void IPC_FreeBuffer(IPC_Buffer Buffer)
{
IPC_Buffer_T *BufferPtr = IPC_BufferToPtr(Buffer);
IPC_CPU_ID_T OwningCpu;
if (BufferPtr == 0) {
IPC_TRACE(IPC_Channel_Error, "IPC_FreeBuffer",
"Invalid Buffer %08X", Buffer, 0, 0, 0);
return;
}
if (BufferPtr->StatusCode == IPC_BUFFER_STATUS_FREE) {
IPC_TRACE(IPC_Channel_Error, "IPC_FreeBuffer",
"Repeated Free Buffer %08X", Buffer, 0, 0, 0);
return;
}
OwningCpu = IPC_PoolOwningCpu(BufferPtr->Pool);
BufferPtr->TimeStampFree = TIMER_GetValue();
BufferPtr->StatusCode = IPC_BUFFER_STATUS_FREE;
if (OwningCpu == IPC_SM_CURRENT_CPU) {
IPC_TRACE(IPC_Channel_Buffer, "IPC_FreeBuffer",
"Buffer %08X, ID %d Same CPU ", Buffer,
BufferPtr->BufferId, 0, 0);
IPC_BufferReturn(Buffer, BufferPtr->Pool);
} else {
IPC_TRACE(IPC_Channel_Buffer, "IPC_FreeBuffer",
"Buffer %08X, ID %d Other CPU", Buffer,
BufferPtr->BufferId, 0, 0);
IPC_SmFreeBuffer(Buffer, OwningCpu);
}
}
const char *show_box_cb(guiObject_t *obj, const void *data)
{
(void)obj;
u8 idx = (long)data;
#if HAS_RTC
if (idx <= NUM_RTC) {
u32 time = RTC_GetValue();
idx == 1 ? RTC_GetTimeFormatted(tempstring, time) : RTC_GetDateFormatted(tempstring, time);
return tempstring;
}
#endif
if (idx - NUM_RTC <= NUM_TIMERS) {
TIMER_SetString(tempstring, TIMER_GetValue(idx - NUM_RTC - 1));
} else if(idx - NUM_RTC - NUM_TIMERS <= NUM_TELEM) {
TELEMETRY_GetValueStr(tempstring, idx - NUM_RTC - NUM_TIMERS);
} else {
unsigned channel = idx - (NUM_RTC + NUM_TIMERS + NUM_TELEM + 1);
s16 val_raw = MIXER_GetChannel(channel, APPLY_SAFETY | APPLY_SCALAR);
s16 val_scale = MIXER_GetChannelDisplayScale(channel);
const char* val_format = MIXER_GetChannelDisplayFormat(channel);
sprintf(tempstring, val_format, val_raw/val_scale);
}
return tempstring;
}
IPC_ReturnCode_T IPC_SendBuffer(IPC_Buffer Buffer, IPC_Priority_T Priority)
{
IPC_Buffer_T *BufferPtr = IPC_BufferToPtr(Buffer);
IPC_TRACE(IPC_Channel_Buffer, "IPC_SendBuffer",
"Buffer %d (%08X), Priority %d", BufferPtr->BufferId, Buffer,
Priority, 0);
if (BufferPtr == 0) {
IPC_TRACE(IPC_Channel_Error, "IPC_SendBuffer",
"Invalid Buffer %08X", Buffer, 0, 0, 0);
return IPC_ERROR;
}
BufferPtr->TimeStampSend = TIMER_GetValue();
BufferPtr->StatusCode = IPC_BUFFER_STATUS_SENT;
IPC_PoolAddBytesSent(BufferPtr->Pool,
BufferPtr->DataSize + BufferPtr->HeaderSize);
#ifdef IPC_BUFFER_STATS
/* Debug output - turned off by default for performance */
if (BufferPtr->BufferId == 0 && 0 == LISR_Active)
IPC_PoolDumpStats(BufferPtr->Pool);
#endif
IPC_SmSendBuffer(Buffer);
return IPC_OK;
}
/****************************************************************
* Called from the IPC interrupt service thread in ipc_server.c
* to check if CP has crashed.
*
* @return int 0 if CP not crashed, 1 otherwise
*
*****************************************************************/
int IpcCPCrashCheck(void)
{
IPC_CrashCode_T CpCrashReason;
IPC_U32 *Dump;
crashCount = 0;
if (!SmLocalControl.ConfiguredReported) {
IPC_DEBUG(DBG_TRACE, "IPC Not Initialised\n");
return 0;
}
/* Get the crash reason and crash dump location */
CpCrashReason = SmLocalControl.SmControl->CrashCode;
Dump = (void *)SmLocalControl.SmControl->CrashDump;
if (IPC_CP_NOT_CRASHED != CpCrashReason &&
IPC_CP_MAX_CRASH_CODE > CpCrashReason && NULL != Dump) {
crashCount++;
IPC_DEBUG(DBG_ERROR,
"CP Crashed!! CP Ticks[%ld] reason:%d count:%d Dump:0x%X\n",
TIMER_GetValue(), CpCrashReason, crashCount,
(unsigned int)Dump);
if (crashCount > 1)
return 0;
return 1;
}
return 0;
}
static void IPC_RaiseInterrupt(void)
{
IPC_U32 Cpu = IPC_CPU_ID_INDEX(IPC_SM_CURRENT_CPU);
IPC_U32 IrqRaised = SmLocalControl.SmControl->IrqCounts[Cpu].IrqRaised;
SmLocalControl.SmControl->IrqTime[Cpu][IrqRaised % 4].IrqRaiseTime
= TIMER_GetValue();
SmLocalControl.SmControl->IrqCounts[Cpu].IrqRaised++;
(*SmLocalControl.RaiseInterrupt)();
}
int RpcLog_DebugPrintf(char* fmt, ...)
{
#if 0 // blocked RPC LOG - jaesub.kim
#ifdef CONFIG_BRCM_UNIFIED_LOGGING
va_list ap;
va_start(ap, fmt);
vsnprintf(buf, MAX_BUF_SIZE, fmt, ap);
va_end(ap);
KRIL_DEBUG(DBG_INFO, "TS[%ld]%s\n", TIMER_GetValue(), buf);
#else
if(IsBasicCapi2LoggingEnable())
{
va_list ap;
va_start(ap, fmt);
vsnprintf(buf, MAX_BUF_SIZE, fmt, ap);
va_end(ap);
pr_info("TS[%ld]%s",TIMER_GetValue(),buf);
}
#endif
#endif
return 1;
}
void IPC_ApSleepModeSet(IPC_Boolean inSleep)
{
static IPC_U32 sleepCount = 0;
static IPC_U32 resumeCount = 0;
if (!inSleep)
{
IPC_AlignTime();
SmLocalControl.SmControl->ApSleepTime[resumeCount % 4].ResumeTime
= TIMER_GetValue();
resumeCount ++;
}
else
{
SmLocalControl.SmControl->ApSleepTime[sleepCount % 4].SleepTime
= TIMER_GetValue();
sleepCount ++;
}
IPC_TRACE(IPC_Channel_General, "IPC_ApSleepModeSet",
"state %d time %u",
inSleep, TIMER_GetValue(), 0, 0);
}
s32 get_boxval(u8 idx)
{
#if HAS_RTC
if (idx <= NUM_RTC) {
u32 time = RTC_GetValue();
return idx == 1 ? RTC_GetTimeValue(time) : RTC_GetDateValue(time);
}
#endif
if (idx - NUM_RTC <= NUM_TIMERS)
return TIMER_GetValue(idx - NUM_RTC - 1);
if(idx - NUM_RTC - NUM_TIMERS <= NUM_TELEM)
return TELEMETRY_GetValue(idx - NUM_RTC - NUM_TIMERS);
return RANGE_TO_PCT(MIXER_GetChannel(idx - (NUM_RTC + NUM_TIMERS + NUM_TELEM + 1), APPLY_SAFETY | APPLY_SCALAR));
}
const char *show_box_cb(guiObject_t *obj, const void *data)
{
(void)obj;
u8 idx = (long)data;
#if HAS_RTC
if (idx <= NUM_RTC) {
u32 time = RTC_GetValue();
idx == 1 ? RTC_GetTimeFormatted(tempstring, time) : RTC_GetDateFormatted(tempstring, time);
return tempstring;
}
#endif
if (idx - NUM_RTC <= NUM_TIMERS) {
TIMER_SetString(tempstring, TIMER_GetValue(idx - NUM_RTC - 1));
} else if(idx - NUM_RTC - NUM_TIMERS <= NUM_TELEM) {
TELEMETRY_GetValueStr(tempstring, idx - NUM_RTC - NUM_TIMERS);
} else {
sprintf(tempstring, "%3d%%", RANGE_TO_PCT(MIXER_GetChannel(idx - (NUM_RTC + NUM_TIMERS + NUM_TELEM + 1), APPLY_SAFETY | APPLY_SCALAR)));
}
return tempstring;
}
void IPC_UpdateIrqStats(void)
{
IPC_U32 Cpu, PeerCpu;
IPC_U32 IrqHandled, PeerIrqRaised;
Cpu = IPC_CPU_ID_INDEX(IPC_SM_CURRENT_CPU);
if (IPC_SM_CURRENT_CPU == IPC_AP_CPU) {
PeerCpu = IPC_CPU_ID_INDEX(IPC_CP_CPU);
} else {
PeerCpu = IPC_CPU_ID_INDEX(IPC_AP_CPU);
}
IrqHandled = SmLocalControl.SmControl->IrqCounts[Cpu].IrqHandled;
PeerIrqRaised = SmLocalControl.SmControl->IrqCounts[PeerCpu].IrqRaised;
SmLocalControl.SmControl->IrqTime[Cpu][IrqHandled % 4].IrqHandleTime
= TIMER_GetValue();
// save a copy of IRQ raise time to compare with IRQ handle time
SmLocalControl.SmControl->IrqTime[Cpu][IrqHandled % 4].IrqRaiseTimeCopy
= SmLocalControl.SmControl->IrqTime[PeerCpu][(PeerIrqRaised + 3) % 4].IrqRaiseTime;
SmLocalControl.SmControl->IrqCounts[Cpu].IrqHandled++;
}
/******************************************************************
* Utility function to retrieve full crash log from CP via simple
* handshake protocol.
*
*
********************************************************************/
void DUMP_CP_assert_log(void)
{
UInt32 t1, i, size, retryCount;
UInt8 *p;
UInt32 packetCount = 0;
void __iomem *AssertLogVAddr = NULL;
struct file *sdDumpFile = NULL;
int cpReset = SmLocalControl.SmControl->CrashCode ==
IPC_CP_SILENT_RESET_READY;
/* put logging driver into crash dump mode; messages will be sent
* straight out to MTT via RNDIS (or dump file) instead of buffering
* in RING buffer (flood of crash dump info overloads ring buffer
* otherwise,and we lose a lot of crash dump info)
* NOTE: crash dump is put into SD by default; if SD file fails to open,
* then we'll try sending it out RNDIS */
BCMLOG_StartCpCrashDump(sdDumpFile, cpReset);
/* only grab RAM dump for CP reset case */
if (!cpReset) {
retryCount = 0;
while (1) {
t1 = TIMER_GetValue();
/* signal to CP that we're ready to rx crash log... */
SmLocalControl.SmControl->CrashCode =
IPC_AP_CLEAR_TO_SEND;
/* wait for CP to "dump"; CrashCode field will be
* set to physical address of current assert buf */
while (SmLocalControl.SmControl->CrashCode ==
IPC_AP_CLEAR_TO_SEND) {
for (i = 0; i < 256; i++)
;
if (TIMER_GetValue() - t1 >
TICKS_ONE_SECOND * 20)
break;
}
/* check for time out */
if (SmLocalControl.SmControl->CrashCode ==
IPC_AP_CLEAR_TO_SEND) {
if (retryCount < MAX_CP_DUMP_RETRIES) {
retryCount++;
IPC_DEBUG(
DBG_TRACE,
"timeout %d, trying again..\n",
(int)retryCount);
continue;
} else {
/* no response from CP,
* so get out of here
*/
IPC_DEBUG(
DBG_ERROR,
"Abort --- max retries %d reached\n",
(int)retryCount);
break;
}
}
/* reset retry counter */
retryCount = 0;
/* get virtual address of CP assert buffer */
AssertLogVAddr = ioremap_nocache(
(UInt32)
(SmLocalControl.SmControl->CrashCode),
ASSERT_BUF_SIZE);
if (NULL == AssertLogVAddr) {
IPC_DEBUG(DBG_ERROR,
"ioremap_nocache failed in DUMP_CP_assert_log\n");
break;
}
p = (UInt8 *)AssertLogVAddr;
/* number of bytes in assert buffer */
size = (p[0] << 8) + p[1];
/* size of 0 means CP is done dumping assert log */
if (size == 0) {
IPC_DEBUG(DBG_ERROR,
"assert log size 0, exiting, packetCount:0x%x\n",
(int)packetCount);
iounmap(AssertLogVAddr);
AssertLogVAddr = NULL;
break;
}
/* sanity check for too beaucoup... */
if (size > ASSERT_BUF_SIZE - 2) {
IPC_DEBUG(DBG_ERROR,
"Abort --- improper size [%08x]=%d\n",
SmLocalControl.SmControl->CrashCode,
(int)size);
iounmap(AssertLogVAddr);
AssertLogVAddr = NULL;
break;
}
/* send packet out to log
* (MTT via RNDIS or crash dump file)
*/
BCMLOG_HandleCpCrashDumpData((const char *)(p + 2),
size);
packetCount++;
iounmap(AssertLogVAddr);
AssertLogVAddr = NULL;
}
}
RpcDbgDumpHistoryLogging(2, 1);
IPC_DEBUG(DBG_ERROR, "Starting CP RAM dump - do not power down...\n");
/* dump all CP memory to log */
DUMP_CPMemoryByList(dumped_crash_summary_ptr->mem_dump);
IPC_DEBUG(DBG_ERROR, "CP RAM dump complete\n");
/* resume normal logging activities... */
BCMLOG_EndCpCrashDump();
if (BCMLOG_OUTDEV_SDCARD == BCMLOG_GetCpCrashLogDevice())
sys_sync();
IPC_DEBUG(DBG_ERROR, "CP crash dump complete\n");
if ((BCMLOG_OUTDEV_SDCARD == BCMLOG_GetCpCrashLogDevice())
&& cp_crashed == 1 && !cpReset)
abort();
}
/**
* Utility function to retrieve full crash log from CP via simple handshake
* protocol.
*
*
********************************************************************************/
void DUMP_CP_assert_log(void)
{
UInt32 t0, t1, i, size, retryCount;
UInt8 *p;
UInt32 packetCount = 0;
void __iomem *AssertLogVAddr = NULL;
struct file* sdDumpFile = NULL;
mm_segment_t oldfs;
struct timespec ts;
struct rtc_time tm;
char assertFileName[CP_CRASH_DUMP_MAX_LEN];
extern void abort(void);
// need to tell kernel that pointers from within the
// kernel address space are valid (needed to do
// file ops from kernel)
oldfs = get_fs();
set_fs (KERNEL_DS);
if( BCMLOG_CPCRASH_SDCARD == BCMLOG_GetCpCrashDumpDevice() )
{
// get current time
getnstimeofday(&ts);
rtc_time_to_tm(ts.tv_sec, &tm);
snprintf(assertFileName, CP_CRASH_DUMP_MAX_LEN,
"%s%s%d_%02d_%02d_%02d_%02d_%02d%s",
CP_CRASH_DUMP_DIR,
CP_CRASH_DUMP_BASE_FILE_NAME,
tm.tm_year + 1900, tm.tm_mon + 1, tm.tm_mday,
tm.tm_hour, tm.tm_min, tm.tm_sec,
CP_CRASH_DUMP_FILE_EXT );
sdDumpFile = filp_open( assertFileName, O_WRONLY|O_TRUNC|O_LARGEFILE|O_CREAT, 666);
if ( IS_ERR(sdDumpFile) )
{
IPC_DEBUG(DBG_ERROR,"failed to open sdDumpFile %s\n", assertFileName);
sdDumpFile = NULL;
}
else
{
IPC_DEBUG(DBG_ERROR,"sdDumpFile %s opened OK\n",assertFileName);
}
}
// put logging driver into crash dump mode; messages will be sent straight out to MTT via
// RNDIS (or dump file) instead of buffering in RING buffer (flood of crash dump info
// overloads ring buffer otherwise, and we lose a lot of crash dump info)
// NOTE: crash dump is put into SD by default; if SD file fails to open, then we'll try
// sending it out RNDIS
BCMLOG_StartCpCrashDump( sdDumpFile );
retryCount = 0;
t0 = TIMER_GetValue();
while (1)
{
t1 = TIMER_GetValue();
// signal to CP that we're ready to receive crash log...
SmLocalControl.SmControl->CrashCode = IPC_AP_CLEAR_TO_SEND;
// wait for CP to "dump"; CrashCode field will be set to physical address of current assert buf
while (SmLocalControl.SmControl->CrashCode == IPC_AP_CLEAR_TO_SEND)
{
for (i=0; i<256; i++);
if (TIMER_GetValue() - t1 > TICKS_ONE_SECOND * 20) break;
}
// check for time out
if (SmLocalControl.SmControl->CrashCode == IPC_AP_CLEAR_TO_SEND)
{
if ( retryCount < MAX_CP_DUMP_RETRIES )
{
retryCount++;
IPC_DEBUG(DBG_ERROR,"timeout %d, trying again...\n", (int)retryCount);
continue;
}
else
{
// no response from CP, so get out of here
IPC_DEBUG(DBG_ERROR,"Abort --- max retries %d reached\n", (int)retryCount);
break;
}
}
// reset retry counter
retryCount = 0;
// get virtual address of CP assert buffer
AssertLogVAddr = ioremap_nocache((UInt32)(SmLocalControl.SmControl->CrashCode), ASSERT_BUF_SIZE);
if(NULL == AssertLogVAddr)
{
IPC_DEBUG(DBG_ERROR, "ioremap_nocache failed in DUMP_CP_assert_log\n");
break;
}
p = (UInt8 *)AssertLogVAddr;
// number of bytes in assert buffer
size = (p[0] << 8) + p[1];
// size of 0 means CP is done dumping assert log
if (size == 0)
{
IPC_DEBUG(DBG_INFO, "assert log size 0, exiting, packetCount:0x%x\n", (int)packetCount);
iounmap(AssertLogVAddr);
AssertLogVAddr = NULL;
break;
}
// sanity check for too beaucoup...
if (size > ASSERT_BUF_SIZE - 2)
{
IPC_DEBUG(DBG_ERROR, "Abort --- improper size [%08x]=%d\n", SmLocalControl.SmControl->CrashCode, (int)size);
iounmap(AssertLogVAddr);
AssertLogVAddr = NULL;
break;
}
// send packet out to log (MTT via RNDIS or crash dump file)
BCMLOG_HandleCpCrashDumpData( (const char*)(p+2), size );
packetCount++;
iounmap(AssertLogVAddr);
AssertLogVAddr = NULL;
#if 0
// **FIXME** this is Nucleus timeout code - do we want something similar
// for Android? Maybe if we get to the point of restarting CP with
// restarting AP
if (TIMER_GetValue() - t0 > TICKS_ONE_SECOND * 10 * 60)
{
IPC_DEBUG(DBG_ERROR,"Abort --- CP assertion log too long\n");
break;
}
#endif
}
IPC_DEBUG(DBG_ERROR,"Starting CP RAM dump - do not power down...\n");
// dump all CP memory to log
DUMP_CPMemoryByList( dumped_crash_summary_ptr->mem_dump );
IPC_DEBUG(DBG_ERROR,"CP RAM dump complete\n");
// resume normal logging activities...
BCMLOG_EndCpCrashDump( );
if ( sdDumpFile )
{
filp_close( sdDumpFile ,NULL );
}
set_fs (oldfs);
sys_sync();
IPC_DEBUG(DBG_ERROR,"CP crash dump complete\n");
if (BCMLOG_CPCRASH_MTD != BCMLOG_GetCpCrashDumpDevice())
abort();
#ifdef CONFIG_BRCM_KPANIC_UI_IND
else
lcdc_disp_img(IMG_INDEX_END_DUMP); //parameter 1: Draw the Kpanic Dump complete picture
#endif
}
IPC_Buffer IPC_AllocateBufferWait(IPC_BufferPool Pool, IPC_U32 MilliSeconds)
{
IPC_BufferPool_T *PoolPtr = IPC_PoolToPtr(Pool);
IPC_Buffer Buffer;
IPC_ReturnCode_T errCode;
UInt32 curTick, endTick;
UInt32 beforeTick, afterTick;
curTick = 0;
endTick = MilliSeconds;
while (curTick < endTick) {
/* Try straight allocate first
(saves event operations most of the time) */
Buffer = IPC_AllocateBuffer(Pool);
if (Buffer)
return Buffer;
/* Check Event exists */
if (!PoolPtr->EmptyEvent) {
/* Can't suspend without an event flag */
IPC_TRACE(IPC_Channel_Error, "IPC_AllocateBufferWait",
"No Event Flag for Pool %08X", Pool, 0, 0, 0);
return 0;
}
/* Clear event before waiting on it */
if (IPC_OK != IPC_EVENT_CLEAR(PoolPtr->EmptyEvent)) {
IPC_TRACE(IPC_Channel_Error, "IPC_AllocateBufferWait",
"Cannot clear Event Flag %08P for Pool %08X",
PoolPtr->EmptyEvent, Pool, 0, 0);
return 0;
}
/* Check in case the event was set before the clear */
Buffer = IPC_AllocateBuffer(Pool);
if (Buffer)
return Buffer;
/* Now can safely wait for the event to be set
* by the buffer free */
IPC_TRACE(IPC_Channel_FlowControl, "IPC_AllocateBufferWait",
"Pool %08X Empty, waiting for %d Milliseconds, total=%d",
Pool, (endTick - curTick), MilliSeconds, 0);
beforeTick = TIMER_GetValue();
errCode =
IPC_EVENT_WAIT(PoolPtr->EmptyEvent, (endTick - curTick));
afterTick = TIMER_GetValue();
/* Handle wrap around for 0xFFFFFFFF */
curTick += (UInt32)(afterTick - beforeTick);
if (IPC_ERROR == errCode) {
IPC_TRACE(IPC_Channel_Error, "IPC_AllocateBufferWait",
"Error from IPC_EVENT_WAIT; Event Flag %08P for Pool %08X",
PoolPtr->EmptyEvent, Pool, 0, 0);
return 0;
} else if (IPC_OK == errCode) {
continue; /* retry */
} else { /* IPC_TIMEOUT */
break;
}
}
return IPC_AllocateBuffer(Pool);
}
IPC_Buffer IPC_AllocateBuffer(IPC_BufferPool Pool)
{
CRITICAL_REIGON_SETUP IPC_BufferPool_T *PoolPtr = IPC_PoolToPtr(Pool);
IPC_SmQEntry QElement;
IPC_U32 BufferCount;
IPC_Buffer Buffer;
IPC_Boolean FlowControlCallNeeded = IPC_FALSE;
if (!Pool) {
IPC_TRACE(IPC_Channel_Error, "IPC_AllocateBuffer",
"Invalid Pool %08X", Pool, 0, 0, 0);
return 0;
}
CRITICAL_REIGON_ENTER(PoolPtr->Lock);
QElement = IPC_QGetFirst(IPC_POOLFreeQ(Pool));
if (!QElement) {
PoolPtr->FlowControlState = IPC_FLOW_STOP;
PoolPtr->AllocationFailures++;
CRITICAL_REIGON_LEAVE(PoolPtr->Lock);
if (PoolPtr->DestinationEndpointId != IPC_EP_LogApps)
IPC_TRACE(IPC_Channel_FlowControl,
"IPC_ReportFlowControlEvent",
"Pool %08X Empty, Allocations %d AllocationFailures %d FlowStopCalls %d",
Pool, PoolPtr->Allocations,
PoolPtr->AllocationFailures,
PoolPtr->FlowStopCalls);
return 0;
}
#ifdef IPC_DEBUG
IPC_QAddBack(QElement, IPC_SmOffset(&PoolPtr->AllocatedBufferQ));
#endif
BufferCount = --PoolPtr->FreeBuffers;
/* Flow Control Check */
if (BufferCount == PoolPtr->FlowStopLimit)
CHECK_FLOW_STATE(PoolPtr, IPC_FLOW_STOP, FlowControlCallNeeded)
CRITICAL_REIGON_LEAVE(PoolPtr->Lock);
if (FlowControlCallNeeded)
IPC_ReportFlowControlEvent(PoolPtr, IPC_FLOW_STOP);
Buffer = IPC_QEntryPtr(QElement)->Item;
if (Buffer) {
IPC_Buffer_T *BufferPtr = IPC_SmOffsetToPointer(IPC_Buffer_T,
Buffer);
BufferPtr->HeaderSize = 0;
BufferPtr->DataSize = 0;
BufferPtr->UserParameter = 0;
BufferPtr->TimeStampAlloc = TIMER_GetValue();
BufferPtr->StatusCode = IPC_BUFFER_STATUS_ALLOC;
BufferPtr->DataOffset = BufferPtr->DataBufferStart +
IPC_PoolPtr(BufferPtr->Pool)->MaxHeaderSize;
}
IPC_TRACE(IPC_Channel_Buffer, "IPC_AllocateBuffer",
"Buf %d (%08X) Pool %08X, %d Left", IPC_BufferId(Buffer),
Buffer, Pool, BufferCount);
/* Update Statistics */
PoolPtr->Allocations++;
if (BufferCount < PoolPtr->LowWaterMark)
PoolPtr->LowWaterMark = BufferCount;
return Buffer;
}
