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windows-nt/Source/XPSP1/NT/base/tools/kdexts2/qlocks.c
CryptoAlgo Inc b3cac27891 Add source files
2020-09-26 16:20:57 +08:00

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/*++
Copyright (c) 1992 Microsoft Corporation
Module Name:
qlocks.c
Abstract:
WinDbg Extension Api
Author:
David N. Cutler (davec) 25-Sep-1999
Environment:
User Mode.
Revision History:
--*/
#include "precomp.h"
#pragma hdrstop
//
// Define queued lock data.
//
#define NUMBER_PROCESSORS 32
#define NUMBER_PROCESSORS_X86 32
#define NUMBER_PROCESSORS_IA64 64
#if (NUMBER_PROCESSORS_IA64 < MAXIMUM_PROCESSORS)
#error "Update NUMBER_PROCESSORS definition"
#endif
UCHAR Key[NUMBER_PROCESSORS];
#define KEY_CORRUPT 255
#define KEY_OWNER 254
#define KEY_NOTHING 253
typedef struct KSPIN_LOCK_QUEUE_READ {
ULONG64 Next;
ULONG64 Lock;
} KSPIN_LOCK_QUEUE_READ;
KSPIN_LOCK_QUEUE_READ LockQueue[NUMBER_PROCESSORS_IA64][LockQueueMaximumLock];
ULONG64 ProcessorBlock[NUMBER_PROCESSORS_IA64];
ULONG64 SpinLock[LockQueueMaximumLock];
typedef struct _LOCK_NAME {
KSPIN_LOCK_QUEUE_NUMBER Number;
PCHAR Name;
} LOCK_NAME, *PLOCK_NAME;
LOCK_NAME LockName[] = {
{ LockQueueDispatcherLock, "KE - Dispatcher " },
{ LockQueueContextSwapLock, "KE - Context Swap " },
{ LockQueuePfnLock, "MM - PFN " },
{ LockQueueSystemSpaceLock, "MM - System Space " },
{ LockQueueVacbLock, "CC - Vacb " },
{ LockQueueMasterLock, "CC - Master " },
{ LockQueueNonPagedPoolLock, "EX - NonPagedPool " },
{ LockQueueIoCancelLock, "IO - Cancel " },
{ LockQueueWorkQueueLock, "EX - WorkQueue " },
{ LockQueueIoVpbLock, "IO - Vpb " },
{ LockQueueIoDatabaseLock, "IO - Database " },
{ LockQueueIoCompletionLock, "IO - Completion " },
{ LockQueueNtfsStructLock, "NTFS - Struct " },
{ LockQueueAfdWorkQueueLock, "AFD - WorkQueue " },
{ LockQueueBcbLock, "CC - Bcb " },
{ LockQueueMaximumLock, NULL },
};
//
// Define forward referenced prototypes.
//
ULONG
ProcessorIndex (
ULONG64 LockAddress,
ULONG LockIndex
);
DECLARE_API( qlocks )
/*++
Routine Description:
Dump kernel mode queued spinlock status.
Arguments:
None.
Return Value:
None.
--*/
{
BOOL Corrupt;
ULONG HighestProcessor;
ULONG Index;
KSPIN_LOCK_QUEUE_READ *LockOwner;
ULONG Last;
ULONG Loop;
ULONG64 MemoryAddress;
ULONG Number;
ULONG Result;
CHAR Sequence;
ULONG LockQueueOffset;
ULONG Processor;
ULONG PtrSize = DBG_PTR_SIZE;
ULONG SizeOfQ = GetTypeSize("nt!KSPIN_LOCK_QUEUE");
ULONG MaximumProcessors;
MaximumProcessors = (UCHAR) GetUlongValue("NT!KeNumberProcessors");
// IsPtr64() ? NUMBER_PROCESSORS_IA64 : NUMBER_PROCESSORS_X86;
//
// Get address of processor block array and read entire array.
//
MemoryAddress = GetExpression("nt!KiProcessorBlock");
if (MemoryAddress == 0) {
//
// Either the processor block address is zero or the processor
// block array could not be read.
//
dprintf("Unable to read processor block array\n");
return E_INVALIDARG;
}
HighestProcessor = 0;
for (Index = 0; Index < MaximumProcessors; Index++) {
if (!ReadPointer(MemoryAddress + Index*PtrSize, &ProcessorBlock[Index])) {
dprintf("Unable to read processor block array\n");
return E_INVALIDARG;
}
if (ProcessorBlock[Index] != 0) {
HighestProcessor = Index;
}
}
if (GetFieldOffset("nt!KPRCB", "LockQueue", &LockQueueOffset)) {
dprintf("Unable to read KPRCB.LockQueue offset.\n");
return E_INVALIDARG;
}
//
// Read the lock queue information for each processor.
//
for (Index = 0; Index < MaximumProcessors; Index += 1) {
RtlZeroMemory(&LockQueue[Index][0],
sizeof(KSPIN_LOCK_QUEUE_READ) * LockQueueMaximumLock);
if (ProcessorBlock[Index] != 0) {
ULONG j;
for (j=0; j< LockQueueMaximumLock; j++) {
if (GetFieldValue(ProcessorBlock[Index] + LockQueueOffset + j*SizeOfQ,
"nt!KSPIN_LOCK_QUEUE",
"Next",
LockQueue[Index][j].Next)) {
//
// Lock queue information could not be read for the respective
// processor.
//
dprintf("Unable to read lock queue information for processor %d @ %p\n",
Index, ProcessorBlock[Index]);
return E_INVALIDARG;
}
GetFieldValue(ProcessorBlock[Index] + LockQueueOffset + j*SizeOfQ,
"nt!KSPIN_LOCK_QUEUE",
"Lock",
LockQueue[Index][j].Lock);
}
}
}
//
// Read the spin lock information for each queued lock.
//
for (Index = 0; Index < LockQueueMaximumLock; Index += 1) {
SpinLock[Index] = 0;
if (LockQueue[0][Index].Lock != 0) {
if (GetFieldValue(LockQueue[0][Index].Lock & ~(LOCK_QUEUE_WAIT | LOCK_QUEUE_OWNER),
"nt!PVOID", // KSPIN_LOCK == ULONG_PTR, this would sign-extens it
NULL,
SpinLock[Index])) {
//
// Spin lock information could not be read for the respective
// queued lock.
//
dprintf("Unable to read spin lock information for queued lock %d\n",
Index);
return E_INVALIDARG;
}
}
}
//
// Verify that the kernel spin lock array is not corrupt. Each entry in
// this array should either be zero or contain the address of the correct
// lock queue entry in one of the processor control blocks.
//
Corrupt = FALSE;
for (Index = 0; Index < LockQueueMaximumLock && (LockName[Index].Name != NULL); Index += 1) {
if (SpinLock[Index] != 0) {
if (ProcessorIndex(SpinLock[Index], Index) == 0) {
Corrupt = TRUE;
dprintf("Kernel spin lock %s is corrupt.\n", LockName[Index].Name);
}
}
}
//
// Verify that all lock queue entries are not corrupt. Each lock queue
// entry should either have a next field of NULL of contain the address
// of the correct lock queue entry in one of the processor control blocks.
//
for (Loop = 0; Loop < NUMBER_PROCESSORS; Loop += 1) {
for (Index = 0; Index < LockQueueMaximumLock; Index += 1) {
if (LockQueue[Loop][Index].Next != 0) {
if (ProcessorIndex(LockQueue[Loop][Index].Next, Index) == 0) {
Corrupt = TRUE;
dprintf("Lock entry %d for processor %d is corrupt\n",
Index,
Loop);
}
}
}
}
if (Corrupt != FALSE) {
return E_INVALIDARG;
}
//
// Output key information and headings.
//
dprintf("Key: O = Owner, 1-n = Wait order, blank = not owned/waiting, C = Corrupt\n\n");
dprintf(" Processor Number\n");
dprintf(" Lock Name ");
for (Index = 0; Index <= HighestProcessor; Index++) {
dprintf("%3d", Index);
}
dprintf("\n\n");
//
// Process each queued lock and output owner information.
//
for (Index = 0; Index < LockQueueMaximumLock && (LockName[Index].Name != NULL); Index += 1) {
if (Index != (ULONG) LockName[Index].Number) {
dprintf("ERROR: extension bug: name array does not match queued lock list!\n");
break;
}
dprintf("%s", LockName[Index].Name);
//
// If the lock is owned, then find the owner and any waiters. Output
// the owner and waiters in order.
//
// If the lock is not owned, then check the consistency of lock queue
// entries. They should all contain next pointer of NULL and both the
// owner and wait flags should be clear.
//
RtlFillMemory(&Key[0], NUMBER_PROCESSORS, KEY_NOTHING);
if (SpinLock[Index] != 0) {
LockOwner = NULL;
for (Loop = 0; Loop < NUMBER_PROCESSORS; Loop += 1) {
if (LockQueue[Loop][Index].Lock & LOCK_QUEUE_OWNER) {
LockOwner = &LockQueue[Loop][Index];
break;
}
}
//
// If the lock owner was not found, then assume that the kernel
// spin lock points to the owner and the owner bit has not been
// set yet. Otherwise, fill out the owner/wait key array.
//
if (LockOwner == NULL) {
Number = ProcessorIndex(SpinLock[Index], Index);
Key[Number - 1] = KEY_OWNER;
//
// The owner processor has been determined by the kernel
// spin lock address. Check to determine if any of the
// lock queue entries are corrupt and fill in the key
// array accordingly. A corrupt lock queue entry is one
// that has a non NULL next field or one of the owner or
// wait flags is set.
//
for (Loop = 0; Loop < NUMBER_PROCESSORS; Loop += 1) {
if ((LockQueue[Loop][Index].Next != 0) ||
(LockQueue[Loop][Index].Lock & (LOCK_QUEUE_WAIT | LOCK_QUEUE_OWNER))) {
Key[Loop] = KEY_CORRUPT;
}
}
} else {
//
// The lock owner was found. Attempt to construct the wait
// chain.
//
Key[Loop] = KEY_OWNER;
Last = Loop;
Sequence = 0;
while (LockOwner->Next != 0) {
Number = ProcessorIndex(LockOwner->Next, Index);
if (Key[Number - 1] == KEY_NOTHING) {
Last = Number - 1;
Sequence += 1;
Key[Last] = Sequence;
LockOwner = &LockQueue[Last][Index];
} else {
//
// The wait chain loops back on itself. Mark the
// entry as corrupt and scan the other entries to
// detemine if they are also corrupt.
//
Key[Last] = KEY_CORRUPT;
for (Loop = 0; Loop < NUMBER_PROCESSORS; Loop += 1) {
if ((LockQueue[Loop][Index].Next != 0) ||
(LockQueue[Loop][Index].Lock & (LOCK_QUEUE_WAIT | LOCK_QUEUE_OWNER))) {
if (Key[Loop] == KEY_NOTHING) {
Key[Loop] = KEY_CORRUPT;
}
}
}
break;
}
}
//
// If the lock owner next field is NULL, then the wait
// search ended normally. Check to determine if the kernel
// spin lock points to the last entry in the queue.
//
if (LockOwner->Next == 0) {
Number = ProcessorIndex(SpinLock[Index], Index);
if (Last != (Number - 1)) {
Sequence += 1;
Key[Number - 1] = Sequence;
}
}
}
} else {
//
// The kernel spin lock is not owned. Check to determine if any
// of the lock queue entries are corrupt and fill in the key
// array accordingly. A corrupt entry is one that has a non NULL
// next field or one of the owner or wait flags is set.
//
for (Loop = 0; Loop < NUMBER_PROCESSORS; Loop += 1) {
if ((LockQueue[Loop][Index].Next != 0) ||
(LockQueue[Loop][Index].Lock & (LOCK_QUEUE_WAIT | LOCK_QUEUE_OWNER))) {
Key[Loop] = KEY_CORRUPT;
}
}
}
for (Processor = 0; Processor <= HighestProcessor; Processor++) {
switch (Key[Processor]) {
case KEY_CORRUPT:
dprintf(" C");
break;
case KEY_OWNER:
dprintf(" O");
break;
case KEY_NOTHING:
dprintf(" ");
break;
default:
dprintf("%3d", Key[Processor]);
break;
}
}
dprintf("\n");
}
dprintf("\n");
return S_OK;
}
ULONG
ProcessorIndex (
ULONG64 LockAddress,
ULONG LockIndex
)
/*++
Routine Description:
This function computes the processor number of the respective processor
given a lock queue address and the lock queue index.
Arguments:
LockQueue - Supplies a lock queue address in target memory.
Return Value:
Zero is returned if a matching processor is not found. Otherwise, the
processor number plus one is returned.
--*/
{
ULONG64 LockBase;
ULONG Loop;
ULONG SizeOfKprcb = GetTypeSize("nt!KPRCB");
ULONG SizeOfQ = GetTypeSize("nt!KSPIN_LOCK_QUEUE");
ULONG LockQueueOffset;
if (GetFieldOffset("nt!KPRCB", "LockQueue", &LockQueueOffset)) {
dprintf("Unable to read KPRCB type.\n");
return 0;
}
//
// Attempt to find the lock address in one of the processor control
// blocks.
//
for (Loop = 0; Loop < NUMBER_PROCESSORS; Loop += 1) {
if ((LockAddress >= ProcessorBlock[Loop]) &&
(LockAddress < ProcessorBlock[Loop] + SizeOfKprcb)) {
LockBase = ProcessorBlock[Loop] + LockQueueOffset;
if (LockAddress == (LockBase + SizeOfQ * LockIndex)) {
return Loop + 1;
}
}
}
return 0;
}
PUCHAR QueuedLockName[] = {
"DispatcherLock",
"ContextSwapLock",
"PfnLock",
"SystemSpaceLock",
"VacbLock",
"MasterLock",
"NonPagedPoolLock",
"IoCancelLock",
"WorkQueueLock",
"IoVpbLock",
"IoDatabaseLock",
"IoCompletionLock",
"NtfsStructLock",
"AfdWorkQueueLock",
"BcbLock"
};
DECLARE_API( qlockperf )
/*++
Routine Description:
Displays queued spin lock performance data (if present).
Arguments:
None.
Return Value:
None.
--*/
{
//
// The following structure is used to accumulate data about each
// acquire/release pair for a lock.
//
typedef struct {
union {
ULONGLONG Key;
struct {
ULONG_PTR Releaser;
ULONG_PTR Acquirer;
};
};
ULONGLONG Time;
ULONGLONG WaitTime;
ULONG Count;
ULONG Waiters;
ULONG Depth;
ULONG IncreasedDepth;
ULONG Clean;
} QLOCKDATA, *PQLOCKDATA;
//
// House keeping data for each lock.
//
typedef struct {
//
// The following fields are used to keep data from acquire
// to release.
//
ULONGLONG AcquireTime;
ULONGLONG WaitToAcquire;
ULONG_PTR AcquirePoint;
BOOLEAN Clean;
//
// Remaining fields accumulate global stats for this lock.
//
ULONG Count;
ULONG Pairs;
ULONG FailedTry;
UCHAR MaxDepth;
UCHAR PreviousDepth;
ULONG NoWait;
} QLOCKHOUSE, *PQLOCKHOUSE;
ULONG64 TargetHouse;
ULONG64 TargetLog;
PQLOCKHOUSE LockHome;
PQLOCKDATA LockData;
QLOCKDATA TempEntry;
ULONG LogEntrySize;
ULONG LogSize;
ULONG HouseEntrySize;
ULONG HouseSize;
ULONG NumberOfLocks;
ULONG LockIndex;
ULONG i, j;
ULONG MaxEntriesPerLock;
ULONG HighIndex;
ULONGLONG HighTime;
ULONGLONG TotalHoldTime;
ULONG PercentageHeld;
ULONG64 AcquiredAddress;
ULONG64 ReleasedAddress;
UCHAR AcquirePoint[80];
UCHAR ReleasePoint[80];
ULONG64 AcquireOffset;
ULONG64 ReleaseOffset;
BOOLEAN Verbose = FALSE;
BOOLEAN Columnar = FALSE;
BOOLEAN Interesting = FALSE;
ULONG LockLow, LockHigh;
//
// First, see if we can do anything useful.
//
// For the moment, this is x86 only.
//
if (TargetMachine != IMAGE_FILE_MACHINE_I386) {
dprintf("Sorry, don't know how to gather queued spinlock performance\n",
"data on anything but an x86.\n");
return E_INVALIDARG;
}
//
// Parse arguments.
//
if (strstr(args, "?")) {
//
// Has asked for usage information. Give them the options
// and an explanation of the output.
//
dprintf("usage: qlockperf [-v] [n]\n"
" -v indicates verbose output (see below).\n"
" -c verbose columnar output.\n"
" -ci verbose columnar output, no totals.\n"
" n supplies the lock number (default is all)\n\n"
"Verbose output includes details of each lock acquire and\n"
"release pair. Two lines per pair.\n\n"
"Line 1: ppp A symbolic_address R symbolic_address\n"
" ppp percentage, this pair for this lock (overall)\n"
" A Acquire point\n"
" R Release point\n\n"
"Line 2:\n"
" HT Hold Time total (average)\n"
" This is the time from acquire to release.\n"
" WT Wait Time total (average)\n"
" This is the time waiting to acquire.\n"
" C Count\n"
" Number of times this pair occured.\n"
" CA Clean Acquires (percentage)\n"
" Number of times acquire did not wait.\n"
" WC Waiter Count\n"
" Number of processors waiting for this\n"
" lock at release.\n"
" avD Average number of waiters (at release).\n"
" ID Increased Depth\n"
" Number of times the queue length increased\n"
" while the lock was held in this pair.\n"
);
return E_INVALIDARG;
}
if (strstr(args, "-c")) {
Verbose = TRUE;
Columnar = TRUE;
}
if (strstr(args, "-ci")) {
Interesting = TRUE;
}
if (strstr(args, "-v")) {
Verbose = TRUE;
}
LockLow = 0;
LockHigh = 999;
for (i = 0; args[i]; i++) {
if ((args[i] >= '0') && (args[i] <= '9')) {
LockLow = (ULONG)GetExpression(&args[i]);
LockHigh = LockLow;
}
}
TargetHouse = GetExpression("nt!KiQueuedSpinLockHouse");
//
// Checking for control C after the first operation that might
// cause symbol load in case the user has bad symbols and is
// trying to get out.
//
if (CheckControlC()) {
return E_ABORT;
}
TargetLog = GetExpression("nt!KiQueuedSpinLockLog");
LogEntrySize = GetTypeSize("nt!QLOCKDATA");
LogSize = GetTypeSize("nt!KiQueuedSpinLockLog");
HouseEntrySize = GetTypeSize("nt!QLOCKHOUSE");
HouseSize = GetTypeSize("nt!KiQueuedSpinLockHouse");
if (!(TargetHouse &&
TargetLog &&
LogEntrySize &&
LogSize &&
HouseEntrySize &&
HouseSize)) {
dprintf("Sorry, can't find required system data, perhaps this kernel\n",
"was not built with QLOCK_STAT_GATHER defined?\n");
return E_INVALIDARG;
}
if ((LogEntrySize != sizeof(QLOCKDATA)) ||
(HouseEntrySize != sizeof(QLOCKHOUSE))) {
dprintf("Structure sizes in the kernel and debugger extension don't\n",
"match. This extension needs to be rebuild to match the\n",
"running system.\n");
return E_INVALIDARG;
}
NumberOfLocks = HouseSize / HouseEntrySize;
MaxEntriesPerLock = LogSize / LogEntrySize / NumberOfLocks;
dprintf("Kernel build with %d PRCB queued spinlocks\n", NumberOfLocks);
dprintf("(maximum log entries per lock = %d)\n", MaxEntriesPerLock);
if (LockHigh >= NumberOfLocks) {
if (LockLow == LockHigh) {
dprintf("User requested lock %d, system has only %d locks, quitting.\n",
LockLow,
NumberOfLocks);
return E_INVALIDARG;
}
LockHigh = NumberOfLocks - 1;
}
if (NumberOfLocks > 16) {
//
// I don't believe it.
//
dprintf("The number of locks doesn't seem reasonable, giving up.\n");
return E_INVALIDARG;
}
if (CheckControlC()) {
return E_ABORT;
}
//
// Allocate space to process the data for one lock at a time.
//
LockHome = LocalAlloc(LPTR, sizeof(*LockHome));
LockData = LocalAlloc(LPTR, sizeof(*LockData) * MaxEntriesPerLock);
if (!(LockHome && LockData)) {
dprintf("Couldn't allocate memory for local copies of kernel data.\n",
"unable to continue.\n");
goto outtahere;
}
for (LockIndex = LockLow; LockIndex <= LockHigh; LockIndex++) {
if ((!ReadMemory(TargetHouse + (LockIndex * sizeof(QLOCKHOUSE)),
LockHome,
sizeof(QLOCKHOUSE),
&i)) || (i < sizeof(QLOCKHOUSE))) {
dprintf("unable to read data for lock %d, quitting\n",
LockIndex);
return E_INVALIDARG;
}
if (CheckControlC()) {
goto outtahere;
}
if (LockHome->Pairs == 0) {
continue;
}
dprintf("\nLock %d %s\n", LockIndex, QueuedLockName[LockIndex]);
dprintf(" Acquires %d (%d pairs)\n", LockHome->Count, LockHome->Pairs);
dprintf(" Failed Tries %d\n", LockHome->FailedTry);
dprintf(" Maximum Depth (at release) %d\n", LockHome->MaxDepth);
dprintf(" No Waiters (at acquire) %d (%d%%)\n",
LockHome->NoWait,
LockHome->NoWait * 100 / LockHome->Count);
//
// Change the following to a parameter saying we want the
// details.
//
if (Verbose) {
ULONG Entries = LockHome->Pairs;
PQLOCKDATA Entry;
if ((!ReadMemory(TargetLog + (LockIndex * MaxEntriesPerLock * sizeof(QLOCKDATA)),
LockData,
Entries * sizeof(QLOCKDATA),
&i)) || (i < (Entries * sizeof(QLOCKDATA)))) {
dprintf("unable to read data for lock %d, quitting\n",
LockIndex);
return E_INVALIDARG;
}
if (CheckControlC()) {
goto outtahere;
}
//
// Sort table into longest duration.
//
TotalHoldTime = 0;
for (i = 0; i < (Entries - 1); i++) {
HighTime = LockData[i].Time;
HighIndex = i;
for (j = i + 1; j < Entries; j++) {
if (LockData[j].Time > HighTime) {
HighIndex = j;
HighTime = LockData[j].Time;
}
}
if (HighIndex != i) {
//
// Swap entries.
//
TempEntry = LockData[i];
LockData[i] = LockData[HighIndex];
LockData[HighIndex] = TempEntry;
}
TotalHoldTime += LockData[i].Time;
}
TotalHoldTime += LockData[Entries-1].Time;
dprintf(" Total time held %I64ld\n");
//
// Print something!
//
if (Interesting) {
dprintf("\n Average Average Count %% Av. %%\n"
" %% Hold Wait 0w Dp Con\n");
} else if (Columnar) {
dprintf("\n Total Average Total Average Count Clean %% Waiters Av Increased %%\n"
" %% Hold Hold Wait Wait 0w Dp Con\n");
}
for (i = 0; i < Entries; i++) {
if (CheckControlC()) {
goto outtahere;
}
Entry = &LockData[i];
//
// Sign extend if necessary.
//
if (!IsPtr64()) {
AcquiredAddress = (ULONG64)(LONG64)(LONG)Entry->Acquirer;
ReleasedAddress = (ULONG64)(LONG64)(LONG)Entry->Releaser;
}
//
// Lookup the symbolic addresses.
//
GetSymbol(AcquiredAddress, AcquirePoint, &AcquireOffset);
GetSymbol(ReleasedAddress, ReleasePoint, &ReleaseOffset);
PercentageHeld = (ULONG)(Entry->Time * 100 / TotalHoldTime);
if (Interesting) {
dprintf("%3d%9d%9d%10d%4d%3d%4d %s+0x%x %s+0x%x\n",
PercentageHeld,
(ULONG)(Entry->Time / Entry->Count),
(ULONG)(Entry->WaitTime / Entry->Count),
Entry->Count,
Entry->Clean * 100 / Entry->Count,
Entry->Depth / Entry->Count,
Entry->IncreasedDepth * 100 / Entry->Count,
AcquirePoint, (ULONG)AcquireOffset,
ReleasePoint, (ULONG)ReleaseOffset);
} else if (Columnar) {
dprintf("%3d %20I64ld%9d%20I64ld%9d",
PercentageHeld,
Entry->Time,
(ULONG)(Entry->Time / Entry->Count),
Entry->WaitTime,
(ULONG)(Entry->WaitTime / Entry->Count));
dprintf("%10d%10d%4d%10d%3d%10d%4d %s+0x%x %s+0x%x\n",
Entry->Count,
Entry->Clean,
Entry->Clean * 100 / Entry->Count,
Entry->Waiters,
Entry->Depth / Entry->Count,
Entry->IncreasedDepth,
Entry->IncreasedDepth * 100 / Entry->Count,
AcquirePoint, (ULONG)AcquireOffset,
ReleasePoint, (ULONG)ReleaseOffset);
} else {
dprintf("%3d A %s+0x%x R %s+0x%x\n",
PercentageHeld,
AcquirePoint, (ULONG)AcquireOffset,
ReleasePoint, (ULONG)ReleaseOffset);
dprintf(" HT %I64ld (av %I64ld), WT %I64ld (av %I64ld), C %d, CA %d (%d%%) WC %d, (avD %d) ID %d (%d%%)\n",
Entry->Time,
Entry->Time / Entry->Count,
Entry->WaitTime,
Entry->WaitTime / Entry->Count,
Entry->Count,
Entry->Clean,
Entry->Clean * 100 / Entry->Count,
Entry->Waiters,
Entry->Depth / Entry->Count,
Entry->IncreasedDepth,
Entry->IncreasedDepth * 100 / Entry->Count);
dprintf("\n");
}
}
}
}
outtahere:
if (LockHome) {
LocalFree(LockHome);
}
if (LockData) {
LocalFree(LockData);
}
return S_OK;
}
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