static int bcm1161_wait_interrupt(struct bcm1161_i2c *i2c)
{
int res = 0;
#if defined (CONFIG_ARCH_BCM116X)
timer_tick_count_t clk;
clk = timer_get_tick_count();
#endif
res =
wait_for_completion_timeout(&i2c->cmd_complete,
msecs_to_jiffies(5000));
#if defined (CONFIG_ARCH_BCM116X)
clk = timer_get_tick_count() - clk;
if (clk > i2c_max_irq_wait) {
i2c_max_irq_wait = clk;
}
#endif
if (res == 0) {
dev_err(&i2c->adapter.dev, "Timeout on wait\n");
return -ETIMEDOUT;
} else {
res = i2c->interrupt;
}
i2c->interrupt = 0;
return res;
}
static int bcm1161_check_cmdbusy(void *base)
{
int i = 0;
#if defined (CONFIG_ARCH_BCM116X)
timer_tick_count_t clk = timer_get_tick_count();
timer_tick_count_t clk2;
#endif
if (REG_I2C_ISR(base) & REG_I2C_ISR_CMD_BUSY) {
while (REG_I2C_ISR(base) & REG_I2C_ISR_CMD_BUSY) {
/* wait for I2C CMD not busy */
if (i > 100000) {
i2c_errors++;
REG_I2C_ISR(base) = 0x80;
return -ETIMEDOUT;
}
i++;
}
}
#if defined (CONFIG_ARCH_BCM116X)
clk2 = timer_get_tick_count();
clk = clk2 - clk;
if (i > i2c_max_cmdbusy_cnt) {
i2c_max_cmdbusy_cnt = i;
}
if (clk > i2c_max_cmdbusy_clk) {
i2c_max_cmdbusy_clk = clk;
}
#endif
return 0;
}
static int bcm1161_wait_interrupt(void *base, struct bcm1161 *i2c)
{
/* wait for I2C Controller Interrupt */
unsigned int i = 0;
#if defined (CONFIG_ARCH_BCM116X)
timer_tick_count_t clk;
timer_tick_count_t clk2;
#endif
int isr;
#if defined (CONFIG_ARCH_BCM116X)
clk = timer_get_tick_count();
#endif
while ((REG_I2C_ISR(base) & I2C_ISR_MASK_ALL) == 0) {
i++;
if (i == (unsigned int)(-1)) {
I2C_DEBUG(DBG_ERROR, "wait timed out, %d\n", clk);
return -ETIMEDOUT;
}
}
#if defined (CONFIG_ARCH_BCM116X)
clk2 = timer_get_tick_count();
clk = clk2 - clk;
if (clk > i2c_max_irq_wait) {
i2c_max_irq_wait = clk;
}
#endif
isr = REG_I2C_ISR(base);
REG_I2C_ISR(base) = isr;
return isr;
}
static ssize_t
timer_test_show(struct device *dev, struct device_attribute *attr,
const char *buf, size_t n)
{
uint32_t test_time, num, index, tick_time, mode, clk;
struct gpt_cfg timer_tst;
/* test_time: The ticks for which the timer needs to run
* num: Number of times the timer has to run (On each
* instance it would interrupt after test_time.
* index: Index of the GPT to test
* mode: Non-zero value for oneshot, 0 for periodic
*/
if (sscanf(buf, "%d %d %d %d %d", &test_time, &num,
&index, &mode, &clk) == 5) {
if (gpt_request(index) == GPT_ERR_INVALID_INDEX) {
pr_err("Error configuring CE timer exit\n");
return -EINVAL;
}
/* Disable Pedestral mode */
timer_tst.gctrl = SW_PEDEMODE;
/* Set the clock to 32Khz */
timer_tst.gclk = clk;
/* Configure the timer mode oneshot/periodic */
if (mode)
timer_tst.gmode = GPT_MODE_ONESHOT;
else
timer_tst.gmode = GPT_MODE_PERIODIC;
/* Global variable to keep track */
g_gptdev[index].gpt_count = 0;
g_gptdev[index].gpt_mode = timer_tst.gmode;
g_gptdev[index].gpt_num_times = num;
g_gptdev[index].gpt_index = index;
/* Configure the timer for the above configration */
gpt_config(index, &timer_tst, gpt_isr, &g_gptdev[index]);
/* Get tick count before start for ref */
tick_time = timer_get_tick_count();
/* The timer starts here */
gpt_start(index, test_time);
/* Wait here until the timer completes the test */
while (g_gptdev[index].gpt_count < g_gptdev[index].gpt_num_times)
msleep(10);
/* Print start and end time */
pr_info("Tick time taken for gpt index %d start:%u end:%u\n",
index, tick_time, timer_get_tick_count());
/* Free timer here */
gpt_free(index);
return n;
}
return -EINVAL;
}
bool game_init(scene_t initial_scene)
{
TICKS_PER_SECOND = g_sysconfig.desired_fps;
SKIP_TICKS = (1000.0 / (double)TICKS_PER_SECOND);
MAX_FRAMESKIP = 5;
FIXED_DELTA = (1.0/TICKS_PER_SECOND);
max_timer_delta = FIXED_DELTA*2.0;
// game_paused = 0;
timer_update(&timer);
timer_update(&timer);
fs_font_load("impact20.fnt", &fps_font);
fps_font.ri.pos = vec2d_make(0.0, g_sysconfig.screen_h);
fps_font.ri.anchor_point = vec2d_make(0.0, 1.0);
scene_stack_pointer = 0;
scene_stack[scene_stack_pointer] = initial_scene;
current_scene = &scene_stack[scene_stack_pointer];
scene_stack[scene_stack_pointer].init_func(&scene_stack[scene_stack_pointer]);
scene_queue_state = S_NONE;
next_game_tick = timer_get_tick_count();
timer.delta = 0.0;
return true;
}
/*
* init_idle_profile - initialize profiling handle
*
* parameters:
* handle [in/out] - pointer to the profiling handle
*/
static void init_idle_profile(idle_handle_t * handle)
{
unsigned long flags;
spinlock_t *lockp = &get_cpu_var(idle_lock);
spin_lock_irqsave(lockp, flags);
handle->last_smtclk = timer_get_tick_count();
handle->last_idle_count = idle_count;
spin_unlock_irqrestore(lockp, flags);
put_cpu_var(idle_lock);
}
static irqreturn_t dma_interrupt_handler(int irq, void *dev_id)
{
DMA_Channel_t *channel;
DMA_DeviceAttribute_t *devAttr;
int irqStatus;
channel = (DMA_Channel_t *) dev_id;
/* */
irqStatus = dmacHw_getInterruptStatus(channel->dmacHwHandle);
dmacHw_clearInterrupt(channel->dmacHwHandle);
if ((channel->devType < 0)
|| (channel->devType > DMA_NUM_DEVICE_ENTRIES)) {
printk(KERN_ERR "dma_interrupt_handler: Invalid devType: %d\n",
channel->devType);
return IRQ_NONE;
}
devAttr = &DMA_gDeviceAttribute[channel->devType];
/* */
if ((irqStatus & dmacHw_INTERRUPT_STATUS_TRANS) != 0) {
devAttr->transferTicks +=
(timer_get_tick_count() - devAttr->transferStartTime);
}
if ((irqStatus & dmacHw_INTERRUPT_STATUS_ERROR) != 0) {
printk(KERN_ERR
"dma_interrupt_handler: devType :%d DMA error (%s)\n",
channel->devType, devAttr->name);
} else {
devAttr->numTransfers++;
devAttr->transferBytes += devAttr->numBytes;
}
/* */
if (devAttr->devHandler != NULL) {
devAttr->devHandler(channel->devType, irqStatus,
devAttr->userData);
}
return IRQ_HANDLED;
}
int dma_transfer(DMA_Handle_t handle, /* */
dmacHw_TRANSFER_TYPE_e transferType, /* */
dma_addr_t srcData, /* */
dma_addr_t dstData, /* */
size_t numBytes /* */
) {
DMA_Channel_t *channel;
DMA_DeviceAttribute_t *devAttr;
int rc = 0;
channel = HandleToChannel(handle);
if (channel == NULL) {
return -ENODEV;
}
devAttr = &DMA_gDeviceAttribute[channel->devType];
if (devAttr->config.transferType != transferType) {
return -EINVAL;
}
/* */
/* */
/* */
{
rc =
dma_alloc_descriptors(handle, transferType, srcData,
dstData, numBytes);
if (rc != 0) {
return rc;
}
}
/* */
devAttr->numBytes = numBytes;
devAttr->transferStartTime = timer_get_tick_count();
dmacHw_initiateTransfer(channel->dmacHwHandle, &devAttr->config,
devAttr->ring.virtAddr);
/* */
return 0;
}
int dma_transfer(DMA_Handle_t handle, /* DMA Handle */
dmacHw_TRANSFER_TYPE_e transferType, /* Type of transfer being performed */
dma_addr_t srcData, /* Place to get data to write to device */
dma_addr_t dstData, /* Pointer to device data address */
size_t numBytes /* Number of bytes to transfer to the device */
) {
DMA_Channel_t *channel;
DMA_DeviceAttribute_t *devAttr;
int rc = 0;
channel = HandleToChannel(handle);
if (channel == NULL) {
return -ENODEV;
}
devAttr = &DMA_gDeviceAttribute[channel->devType];
if (devAttr->config.transferType != transferType) {
return -EINVAL;
}
/* We keep track of the information about the previous request for this */
/* device, and if the attributes match, then we can use the descriptors we setup */
/* the last time, and not have to reinitialize everything. */
{
rc =
dma_alloc_descriptors(handle, transferType, srcData,
dstData, numBytes);
if (rc != 0) {
return rc;
}
}
/* And kick off the transfer */
devAttr->numBytes = numBytes;
devAttr->transferStartTime = timer_get_tick_count();
dmacHw_initiateTransfer(channel->dmacHwHandle, &devAttr->config,
devAttr->ring.virtAddr);
/* Since we got this far, everything went successfully */
return 0;
}
irqreturn_t vc_gpioirq(int irq, void *devId)
{
mphi_driver_t* mphidrv;
m_irq_slot.ctrl = 0; //data
m_irq_slot.len = timer_get_tick_count();
mphidrv = (mphi_driver_t*) devId;
assert(mphidrv);
if(vchost_gpioirq_handle(irq, devId))
{
os_event_signal(&mphidrv->rxtxavail, 0);
}
else
{
// VC_DEBUG(Trace, "vc_gpioirq: ignoring gpio irq\n");
}
return IRQ_HANDLED;
}
void FP_startProfiling(FRAME_PROFILER_HANDLE profilerHandle)
{
PROFILER *instance = (PROFILER *) profilerHandle;
if (instance->profilerState.enable) {
*instance->profilerData.pstart = timer_get_tick_count();
instance->profilerData.pstart++;
if (instance->profilerData.pstart ==
(instance->profilerData.start_temp + HISTORY_SIZE)) {
instance->profilerData.pstart =
instance->profilerData.start_temp;
gosSemTake(instance->semData);
memcpy(&instance->profilerData.start[0],
&instance->profilerData.start_temp[0],
HISTORY_SIZE *
sizeof(&instance->profilerData.start_temp[0]));
gosSemGive(instance->semData);
}
}
}
void FP_stopProfiling(FRAME_PROFILER_HANDLE profilerHandle)
{
PROFILER *instance = (PROFILER *) profilerHandle;
if (instance->profilerState.enable) {
*instance->profilerData.pend = timer_get_tick_count();
instance->profilerData.pend++;
if (instance->profilerData.pend ==
(instance->profilerData.end_temp + HISTORY_SIZE)) {
instance->profilerData.pend =
instance->profilerData.end_temp;
gosSemTake(instance->semData);
memcpy(&instance->profilerData.end[0],
&instance->profilerData.end_temp[0],
HISTORY_SIZE *
sizeof(&instance->profilerData.end_temp[0]));
gosSemGive(instance->semData);
wake_up_process(instance->profilerTask);
}
}
}
/**
* Return the MTT frame header required for MTT signal payload of specified size
*
* @param inPayloadSize (in) size of MTT payload to be sent
* @param outFrameHdrBuf (out) buffer where frame header should be stored
* (allocated by caller)
* @return int size of header written to outFrameHdrBuf or -1 on error
**/
int BCMMTT_MakeMTTSignalHeader( unsigned short inPayloadSize, unsigned char* outFrameHdrBuf )
{
unsigned char* pHbuf;
unsigned short i;
unsigned long trace_time_stamp;
trace_time_stamp = timer_get_tick_count() / 32;
pHbuf = outFrameHdrBuf;
*pHbuf++ = MTTLOG_FrameSync0;
*pHbuf++ = MTTLOG_FrameSync1;
if (CpCrashDumpInProgress())
*pHbuf++ = cp_crash_frame_counter++;
else
pHbuf++;
*pHbuf++ = MTTLOG_MttVersion;
*pHbuf++ = trace_time_stamp>>24;
*pHbuf++ = (trace_time_stamp>>16)&0xFF;
*pHbuf++ = (trace_time_stamp>>8)&0xFF;
*pHbuf++ = trace_time_stamp & 0xFF;
i = MTTLOG_MsgTypeSDL;
*pHbuf++ = i>>8;
*pHbuf++ = i & 0xFF;
*pHbuf++ = inPayloadSize>>8;
*pHbuf++ = inPayloadSize & 0xFF;
// done at logging driver to assure sequential increase of
if (CpCrashDumpInProgress())
{
*pHbuf++ = MTTLOG_Checksum16( outFrameHdrBuf, 12 );
}
else
pHbuf++;
return (int)(pHbuf - outFrameHdrBuf);
}
/*
* get_idle_profile - get the idle profiling results for the provided handle
*
* parameters:
* handle [in] - pointer to the profiling handle, must be previously initialized
* idle [out] - returns the number of idle cycles since last init or get call
* total [out] - returns the number of total cycles since last init or get call
*
* return:
* The number of cycles per second
*
* note:
* To prevent overflowing the cycle counters, the get call must be made no
* later than (2^32 / ticks_per_second) seconds from the last init or get call.
* For 1024 ticks per second, the time is 4,194,304 seconds = 48.54 days;
* For 812500 ticks per second, the time is 5286 seconds = 1 hour 28 minutes.
*/
static int get_idle_profile(idle_handle_t * handle, u32 *idle, u32 *total)
{
unsigned long flags;
spinlock_t *lockp = &get_cpu_var(idle_lock);
u32 now;
u32 cur_idle_count;
spin_lock_irqsave(lockp, flags);
now = timer_get_tick_count();
cur_idle_count = get_cpu_var(idle_count);
put_cpu_var(idle_count);
*idle = cur_idle_count - handle->last_idle_count;
*total = now - handle->last_smtclk;
handle->last_idle_count = cur_idle_count;
handle->last_smtclk = now;
spin_unlock_irqrestore(lockp, flags);
put_cpu_var(idle_lock);
return timer_get_tick_rate();
}
/* ----------------------------------------------------------------------
* queue a message for transmission. the two output channels share a
* single fifo.
*
* if the output fifo is full, this routine returns immediately with
* MPHI_ERROR_FIFO_FULL.
*
* when the message has been fully read from memory,
* MPHI_EVENT_OUT_DMA_COMPLETED is generated. note that this does
* not mean that the host has read the message; the message is placed
* in a message fifo and held until the host responds to its interrupt
* and issues the appropriate number of read cycles.
* -------------------------------------------------------------------- */
static int32_t mphi_out_queue_message(const DRIVER_HANDLE_T handle, uint8_t control,
const void *addr, size_t len, uint8_t slot_id, const MPHI_FLAGS_T flags )
{
int ret;
MPHI_HANDLE_T *mphi;
mphi_slot_t slot;
mphi = (MPHI_HANDLE_T *) handle;
slot.addr = (uint32_t)addr;
slot.len = len;
slot.id = slot_id;
slot.ctrl = control;
slot.pos = 0;
slot.flags = flags;
if(1)
{
//mphi_dumpmsg(mphi->drv, "TQ", &slot);
m_out_slot.ctrl = 0; //data
m_out_slot.len = timer_get_tick_count();
}
ret = add_slotin((MPHI_HANDLE_T*)handle, &slot);
//zrl
if (ret==0)
{
//VC_DEBUG(Trace, "mphi_out_queue_message slot\n");
os_event_signal(&(mphi->drv->rxtxavail), 1); //0
}
if(0 != ret)
{
return MPHI_ERROR_FIFO_FULL;
}
return 0;
}
timer_msec_t timer_get_msec(void)
{
return timer_ticks_to_msec(timer_get_tick_count());
}
/****************************************************************************
*
* iodump_gettime
*
* Get timestamp for info being logged.
*
***************************************************************************/
static int iodump_gettime(void)
{
return ( timer_get_tick_count() );
}
/****************************************************************************
*
* pcf506xx_process_interrupt
*
***************************************************************************/
static int pcf506xx_process_interrupt(BCM_PMU_Chip_t chip)
{
int rc;
u8 intBits[PCF506XX_MAX_NUM_INT_REGS];
u8 maskBits[PCF506XX_MAX_NUM_INT_REGS];
u32 intStatus;
u32 intMask;
int i;
u32 clk = timer_get_tick_count();
memset(intBits, 0, sizeof(intBits));
memset(maskBits, 0, sizeof(maskBits));
/* read the interrupt status registers */
rc = pmu_i2c_read_bytes(PCF506XX_REG_INT1(chip), intBits, PCF506XX_NUM_INT_REGS(chip));
if ( rc < 0)
{
printk("pcf506xx_isr - error %d reading interrupt registers.\n", rc);
return -EINVAL;
}
/* read the interrupt mask bit registers */
rc = pmu_i2c_read_bytes(PCF506XX_REG_INT1M(chip), maskBits, PCF506XX_NUM_INT_REGS(chip));
if ( rc < 0)
{
printk("pcf506xx_isr - error %d reading interrupt registers.\n", rc);
return -EINVAL;
}
/* make one big interrupt status register */
intStatus = intBits[0] | (intBits[1] << 8) | (intBits[2] << 16) | (intBits[3] << 24);
/* make one big interrupt mask register */
intMask = maskBits[0] | (maskBits[1] << 8) | (maskBits[2] << 16) | (maskBits[3] << 24);
/* apply mask, note that 0 means enabled in the mask */
intStatus &= ~intMask;
/* run ISR's for each interrupt that is not masked out */
for ( i = 0; i < PCF506XX_NUM_IRQS(chip); i++ )
{
if ( intStatus & pmu_intPriorityBit[i] )
{
if ( pmuIRQVectorTable[pmu_intPriority[i]] != NULL )
{
(*pmuIRQVectorTable[pmu_intPriority[i]])(pmu_intPriority[i]);
}
}
}
#if 0
ONE_LOG(ONE_LOG_TRACE,("PMU - intStatus 1 = 0x%x\n",intBits[0]));
ONE_LOG(ONE_LOG_TRACE,("PMU - intStatus 2 = 0x%x\n",intBits[1]));
ONE_LOG(ONE_LOG_TRACE,("PMU - intStatus 3 = 0x%x\n",intBits[2]));
ONE_LOG(ONE_LOG_TRACE,("PMU - intStatus 4 = 0x%x\n",intBits[3]));
#endif
clk = timer_get_tick_count() - clk;
if (clk > pmu_max_isr_clk)
{
pmu_max_isr_clk = clk;
}
return 0;
} /*pcf506xx_process_interrupt */
void game_did_become_active(void)
{
next_game_tick = timer_get_tick_count();
timer_update(&timer);
timer_update(&timer);
}
void game_tick(void)
{
if (scene_queue_state != S_NONE)
{
switch (scene_queue_state)
{
case S_SET:
current_scene->free_func(current_scene);
scene_stack[scene_stack_pointer] = next_scene;
current_scene = &scene_stack[scene_stack_pointer];
current_scene->init_func(current_scene);
break;
case S_PUSHED:
current_scene = &scene_stack[scene_stack_pointer];
break;
case S_POPPED:
for (int i = 0; i < pop_counter; i++)
{
scene_stack_pointer--;
if (scene_stack_pointer < 0)
{
printf("You f****d up the stack!\n");
abort();
return;
}
current_scene->free_func(current_scene);
current_scene = &scene_stack[scene_stack_pointer];
}
pop_counter = 0;
break;
default:
abort();
break;
}
scene_queue_state = S_NONE;
printf("current scene is: %p ...\n", current_scene);
next_game_tick = timer_get_tick_count();
timer_update(&timer);
timer_update(&timer);
}
timer_update(&timer);
timer_get_fps(&timer);
sprintf(fps_str, "fps: %.2f", timer.fps);
//delta based loop (don't use)
/* do while instead of just while will remove the jerkiness if we get 0 loops.
on the other hand it won't allow for eg. 30fps gameplay on a 60fps device :(
while(t > ...) instead of (while timer_get_tick_count() > ...) seems to work ... time will tell
*/
if (timer.delta > max_timer_delta)
{
unsigned int t = timer_get_tick_count();
loops = 0;
while (t > next_game_tick)// && loops < MAX_FRAMESKIP)
{
fs_input_update();
current_scene->pre_frame_func(current_scene);
current_scene->update_func(current_scene, FIXED_DELTA);
next_game_tick += SKIP_TICKS;
loops++;
}
if (loops > 0)
{
//printf("%i\n", loops);
}
}
else
{
next_game_tick = timer_get_tick_count();
fs_input_update();
current_scene->pre_frame_func(current_scene);
current_scene->update_func(current_scene, timer.delta);
}
}
/**
* Frame a string for output to MTT. Characters not in [0x20, 0x7e]
* are converted to blanks (0x20).
*
* @param p_dest (out) pointer to destination buffer
* @param p_src (in) pointer to source buffer
* @param buflen (in) size of the destination buffer
* @return int frame length, or -1 on error
**/
int BCMMTT_FrameString( char* p_dest, char* p_src, int buflen )
{
int slen = MTTLOG_StringLen(p_src);
int n;
char* pSbuf;
unsigned long systime ;
if (slen == 0)
{
return 0 ;
}
if (slen > buflen - MTTLOG_NumFrameBytes)
{
return 0 ;
}
systime = timer_get_tick_count() / 32 ;
pSbuf = p_dest;
*pSbuf++ = MTTLOG_FrameSync0;
*pSbuf++ = MTTLOG_FrameSync1;
if (CpCrashDumpInProgress())
*pSbuf++ = cp_crash_frame_counter++;
else
pSbuf++;
*pSbuf++ = MTTLOG_MttVersion;
*pSbuf++ = ( systime >> 24 ) ;
*pSbuf++ = ( systime >> 16 ) & 0xff ;
*pSbuf++ = ( systime >> 8 ) & 0xff ;
*pSbuf++ = ( systime ) & 0xff ;
*pSbuf++ = MTTLOG_MsgTypeASCII >> 8 ;
*pSbuf++ = MTTLOG_MsgTypeASCII & 0xFF ;
*pSbuf++ = slen >> 8 ;
*pSbuf++ = slen & 0xFF ;
if (CpCrashDumpInProgress())
{
n = pSbuf - p_dest ;
*pSbuf++ = MTTLOG_Checksum16((unsigned char*)p_dest, n );
}
else
pSbuf++;
while (*p_src)
{
if (*p_src < 0x20 || *p_src > 0x7E) // [0x20 .. 0x7E] is range of 'printable' characters
{
*pSbuf++ = ' ';
p_src++;
}
else
{
*pSbuf++ = *p_src++;
}
}
n = MTTLOG_Checksum16((unsigned char*)(pSbuf-slen), slen);
*pSbuf++ = n >> 8 ;
*pSbuf++ = n & 0xFF ;
return MTTLOG_NumFrameBytes + slen ;
}
/* helper routine to obtain hardware time stamp */
static int getTime( void )
{
return ( timer_get_tick_count() );
}
int mphi_dumpmsg(mphi_driver_t* drv, const char* prefix, mphi_slot_t* slotptr)
{
const uint32_t ctrlid = MAKE_FOURCC("LRTC");
uint8_t* addr = (uint8_t*)slotptr->addr;
uint32_t cmd, paylen, i;
static int cnt = 0;
char str[0x100];
int len;
if(slotptr->ctrl && gVcDebug_SID != 0)
// if(gVcDebug_SID != 0)
{
if(*(uint32_t*) (addr + 4) != gVcDebug_SID)
{
return 0;
}
}
++cnt;
len = 0;
len += sprintf(str + len, "[%04d %08u] %s %c tlen=%u ",
cnt, timer_get_tick_count(),
prefix, slotptr->ctrl ? 'c' : 'd', slotptr->len);
if(slotptr->ctrl)
{
paylen = *(uint16_t*)(addr + 0xE);
len += sprintf(str + len, "sid=%c%c%c%c slotcnt=0x%04X paylen=0x%04X ",
addr[4], addr[5], addr[6], addr[7],
*(uint16_t*)(addr + 0xC),
paylen);
if(*(uint32_t*)(addr + 4) == ctrlid && paylen > 0)
{
addr += 0x10;
cmd = *(uint32_t*)(addr);
switch(cmd)
{
case BULK_TRANSFER_RX:
{
len += sprintf(str + len, "cmd=%s(%d) sid=%c%c%c%c(%02X%02X%02X%02X) sz=0x%08X",
mphi_ctrlcmd2str(cmd), cmd,
addr[4], addr[5], addr[6], addr[7],
addr[4], addr[5], addr[6], addr[7],
*(uint32_t*)(addr + 0x8));
break;
}
case XON:
case XOFF:
{
len += sprintf(str + len, "cmd=%s(%d) sid=%c%c%c%c",
mphi_ctrlcmd2str(cmd), cmd,
addr[4], addr[5], addr[6], addr[7]
);
break;
}
default:
{
len += sprintf(str + len, "cmd=%s(%d) 0x%08X 0x%08X 0x%08X",
mphi_ctrlcmd2str(cmd), cmd,
*(uint32_t*)(addr + 0x4),
*(uint32_t*)(addr + 0x8),
*(uint32_t*)(addr + 0xC));
break;
}
}
}
else
{
addr += 0x10;
for(i = 0; i < paylen && i < 0x18; i +=2)
{
len += sprintf(str + len, "%04X ", *(uint16_t*) addr);
addr += 2;
}
}
}
len += sprintf(str + len, "\n");
if ( gVcDebugMphiDumpMsg )
{
printk( KERN_INFO "%s", str );
}
MPHI_LOGSTR(drv, str, len);
return 0;
}
