with camel case.

The intention of this patch is to rename the remaining variables with camel
case. Variables will be renamed avoiding camel case and Hungarian notation.
The words to be renamed in this patch are:
========================================
aAddr to addrs
aArgs to args
aSize to len
baseAddress to base_address
bDynamicLoad to dynamic_load
bForce to force
cCharSize to char_size
cContentSize to content_size
cCount to count
cDspCharSize to dsp_char_size
cIndex to index
ClkId to clock_id
cOrigin to origin
dataBasePhys to data_base_phys
dcdObjUnion to dcd_obj
deviceContext to device_ctxt
========================================
Signed-off-by: default avatarRene Sapiens <rene.sapiens@ti.com>
Signed-off-by: default avatarGreg Kroah-Hartman <gregkh@suse.de>
parent 8dd1260f
......@@ -80,6 +80,6 @@ int handle_constraints_set(struct bridge_dev_context *dev_context,
* This function sets the group selction bits for while
* enabling/disabling.
*/
void dsp_clk_wakeup_event_ctrl(u32 ClkId, bool enable);
void dsp_clk_wakeup_event_ctrl(u32 clock_id, bool enable);
#endif /* _TIOMAP_PWR_ */
......@@ -407,7 +407,7 @@ int post_scale_dsp(struct bridge_dev_context *dev_context,
return status;
}
void dsp_clk_wakeup_event_ctrl(u32 ClkId, bool enable)
void dsp_clk_wakeup_event_ctrl(u32 clock_id, bool enable)
{
struct cfg_hostres *resources;
int status = 0;
......@@ -428,7 +428,7 @@ void dsp_clk_wakeup_event_ctrl(u32 ClkId, bool enable)
if (!resources)
return;
switch (ClkId) {
switch (clock_id) {
case BPWR_GP_TIMER5:
iva2_grpsel = (u32) *((reg_uword32 *)
((u32) (resources->dw_per_pm_base) +
......
......@@ -227,7 +227,7 @@ int write_dsp_data(struct bridge_dev_context *hDevContext,
int write_ext_dsp_data(struct bridge_dev_context *dev_context,
IN u8 *pbHostBuf, u32 dwDSPAddr,
u32 ul_num_bytes, u32 ulMemType,
bool bDynamicLoad)
bool dynamic_load)
{
u32 dw_base_addr = dev_context->dw_dsp_ext_base_addr;
u32 dw_offset = 0;
......@@ -259,7 +259,7 @@ int write_ext_dsp_data(struct bridge_dev_context *dev_context,
}
/* If dynamic, force remap/unmap */
if ((bDynamicLoad || trace_load) && dw_base_addr) {
if ((dynamic_load || trace_load) && dw_base_addr) {
dw_base_addr = 0;
MEM_UNMAP_LINEAR_ADDRESS((void *)
dev_context->dw_dsp_ext_base_addr);
......@@ -271,7 +271,7 @@ int write_ext_dsp_data(struct bridge_dev_context *dev_context,
ret = dev_get_symbol(dev_context->hdev_obj,
SHMBASENAME, &ul_shm_base_virt);
DBC_ASSERT(ul_shm_base_virt != 0);
if (bDynamicLoad) {
if (dynamic_load) {
if (DSP_SUCCEEDED(ret)) {
if (symbols_reloaded)
ret =
......@@ -377,7 +377,7 @@ int write_ext_dsp_data(struct bridge_dev_context *dev_context,
*((u32 *) pbHostBuf) = dw_base_addr + dw_offset;
}
/* Unmap here to force remap for other Ext loads */
if ((bDynamicLoad || trace_load) && dev_context->dw_dsp_ext_base_addr) {
if ((dynamic_load || trace_load) && dev_context->dw_dsp_ext_base_addr) {
MEM_UNMAP_LINEAR_ADDRESS((void *)
dev_context->dw_dsp_ext_base_addr);
dev_context->dw_dsp_ext_base_addr = 0x0;
......
......@@ -67,7 +67,7 @@ extern int write_dsp_data(struct bridge_dev_context *dev_context,
extern int write_ext_dsp_data(struct bridge_dev_context *dev_context,
IN u8 *pbHostBuf, u32 dwDSPAddr,
u32 ul_num_bytes, u32 ulMemType,
bool bDynamicLoad);
bool dynamic_load);
/*
* ======== write_ext32_bit_dsp_data ========
......
......@@ -25,158 +25,158 @@
#if defined(USE_LEVEL_1_MACROS)
#define MMUMMU_SYSCONFIG_READ_REGISTER32(baseAddress)\
#define MMUMMU_SYSCONFIG_READ_REGISTER32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_SYSCONFIG_READ_REGISTER32),\
__raw_readl((baseAddress)+MMU_MMU_SYSCONFIG_OFFSET))
__raw_readl((base_address)+MMU_MMU_SYSCONFIG_OFFSET))
#define MMUMMU_SYSCONFIG_IDLE_MODE_WRITE32(baseAddress, value)\
#define MMUMMU_SYSCONFIG_IDLE_MODE_WRITE32(base_address, value)\
{\
const u32 offset = MMU_MMU_SYSCONFIG_OFFSET;\
register u32 data = __raw_readl((baseAddress)+offset);\
register u32 data = __raw_readl((base_address)+offset);\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_SYSCONFIG_IDLE_MODE_WRITE32);\
data &= ~(MMU_MMU_SYSCONFIG_IDLE_MODE_MASK);\
newValue <<= MMU_MMU_SYSCONFIG_IDLE_MODE_OFFSET;\
newValue &= MMU_MMU_SYSCONFIG_IDLE_MODE_MASK;\
newValue |= data;\
__raw_writel(newValue, baseAddress+offset);\
__raw_writel(newValue, base_address+offset);\
}
#define MMUMMU_SYSCONFIG_AUTO_IDLE_WRITE32(baseAddress, value)\
#define MMUMMU_SYSCONFIG_AUTO_IDLE_WRITE32(base_address, value)\
{\
const u32 offset = MMU_MMU_SYSCONFIG_OFFSET;\
register u32 data = __raw_readl((baseAddress)+offset);\
register u32 data = __raw_readl((base_address)+offset);\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_SYSCONFIG_AUTO_IDLE_WRITE32);\
data &= ~(MMU_MMU_SYSCONFIG_AUTO_IDLE_MASK);\
newValue <<= MMU_MMU_SYSCONFIG_AUTO_IDLE_OFFSET;\
newValue &= MMU_MMU_SYSCONFIG_AUTO_IDLE_MASK;\
newValue |= data;\
__raw_writel(newValue, baseAddress+offset);\
__raw_writel(newValue, base_address+offset);\
}
#define MMUMMU_IRQSTATUS_READ_REGISTER32(baseAddress)\
#define MMUMMU_IRQSTATUS_READ_REGISTER32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_IRQSTATUSReadRegister32),\
__raw_readl((baseAddress)+MMU_MMU_IRQSTATUS_OFFSET))
__raw_readl((base_address)+MMU_MMU_IRQSTATUS_OFFSET))
#define MMUMMU_IRQSTATUS_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_IRQSTATUS_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_IRQSTATUS_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_IRQSTATUS_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_IRQENABLE_READ_REGISTER32(baseAddress)\
#define MMUMMU_IRQENABLE_READ_REGISTER32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_IRQENABLE_READ_REGISTER32),\
__raw_readl((baseAddress)+MMU_MMU_IRQENABLE_OFFSET))
__raw_readl((base_address)+MMU_MMU_IRQENABLE_OFFSET))
#define MMUMMU_IRQENABLE_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_IRQENABLE_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_IRQENABLE_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_IRQENABLE_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_WALKING_STTWL_RUNNING_READ32(baseAddress)\
#define MMUMMU_WALKING_STTWL_RUNNING_READ32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_WALKING_STTWL_RUNNING_READ32),\
(((__raw_readl(((baseAddress)+(MMU_MMU_WALKING_ST_OFFSET))))\
(((__raw_readl(((base_address)+(MMU_MMU_WALKING_ST_OFFSET))))\
& MMU_MMU_WALKING_ST_TWL_RUNNING_MASK) >>\
MMU_MMU_WALKING_ST_TWL_RUNNING_OFFSET))
#define MMUMMU_CNTLTWL_ENABLE_READ32(baseAddress)\
#define MMUMMU_CNTLTWL_ENABLE_READ32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_CNTLTWL_ENABLE_READ32),\
(((__raw_readl(((baseAddress)+(MMU_MMU_CNTL_OFFSET)))) &\
(((__raw_readl(((base_address)+(MMU_MMU_CNTL_OFFSET)))) &\
MMU_MMU_CNTL_TWL_ENABLE_MASK) >>\
MMU_MMU_CNTL_TWL_ENABLE_OFFSET))
#define MMUMMU_CNTLTWL_ENABLE_WRITE32(baseAddress, value)\
#define MMUMMU_CNTLTWL_ENABLE_WRITE32(base_address, value)\
{\
const u32 offset = MMU_MMU_CNTL_OFFSET;\
register u32 data = __raw_readl((baseAddress)+offset);\
register u32 data = __raw_readl((base_address)+offset);\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_CNTLTWL_ENABLE_WRITE32);\
data &= ~(MMU_MMU_CNTL_TWL_ENABLE_MASK);\
newValue <<= MMU_MMU_CNTL_TWL_ENABLE_OFFSET;\
newValue &= MMU_MMU_CNTL_TWL_ENABLE_MASK;\
newValue |= data;\
__raw_writel(newValue, baseAddress+offset);\
__raw_writel(newValue, base_address+offset);\
}
#define MMUMMU_CNTLMMU_ENABLE_WRITE32(baseAddress, value)\
#define MMUMMU_CNTLMMU_ENABLE_WRITE32(base_address, value)\
{\
const u32 offset = MMU_MMU_CNTL_OFFSET;\
register u32 data = __raw_readl((baseAddress)+offset);\
register u32 data = __raw_readl((base_address)+offset);\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_CNTLMMU_ENABLE_WRITE32);\
data &= ~(MMU_MMU_CNTL_MMU_ENABLE_MASK);\
newValue <<= MMU_MMU_CNTL_MMU_ENABLE_OFFSET;\
newValue &= MMU_MMU_CNTL_MMU_ENABLE_MASK;\
newValue |= data;\
__raw_writel(newValue, baseAddress+offset);\
__raw_writel(newValue, base_address+offset);\
}
#define MMUMMU_FAULT_AD_READ_REGISTER32(baseAddress)\
#define MMUMMU_FAULT_AD_READ_REGISTER32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_FAULT_AD_READ_REGISTER32),\
__raw_readl((baseAddress)+MMU_MMU_FAULT_AD_OFFSET))
__raw_readl((base_address)+MMU_MMU_FAULT_AD_OFFSET))
#define MMUMMU_TTB_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_TTB_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_TTB_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_TTB_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_LOCK_READ_REGISTER32(baseAddress)\
#define MMUMMU_LOCK_READ_REGISTER32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LOCK_READ_REGISTER32),\
__raw_readl((baseAddress)+MMU_MMU_LOCK_OFFSET))
__raw_readl((base_address)+MMU_MMU_LOCK_OFFSET))
#define MMUMMU_LOCK_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_LOCK_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_LOCK_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LOCK_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_LOCK_BASE_VALUE_READ32(baseAddress)\
#define MMUMMU_LOCK_BASE_VALUE_READ32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LOCK_BASE_VALUE_READ32),\
(((__raw_readl(((baseAddress)+(MMU_MMU_LOCK_OFFSET)))) &\
(((__raw_readl(((base_address)+(MMU_MMU_LOCK_OFFSET)))) &\
MMU_MMU_LOCK_BASE_VALUE_MASK) >>\
MMU_MMU_LOCK_BASE_VALUE_OFFSET))
#define MMUMMU_LOCK_BASE_VALUE_WRITE32(baseAddress, value)\
#define MMUMMU_LOCK_BASE_VALUE_WRITE32(base_address, value)\
{\
const u32 offset = MMU_MMU_LOCK_OFFSET;\
register u32 data = __raw_readl((baseAddress)+offset);\
register u32 data = __raw_readl((base_address)+offset);\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LOCKBaseValueWrite32);\
data &= ~(MMU_MMU_LOCK_BASE_VALUE_MASK);\
newValue <<= MMU_MMU_LOCK_BASE_VALUE_OFFSET;\
newValue &= MMU_MMU_LOCK_BASE_VALUE_MASK;\
newValue |= data;\
__raw_writel(newValue, baseAddress+offset);\
__raw_writel(newValue, base_address+offset);\
}
#define MMUMMU_LOCK_CURRENT_VICTIM_READ32(baseAddress)\
#define MMUMMU_LOCK_CURRENT_VICTIM_READ32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LOCK_CURRENT_VICTIM_READ32),\
(((__raw_readl(((baseAddress)+(MMU_MMU_LOCK_OFFSET)))) &\
(((__raw_readl(((base_address)+(MMU_MMU_LOCK_OFFSET)))) &\
MMU_MMU_LOCK_CURRENT_VICTIM_MASK) >>\
MMU_MMU_LOCK_CURRENT_VICTIM_OFFSET))
#define MMUMMU_LOCK_CURRENT_VICTIM_WRITE32(baseAddress, value)\
#define MMUMMU_LOCK_CURRENT_VICTIM_WRITE32(base_address, value)\
{\
const u32 offset = MMU_MMU_LOCK_OFFSET;\
register u32 data = __raw_readl((baseAddress)+offset);\
register u32 data = __raw_readl((base_address)+offset);\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LOCK_CURRENT_VICTIM_WRITE32);\
data &= ~(MMU_MMU_LOCK_CURRENT_VICTIM_MASK);\
newValue <<= MMU_MMU_LOCK_CURRENT_VICTIM_OFFSET;\
newValue &= MMU_MMU_LOCK_CURRENT_VICTIM_MASK;\
newValue |= data;\
__raw_writel(newValue, baseAddress+offset);\
__raw_writel(newValue, base_address+offset);\
}
#define MMUMMU_LOCK_CURRENT_VICTIM_SET32(var, value)\
......@@ -185,40 +185,40 @@
(((value) << MMU_MMU_LOCK_CURRENT_VICTIM_OFFSET) &\
MMU_MMU_LOCK_CURRENT_VICTIM_MASK)))
#define MMUMMU_LD_TLB_READ_REGISTER32(baseAddress)\
#define MMUMMU_LD_TLB_READ_REGISTER32(base_address)\
(_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LD_TLB_READ_REGISTER32),\
__raw_readl((baseAddress)+MMU_MMU_LD_TLB_OFFSET))
__raw_readl((base_address)+MMU_MMU_LD_TLB_OFFSET))
#define MMUMMU_LD_TLB_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_LD_TLB_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_LD_TLB_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_LD_TLB_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_CAM_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_CAM_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_CAM_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_CAM_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_RAM_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_RAM_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_RAM_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_RAM_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#define MMUMMU_FLUSH_ENTRY_WRITE_REGISTER32(baseAddress, value)\
#define MMUMMU_FLUSH_ENTRY_WRITE_REGISTER32(base_address, value)\
{\
const u32 offset = MMU_MMU_FLUSH_ENTRY_OFFSET;\
register u32 newValue = (value);\
_DEBUG_LEVEL1_EASI(EASIL1_MMUMMU_FLUSH_ENTRY_WRITE_REGISTER32);\
__raw_writel(newValue, (baseAddress)+offset);\
__raw_writel(newValue, (base_address)+offset);\
}
#endif /* USE_LEVEL_1_MACROS */
......
......@@ -52,7 +52,7 @@ enum hw_mmu_page_size_t {
*
* INPUTS:
*
* Identifier : baseAddress
* Identifier : base_address
* Type : const u32
* Description : Base Address of instance of MMU module
*
......@@ -70,14 +70,14 @@ enum hw_mmu_page_size_t {
* METHOD: : Check the Input parameter and Flush a
* single entry in the TLB.
*/
static hw_status mmu_flush_entry(const void __iomem *baseAddress);
static hw_status mmu_flush_entry(const void __iomem *base_address);
/*
* FUNCTION : mmu_set_cam_entry
*
* INPUTS:
*
* Identifier : baseAddress
* Identifier : base_address
* TypE : const u32
* Description : Base Address of instance of MMU module
*
......@@ -112,7 +112,7 @@ static hw_status mmu_flush_entry(const void __iomem *baseAddress);
*
* METHOD: : Check the Input parameters and set the CAM entry.
*/
static hw_status mmu_set_cam_entry(const void __iomem *baseAddress,
static hw_status mmu_set_cam_entry(const void __iomem *base_address,
const u32 pageSize,
const u32 preservedBit,
const u32 validBit,
......@@ -123,7 +123,7 @@ static hw_status mmu_set_cam_entry(const void __iomem *baseAddress,
*
* INPUTS:
*
* Identifier : baseAddress
* Identifier : base_address
* Type : const u32
* Description : Base Address of instance of MMU module
*
......@@ -157,7 +157,7 @@ static hw_status mmu_set_cam_entry(const void __iomem *baseAddress,
*
* METHOD: : Check the Input parameters and set the RAM entry.
*/
static hw_status mmu_set_ram_entry(const void __iomem *baseAddress,
static hw_status mmu_set_ram_entry(const void __iomem *base_address,
const u32 physicalAddr,
enum hw_endianism_t endianism,
enum hw_element_size_t element_size,
......@@ -165,135 +165,135 @@ static hw_status mmu_set_ram_entry(const void __iomem *baseAddress,
/* HW FUNCTIONS */
hw_status hw_mmu_enable(const void __iomem *baseAddress)
hw_status hw_mmu_enable(const void __iomem *base_address)
{
hw_status status = RET_OK;
MMUMMU_CNTLMMU_ENABLE_WRITE32(baseAddress, HW_SET);
MMUMMU_CNTLMMU_ENABLE_WRITE32(base_address, HW_SET);
return status;
}
hw_status hw_mmu_disable(const void __iomem *baseAddress)
hw_status hw_mmu_disable(const void __iomem *base_address)
{
hw_status status = RET_OK;
MMUMMU_CNTLMMU_ENABLE_WRITE32(baseAddress, HW_CLEAR);
MMUMMU_CNTLMMU_ENABLE_WRITE32(base_address, HW_CLEAR);
return status;
}
hw_status hw_mmu_num_locked_set(const void __iomem *baseAddress,
hw_status hw_mmu_num_locked_set(const void __iomem *base_address,
u32 numLockedEntries)
{
hw_status status = RET_OK;
MMUMMU_LOCK_BASE_VALUE_WRITE32(baseAddress, numLockedEntries);
MMUMMU_LOCK_BASE_VALUE_WRITE32(base_address, numLockedEntries);
return status;
}
hw_status hw_mmu_victim_num_set(const void __iomem *baseAddress,
hw_status hw_mmu_victim_num_set(const void __iomem *base_address,
u32 victimEntryNum)
{
hw_status status = RET_OK;
MMUMMU_LOCK_CURRENT_VICTIM_WRITE32(baseAddress, victimEntryNum);
MMUMMU_LOCK_CURRENT_VICTIM_WRITE32(base_address, victimEntryNum);
return status;
}
hw_status hw_mmu_event_ack(const void __iomem *baseAddress, u32 irqMask)
hw_status hw_mmu_event_ack(const void __iomem *base_address, u32 irqMask)
{
hw_status status = RET_OK;
MMUMMU_IRQSTATUS_WRITE_REGISTER32(baseAddress, irqMask);
MMUMMU_IRQSTATUS_WRITE_REGISTER32(base_address, irqMask);
return status;
}
hw_status hw_mmu_event_disable(const void __iomem *baseAddress, u32 irqMask)
hw_status hw_mmu_event_disable(const void __iomem *base_address, u32 irqMask)
{
hw_status status = RET_OK;
u32 irq_reg;
irq_reg = MMUMMU_IRQENABLE_READ_REGISTER32(baseAddress);
irq_reg = MMUMMU_IRQENABLE_READ_REGISTER32(base_address);
MMUMMU_IRQENABLE_WRITE_REGISTER32(baseAddress, irq_reg & ~irqMask);
MMUMMU_IRQENABLE_WRITE_REGISTER32(base_address, irq_reg & ~irqMask);
return status;
}
hw_status hw_mmu_event_enable(const void __iomem *baseAddress, u32 irqMask)
hw_status hw_mmu_event_enable(const void __iomem *base_address, u32 irqMask)
{
hw_status status = RET_OK;
u32 irq_reg;
irq_reg = MMUMMU_IRQENABLE_READ_REGISTER32(baseAddress);
irq_reg = MMUMMU_IRQENABLE_READ_REGISTER32(base_address);
MMUMMU_IRQENABLE_WRITE_REGISTER32(baseAddress, irq_reg | irqMask);
MMUMMU_IRQENABLE_WRITE_REGISTER32(base_address, irq_reg | irqMask);
return status;
}
hw_status hw_mmu_event_status(const void __iomem *baseAddress, u32 *irqMask)
hw_status hw_mmu_event_status(const void __iomem *base_address, u32 *irqMask)
{
hw_status status = RET_OK;
*irqMask = MMUMMU_IRQSTATUS_READ_REGISTER32(baseAddress);
*irqMask = MMUMMU_IRQSTATUS_READ_REGISTER32(base_address);
return status;
}
hw_status hw_mmu_fault_addr_read(const void __iomem *baseAddress, u32 *addr)
hw_status hw_mmu_fault_addr_read(const void __iomem *base_address, u32 *addr)
{
hw_status status = RET_OK;
/*Check the input Parameters */
CHECK_INPUT_PARAM(baseAddress, 0, RET_BAD_NULL_PARAM,
CHECK_INPUT_PARAM(base_address, 0, RET_BAD_NULL_PARAM,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
/* read values from register */
*addr = MMUMMU_FAULT_AD_READ_REGISTER32(baseAddress);
*addr = MMUMMU_FAULT_AD_READ_REGISTER32(base_address);
return status;
}
hw_status hw_mmu_ttb_set(const void __iomem *baseAddress, u32 TTBPhysAddr)
hw_status hw_mmu_ttb_set(const void __iomem *base_address, u32 TTBPhysAddr)
{
hw_status status = RET_OK;
u32 load_ttb;
/*Check the input Parameters */
CHECK_INPUT_PARAM(baseAddress, 0, RET_BAD_NULL_PARAM,
CHECK_INPUT_PARAM(base_address, 0, RET_BAD_NULL_PARAM,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
load_ttb = TTBPhysAddr & ~0x7FUL;
/* write values to register */
MMUMMU_TTB_WRITE_REGISTER32(baseAddress, load_ttb);
MMUMMU_TTB_WRITE_REGISTER32(base_address, load_ttb);
return status;
}
hw_status hw_mmu_twl_enable(const void __iomem *baseAddress)
hw_status hw_mmu_twl_enable(const void __iomem *base_address)
{
hw_status status = RET_OK;
MMUMMU_CNTLTWL_ENABLE_WRITE32(baseAddress, HW_SET);
MMUMMU_CNTLTWL_ENABLE_WRITE32(base_address, HW_SET);
return status;
}
hw_status hw_mmu_twl_disable(const void __iomem *baseAddress)
hw_status hw_mmu_twl_disable(const void __iomem *base_address)
{
hw_status status = RET_OK;
MMUMMU_CNTLTWL_ENABLE_WRITE32(baseAddress, HW_CLEAR);
MMUMMU_CNTLTWL_ENABLE_WRITE32(base_address, HW_CLEAR);
return status;
}
hw_status hw_mmu_tlb_flush(const void __iomem *baseAddress, u32 virtualAddr,
hw_status hw_mmu_tlb_flush(const void __iomem *base_address, u32 virtualAddr,
u32 pageSize)
{
hw_status status = RET_OK;
......@@ -324,14 +324,14 @@ hw_status hw_mmu_tlb_flush(const void __iomem *baseAddress, u32 virtualAddr,
/* Generate the 20-bit tag from virtual address */
virtual_addr_tag = ((virtualAddr & MMU_ADDR_MASK) >> 12);
mmu_set_cam_entry(baseAddress, pg_size_bits, 0, 0, virtual_addr_tag);
mmu_set_cam_entry(base_address, pg_size_bits, 0, 0, virtual_addr_tag);
mmu_flush_entry(baseAddress);
mmu_flush_entry(base_address);
return status;
}
hw_status hw_mmu_tlb_add(const void __iomem *baseAddress,
hw_status hw_mmu_tlb_add(const void __iomem *base_address,
u32 physicalAddr,
u32 virtualAddr,
u32 pageSize,
......@@ -345,7 +345,7 @@ hw_status hw_mmu_tlb_add(const void __iomem *baseAddress,
enum hw_mmu_page_size_t mmu_pg_size;
/*Check the input Parameters */
CHECK_INPUT_PARAM(baseAddress, 0, RET_BAD_NULL_PARAM,
CHECK_INPUT_PARAM(base_address, 0, RET_BAD_NULL_PARAM,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
CHECK_INPUT_RANGE_MIN0(pageSize, MMU_PAGE_MAX, RET_PARAM_OUT_OF_RANGE,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
......@@ -374,29 +374,29 @@ hw_status hw_mmu_tlb_add(const void __iomem *baseAddress,
return RET_FAIL;
}
lock_reg = MMUMMU_LOCK_READ_REGISTER32(baseAddress);
lock_reg = MMUMMU_LOCK_READ_REGISTER32(base_address);
/* Generate the 20-bit tag from virtual address */
virtual_addr_tag = ((virtualAddr & MMU_ADDR_MASK) >> 12);
/* Write the fields in the CAM Entry Register */
mmu_set_cam_entry(baseAddress, mmu_pg_size, preservedBit, validBit,
mmu_set_cam_entry(base_address, mmu_pg_size, preservedBit, validBit,
virtual_addr_tag);
/* Write the different fields of the RAM Entry Register */
/* endianism of the page,Element Size of the page (8, 16, 32, 64 bit) */
mmu_set_ram_entry(baseAddress, physicalAddr, map_attrs->endianism,
mmu_set_ram_entry(base_address, physicalAddr, map_attrs->endianism,
map_attrs->element_size, map_attrs->mixed_size);
/* Update the MMU Lock Register */
/* currentVictim between lockedBaseValue and (MMU_Entries_Number - 1) */
MMUMMU_LOCK_CURRENT_VICTIM_WRITE32(baseAddress, entryNum);
MMUMMU_LOCK_CURRENT_VICTIM_WRITE32(base_address, entryNum);
/* Enable loading of an entry in TLB by writing 1
into LD_TLB_REG register */
MMUMMU_LD_TLB_WRITE_REGISTER32(baseAddress, MMU_LOAD_TLB);
MMUMMU_LD_TLB_WRITE_REGISTER32(base_address, MMU_LOAD_TLB);
MMUMMU_LOCK_WRITE_REGISTER32(baseAddress, lock_reg);
MMUMMU_LOCK_WRITE_REGISTER32(base_address, lock_reg);
return status;
}
......@@ -520,23 +520,23 @@ hw_status hw_mmu_pte_clear(const u32 pg_tbl_va, u32 virtualAddr, u32 page_size)
}
/* mmu_flush_entry */
static hw_status mmu_flush_entry(const void __iomem *baseAddress)
static hw_status mmu_flush_entry(const void __iomem *base_address)
{
hw_status status = RET_OK;
u32 flush_entry_data = 0x1;
/*Check the input Parameters */
CHECK_INPUT_PARAM(baseAddress, 0, RET_BAD_NULL_PARAM,
CHECK_INPUT_PARAM(base_address, 0, RET_BAD_NULL_PARAM,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
/* write values to register */
MMUMMU_FLUSH_ENTRY_WRITE_REGISTER32(baseAddress, flush_entry_data);
MMUMMU_FLUSH_ENTRY_WRITE_REGISTER32(base_address, flush_entry_data);
return status;
}
/* mmu_set_cam_entry */
static hw_status mmu_set_cam_entry(const void __iomem *baseAddress,
static hw_status mmu_set_cam_entry(const void __iomem *base_address,
const u32 pageSize,
const u32 preservedBit,
const u32 validBit,
......@@ -546,7 +546,7 @@ static hw_status mmu_set_cam_entry(const void __iomem *baseAddress,
u32 mmu_cam_reg;
/*Check the input Parameters */
CHECK_INPUT_PARAM(baseAddress, 0, RET_BAD_NULL_PARAM,
CHECK_INPUT_PARAM(base_address, 0, RET_BAD_NULL_PARAM,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
mmu_cam_reg = (virtual_addr_tag << 12);
......@@ -554,13 +554,13 @@ static hw_status mmu_set_cam_entry(const void __iomem *baseAddress,
(preservedBit << 3);
/* write values to register */
MMUMMU_CAM_WRITE_REGISTER32(baseAddress, mmu_cam_reg);
MMUMMU_CAM_WRITE_REGISTER32(base_address, mmu_cam_reg);
return status;
}
/* mmu_set_ram_entry */
static hw_status mmu_set_ram_entry(const void __iomem *baseAddress,
static hw_status mmu_set_ram_entry(const void __iomem *base_address,
const u32 physicalAddr,
enum hw_endianism_t endianism,
enum hw_element_size_t element_size,
......@@ -570,7 +570,7 @@ static hw_status mmu_set_ram_entry(const void __iomem *baseAddress,
u32 mmu_ram_reg;
/*Check the input Parameters */
CHECK_INPUT_PARAM(baseAddress, 0, RET_BAD_NULL_PARAM,
CHECK_INPUT_PARAM(base_address, 0, RET_BAD_NULL_PARAM,
RES_MMU_BASE + RES_INVALID_INPUT_PARAM);
CHECK_INPUT_RANGE_MIN0(element_size, MMU_ELEMENTSIZE_MAX,
RET_PARAM_OUT_OF_RANGE, RES_MMU_BASE +
......@@ -581,7 +581,7 @@ static hw_status mmu_set_ram_entry(const void __iomem *baseAddress,
(mixed_size << 6));
/* write values to register */
MMUMMU_RAM_WRITE_REGISTER32(baseAddress, mmu_ram_reg);
MMUMMU_RAM_WRITE_REGISTER32(base_address, mmu_ram_reg);
return status;
......
......@@ -42,44 +42,44 @@ struct hw_mmu_map_attrs_t {
bool donotlockmpupage;
};
extern hw_status hw_mmu_enable(const void __iomem *baseAddress);
extern hw_status hw_mmu_enable(const void __iomem *base_address);
extern hw_status hw_mmu_disable(const void __iomem *baseAddress);
extern hw_status hw_mmu_disable(const void __iomem *base_address);
extern hw_status hw_mmu_num_locked_set(const void __iomem *baseAddress,
extern hw_status hw_mmu_num_locked_set(const void __iomem *base_address,
u32 numLockedEntries);
extern hw_status hw_mmu_victim_num_set(const void __iomem *baseAddress,
extern hw_status hw_mmu_victim_num_set(const void __iomem *base_address,
u32 victimEntryNum);
/* For MMU faults */
extern hw_status hw_mmu_event_ack(const void __iomem *baseAddress,
extern hw_status hw_mmu_event_ack(const void __iomem *base_address,
u32 irqMask);
extern hw_status hw_mmu_event_disable(const void __iomem *baseAddress,
extern hw_status hw_mmu_event_disable(const void __iomem *base_address,
u32 irqMask);
extern hw_status hw_mmu_event_enable(const void __iomem *baseAddress,
extern hw_status hw_mmu_event_enable(const void __iomem *base_address,
u32 irqMask);
extern hw_status hw_mmu_event_status(const void __iomem *baseAddress,
extern hw_status hw_mmu_event_status(const void __iomem *base_address,
u32 *irqMask);
extern hw_status hw_mmu_fault_addr_read(const void __iomem *baseAddress,
extern hw_status hw_mmu_fault_addr_read(const void __iomem *base_address,
u32 *addr);
/* Set the TT base address */
extern hw_status hw_mmu_ttb_set(const void __iomem *baseAddress,
extern hw_status hw_mmu_ttb_set(const void __iomem *base_address,
u32 TTBPhysAddr);
extern hw_status hw_mmu_twl_enable(const void __iomem *baseAddress);
extern hw_status hw_mmu_twl_enable(const void __iomem *base_address);
extern hw_status hw_mmu_twl_disable(const void __iomem *baseAddress);
extern hw_status hw_mmu_twl_disable(const void __iomem *base_address);
extern hw_status hw_mmu_tlb_flush(const void __iomem *baseAddress,
extern hw_status hw_mmu_tlb_flush(const void __iomem *base_address,
u32 virtualAddr, u32 pageSize);
extern hw_status hw_mmu_tlb_add(const void __iomem *baseAddress,
extern hw_status hw_mmu_tlb_add(const void __iomem *base_address,
u32 physicalAddr,
u32 virtualAddr,
u32 pageSize,
......
......@@ -95,7 +95,7 @@ extern int cmm_create(OUT struct cmm_object **ph_cmm_mgr,
* Destroy the communication memory manager object.
* Parameters:
* hcmm_mgr: Cmm Mgr handle.
* bForce: Force deallocation of all cmm memory immediately if set TRUE.
* force: Force deallocation of all cmm memory immediately if set TRUE.
* If FALSE, and outstanding allocations will return -EPERM
* status.
* Returns:
......@@ -108,7 +108,7 @@ extern int cmm_create(OUT struct cmm_object **ph_cmm_mgr,
* Ensures:
* Memory resources used by Cmm Mgr are freed.
*/
extern int cmm_destroy(struct cmm_object *hcmm_mgr, bool bForce);
extern int cmm_destroy(struct cmm_object *hcmm_mgr, bool force);
/*
* ======== cmm_exit ========
......@@ -305,7 +305,7 @@ extern int cmm_xlator_create(OUT struct cmm_xlatorobject **phXlator,
* Delete translator resources
* Parameters:
* xlator: handle to translator.
* bForce: bForce = TRUE will free XLators SM buffers/dscriptrs.
* force: force = TRUE will free XLators SM buffers/dscriptrs.
* Returns:
* 0: Success.
* -EFAULT: Bad translator handle.
......@@ -316,7 +316,7 @@ extern int cmm_xlator_create(OUT struct cmm_xlatorobject **phXlator,
*
*/
extern int cmm_xlator_delete(struct cmm_xlatorobject *xlator,
bool bForce);
bool force);
/*
* ======== cmm_xlator_free_buf ========
......
......@@ -288,13 +288,13 @@ extern bool cod_init(void);
* COD module initialized.
* hmgr is valid.
* nArgc > 0.
* aArgs != NULL.
* aArgs[0] != NULL.
* args != NULL.
* args[0] != NULL.
* pfn_write != NULL.
* Ensures:
*/
extern int cod_load_base(struct cod_manager *cod_mgr_obj,
u32 nArgc, char *aArgs[],
u32 nArgc, char *args[],
cod_writefxn pfn_write, void *pArb,
char *envp[]);
......@@ -364,6 +364,6 @@ extern int cod_open_base(struct cod_manager *hmgr, IN char *pszCoffPath,
*/
extern int cod_read_section(struct cod_libraryobj *lib,
IN char *pstrSect,
OUT char *pstrContent, IN u32 cContentSize);
OUT char *pstrContent, IN u32 content_size);
#endif /* COD_ */
......@@ -113,7 +113,7 @@ extern int dcd_destroy_manager(IN struct dcd_manager *hdcd_mgr);
* This function enumerates currently visible DSP/BIOS Bridge objects
* and returns the UUID and type of each enumerated object.
* Parameters:
* cIndex: The object enumeration index.
* index: The object enumeration index.
* obj_type: Type of object to enumerate.
* uuid_obj: Pointer to a dsp_uuid object.
* Returns:
......@@ -128,7 +128,7 @@ extern int dcd_destroy_manager(IN struct dcd_manager *hdcd_mgr);
* This function can be used in conjunction with dcd_get_object_def to
* retrieve object properties.
*/
extern int dcd_enumerate_object(IN s32 cIndex,
extern int dcd_enumerate_object(IN s32 index,
IN enum dsp_dcdobjtype obj_type,
OUT struct dsp_uuid *uuid_obj);
......
......@@ -61,7 +61,7 @@ struct dcd_nodeprops {
/* DCD Generic Object Type */
struct dcd_genericobj {
union dcdObjUnion {
union dcd_obj {
struct dcd_nodeprops node_obj; /* node object. */
/* processor object. */
struct dsp_processorinfo proc_info;
......
......@@ -304,7 +304,7 @@ int cmm_create(OUT struct cmm_object **ph_cmm_mgr,
* Purpose:
* Release the communication memory manager resources.
*/
int cmm_destroy(struct cmm_object *hcmm_mgr, bool bForce)
int cmm_destroy(struct cmm_object *hcmm_mgr, bool force)
{
struct cmm_object *cmm_mgr_obj = (struct cmm_object *)hcmm_mgr;
struct cmm_info temp_info;
......@@ -319,7 +319,7 @@ int cmm_destroy(struct cmm_object *hcmm_mgr, bool bForce)
}
mutex_lock(&cmm_mgr_obj->cmm_lock);
/* If not force then fail if outstanding allocations exist */
if (!bForce) {
if (!force) {
/* Check for outstanding memory allocations */
status = cmm_get_info(hcmm_mgr, &temp_info);
if (DSP_SUCCEEDED(status)) {
......@@ -989,7 +989,7 @@ int cmm_xlator_create(OUT struct cmm_xlatorobject **phXlator,
* Free the Xlator resources.
* VM gets freed later.
*/
int cmm_xlator_delete(struct cmm_xlatorobject *xlator, bool bForce)
int cmm_xlator_delete(struct cmm_xlatorobject *xlator, bool force)
{
struct cmm_xlator *xlator_obj = (struct cmm_xlator *)xlator;
int status = 0;
......
......@@ -128,21 +128,21 @@ static struct file *cod_f_open(CONST char *psz_file_name, CONST char *pszMode)
return filp;
}
static s32 cod_f_read(void __user *pbuffer, s32 size, s32 cCount,
static s32 cod_f_read(void __user *pbuffer, s32 size, s32 count,
struct file *filp)
{
/* check for valid file handle */
if (!filp)
return -EFAULT;
if ((size > 0) && (cCount > 0) && pbuffer) {
if ((size > 0) && (count > 0) && pbuffer) {
u32 dw_bytes_read;
mm_segment_t fs;
/* read from file */
fs = get_fs();
set_fs(get_ds());
dw_bytes_read = filp->f_op->read(filp, pbuffer, size * cCount,
dw_bytes_read = filp->f_op->read(filp, pbuffer, size * count,
&(filp->f_pos));
set_fs(fs);
......@@ -155,7 +155,7 @@ static s32 cod_f_read(void __user *pbuffer, s32 size, s32 cCount,
return -EINVAL;
}
static s32 cod_f_seek(struct file *filp, s32 lOffset, s32 cOrigin)
static s32 cod_f_seek(struct file *filp, s32 lOffset, s32 origin)
{
loff_t dw_cur_pos;
......@@ -164,7 +164,7 @@ static s32 cod_f_seek(struct file *filp, s32 lOffset, s32 cOrigin)
return -EFAULT;
/* based on the origin flag, move the internal pointer */
dw_cur_pos = filp->f_op->llseek(filp, lOffset, cOrigin);
dw_cur_pos = filp->f_op->llseek(filp, lOffset, origin);
if ((s32) dw_cur_pos < 0)
return -EPERM;
......@@ -487,12 +487,12 @@ bool cod_init(void)
* loaded must be the first element of the args array and must be a fully
* qualified pathname.
* Details:
* if nArgc doesn't match the number of arguments in the aArgs array, the
* aArgs array is searched for a NULL terminating entry, and argc is
* if nArgc doesn't match the number of arguments in the args array, the
* args array is searched for a NULL terminating entry, and argc is
* recalculated to reflect this. In this way, we can support NULL
* terminating aArgs arrays, if nArgc is very large.
* terminating args arrays, if nArgc is very large.
*/
int cod_load_base(struct cod_manager *hmgr, u32 nArgc, char *aArgs[],
int cod_load_base(struct cod_manager *hmgr, u32 nArgc, char *args[],
cod_writefxn pfn_write, void *pArb, char *envp[])
{
dbll_flags flags;
......@@ -504,8 +504,8 @@ int cod_load_base(struct cod_manager *hmgr, u32 nArgc, char *aArgs[],
DBC_REQUIRE(refs > 0);
DBC_REQUIRE(IS_VALID(hmgr));
DBC_REQUIRE(nArgc > 0);
DBC_REQUIRE(aArgs != NULL);
DBC_REQUIRE(aArgs[0] != NULL);
DBC_REQUIRE(args != NULL);
DBC_REQUIRE(args[0] != NULL);
DBC_REQUIRE(pfn_write != NULL);
DBC_REQUIRE(hmgr->base_lib != NULL);
......@@ -514,7 +514,7 @@ int cod_load_base(struct cod_manager *hmgr, u32 nArgc, char *aArgs[],
* reflect true number in NULL terminated argv array.
*/
for (i = 0; i < nArgc; i++) {
if (aArgs[i] == NULL) {
if (args[i] == NULL) {
nArgc = i;
break;
}
......@@ -626,7 +626,7 @@ int cod_open_base(struct cod_manager *hmgr, IN char *pszCoffPath,
* Retrieve the content of a code section given the section name.
*/
int cod_read_section(struct cod_libraryobj *lib, IN char *pstrSect,
OUT char *pstrContent, IN u32 cContentSize)
OUT char *pstrContent, IN u32 content_size)
{
int status = 0;
......@@ -639,7 +639,7 @@ int cod_read_section(struct cod_libraryobj *lib, IN char *pstrSect,
if (lib != NULL)
status =
lib->cod_mgr->fxns.read_sect_fxn(lib->dbll_lib, pstrSect,
pstrContent, cContentSize);
pstrContent, content_size);
else
status = -ESPIPE;
......
......@@ -72,8 +72,8 @@ static u32 table_size; /* The size of virt and phys pages tables */
/* ----------------------------------- Function Prototypes */
static struct map_page *get_region(u32 addr);
static struct map_page *get_free_region(u32 aSize);
static struct map_page *get_mapped_region(u32 aAddr);
static struct map_page *get_free_region(u32 len);
static struct map_page *get_mapped_region(u32 addrs);
/* ======== dmm_create_tables ========
* Purpose:
......@@ -405,14 +405,14 @@ int dmm_un_reserve_memory(struct dmm_object *dmm_mgr, u32 rsv_addr)
* Purpose:
* Returns a region containing the specified memory region
*/
static struct map_page *get_region(u32 aAddr)
static struct map_page *get_region(u32 addrs)
{
struct map_page *curr_region = NULL;
u32 i = 0;
if (virtual_mapping_table != NULL) {
/* find page mapped by this address */
i = DMM_ADDR_TO_INDEX(aAddr);
i = DMM_ADDR_TO_INDEX(addrs);
if (i < table_size)
curr_region = virtual_mapping_table + i;
}
......@@ -427,7 +427,7 @@ static struct map_page *get_region(u32 aAddr)
* Purpose:
* Returns the requested free region
*/
static struct map_page *get_free_region(u32 aSize)
static struct map_page *get_free_region(u32 len)
{
struct map_page *curr_region = NULL;
u32 i = 0;
......@@ -436,7 +436,7 @@ static struct map_page *get_free_region(u32 aSize)
if (virtual_mapping_table == NULL)
return curr_region;
if (aSize > free_size) {
if (len > free_size) {
/* Find the largest free region
* (coalesce during the traversal) */
while (i < table_size) {
......@@ -461,10 +461,10 @@ static struct map_page *get_free_region(u32 aSize)
i = next_i;
}
}
if (aSize <= free_size) {
if (len <= free_size) {
curr_region = virtual_mapping_table + free_region;
free_region += (aSize / PG_SIZE4K);
free_size -= aSize;
free_region += (len / PG_SIZE4K);
free_size -= len;
}
return curr_region;
}
......@@ -474,7 +474,7 @@ static struct map_page *get_free_region(u32 aSize)
* Purpose:
* Returns the requestedmapped region
*/
static struct map_page *get_mapped_region(u32 aAddr)
static struct map_page *get_mapped_region(u32 addrs)
{
u32 i = 0;
struct map_page *curr_region = NULL;
......@@ -482,7 +482,7 @@ static struct map_page *get_mapped_region(u32 aAddr)
if (virtual_mapping_table == NULL)
return curr_region;
i = DMM_ADDR_TO_INDEX(aAddr);
i = DMM_ADDR_TO_INDEX(addrs);
if (i < table_size && (virtual_mapping_table[i].mapped ||
virtual_mapping_table[i].reserved))
curr_region = virtual_mapping_table + i;
......
......@@ -65,8 +65,8 @@ static s32 atoi(char *psz_buf);
static int get_attrs_from_buf(char *psz_buf, u32 ul_buf_size,
enum dsp_dcdobjtype obj_type,
struct dcd_genericobj *pGenObj);
static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 cCharSize);
static char dsp_char2_gpp_char(char *pWord, s32 cDspCharSize);
static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 char_size);
static char dsp_char2_gpp_char(char *pWord, s32 dsp_char_size);
static int get_dep_lib_info(IN struct dcd_manager *hdcd_mgr,
IN struct dsp_uuid *uuid_obj,
IN OUT u16 *pNumLibs,
......@@ -193,7 +193,7 @@ int dcd_destroy_manager(IN struct dcd_manager *hdcd_mgr)
* Purpose:
* Enumerates objects in the DCD.
*/
int dcd_enumerate_object(IN s32 cIndex, IN enum dsp_dcdobjtype obj_type,
int dcd_enumerate_object(IN s32 index, IN enum dsp_dcdobjtype obj_type,
OUT struct dsp_uuid *uuid_obj)
{
int status = 0;
......@@ -206,10 +206,10 @@ int dcd_enumerate_object(IN s32 cIndex, IN enum dsp_dcdobjtype obj_type,
int len;
DBC_REQUIRE(refs >= 0);
DBC_REQUIRE(cIndex >= 0);
DBC_REQUIRE(index >= 0);
DBC_REQUIRE(uuid_obj != NULL);
if ((cIndex != 0) && (enum_refs == 0)) {
if ((index != 0) && (enum_refs == 0)) {
/*
* If an enumeration is being performed on an index greater
* than zero, then the current enum_refs must have been
......@@ -257,7 +257,7 @@ int dcd_enumerate_object(IN s32 cIndex, IN enum dsp_dcdobjtype obj_type,
spin_lock(&dbdcd_lock);
list_for_each_entry(dcd_key, &reg_key_list, link) {
if (!strncmp(dcd_key->name, sz_reg_key, len)
&& !cIndex--) {
&& !index--) {
strncpy(sz_value, &dcd_key->name[len],
strlen(&dcd_key->name[len]) + 1);
break;
......@@ -1321,7 +1321,7 @@ static int get_attrs_from_buf(char *psz_buf, u32 ul_buf_size,
* Purpose:
* Compress the DSP buffer, if necessary, to conform to PC format.
*/
static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 cCharSize)
static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 char_size)
{
char *p;
char ch;
......@@ -1332,10 +1332,10 @@ static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 cCharSize)
return;
for (q = psz_buf; q < (psz_buf + ul_buf_size);) {
ch = dsp_char2_gpp_char(q, cCharSize);
ch = dsp_char2_gpp_char(q, char_size);
if (ch == '\\') {
q += cCharSize;
ch = dsp_char2_gpp_char(q, cCharSize);
q += char_size;
ch = dsp_char2_gpp_char(q, char_size);
switch (ch) {
case 't':
*p = '\t';
......@@ -1361,7 +1361,7 @@ static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 cCharSize)
*p = ch;
}
p++;
q += cCharSize;
q += char_size;
}
/* NULL out remainder of buffer. */
......@@ -1374,13 +1374,13 @@ static void compress_buf(char *psz_buf, u32 ul_buf_size, s32 cCharSize)
* Purpose:
* Convert DSP char to host GPP char in a portable manner
*/
static char dsp_char2_gpp_char(char *pWord, s32 cDspCharSize)
static char dsp_char2_gpp_char(char *pWord, s32 dsp_char_size)
{
char ch = '\0';
char *ch_src;
s32 i;
for (ch_src = pWord, i = cDspCharSize; i > 0; i--)
for (ch_src = pWord, i = dsp_char_size; i > 0; i--)
ch |= *ch_src++;
return ch;
......
......@@ -116,7 +116,7 @@ u32 dsp_init(OUT u32 *init_status)
* ======== dsp_deinit ========
* Frees the resources allocated for bridge.
*/
bool dsp_deinit(u32 deviceContext)
bool dsp_deinit(u32 device_ctxt)
{
bool ret = true;
u32 device_node;
......@@ -126,10 +126,10 @@ bool dsp_deinit(u32 deviceContext)
(void)dev_remove_device((struct cfg_devnode *)device_node);
(void)drv_release_resources((u32) device_node,
(struct drv_object *)deviceContext);
(struct drv_object *)device_ctxt);
}
(void)drv_destroy((struct drv_object *)deviceContext);
(void)drv_destroy((struct drv_object *)device_ctxt);
/* Get the Manager Object from Registry
* MGR Destroy will unload the DCD dll */
......
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