/*
* GetNextThread -
* NB - callers must continue to call this function until it returns FALSE
*/
BOOL GetNextThread( ThreadList *info, ThreadPlace *place,
DWORD pid, BOOL first )
{
DWORD curpid;
PERF_COUNTER_DEFINITION *counter;
BOOL error;
error = FALSE;
if( first ) {
beginRead( FALSE );
initObj( ®Data, &threadObject, N_THREAD );
if( threadObject == NULL ) error = TRUE;
if( !error ) {
place->index = 0;
place->obj = threadObject;
place->pid = pid;
place->inst = getFirstInstance( threadObject );
}
} else {
place->index ++;
if( place->index < place->obj->NumInstances ) {
place->inst = getNextInstance( place->inst );
}
}
if( !error ) {
counter = findCounter( place->obj, N_PROCID );
if( counter == NULL ) error = TRUE;
}
if( !error ) {
for( ; place->index < place->obj->NumInstances; place->index ++ ) {
if( place->inst == NULL ) {
error = TRUE;
break;
}
curpid = getCounterDWORD( place->inst, counter );
if( curpid == place->pid ) break;
place->inst = getNextInstance( place->inst );
}
}
if( !error && place->index >= place->obj->NumInstances ) error = TRUE;
if( !error ) {
counter = findCounter( place->obj, N_THREADID );
if( counter == NULL ) error = TRUE;
}
if( !error ) {
info->tid = getCounterDWORD( place->inst, counter );
counter = findCounter( place->obj, N_BASE_PRIORITY );
if( counter == NULL ) error = TRUE;
}
if( !error ) {
info->priority = getCounterDWORD( place->inst, counter );
} else {
endRead( FALSE );
}
return( !error );
}
//-----------------------------------------------------------------------
void CompositorChain::setCompositorEnabled(size_t position, bool state)
{
CompositorInstance* inst = getCompositor(position);
if (!state && inst->getEnabled())
{
// If we're disabling a 'middle' compositor in a chain, we have to be
// careful about textures which might have been shared by non-adjacent
// instances which have now become adjacent.
CompositorInstance* nextInstance = getNextInstance(inst, true);
if (nextInstance)
{
CompositionTechnique::TargetPassIterator tpit = nextInstance->getTechnique()->getTargetPassIterator();
while(tpit.hasMoreElements())
{
CompositionTargetPass* tp = tpit.getNext();
if (tp->getInputMode() == CompositionTargetPass::IM_PREVIOUS)
{
if (nextInstance->getTechnique()->getTextureDefinition(tp->getOutputName())->pooled)
{
// recreate
nextInstance->freeResources(false, true);
nextInstance->createResources(false);
}
}
}
}
}
inst->setEnabled(state);
}
int CSoundManager::play(int index) {
if(index < 0 || index >= m_nCount)return -1; //bail if bad index
int instance = getNextInstance(index);
if(instance < m_nInstanceCount[index]) //if unused copy found
m_pInstance[index][instance]->Play(); //play it
m_nLastPlayedSound = index;
m_nLastPlayedInstance = instance;
return instance;
} //play
/*
* GetThreadInfo
*/
BOOL GetThreadInfo( DWORD pid, DWORD tid, ThreadStats *info ) {
PERF_COUNTER_DEFINITION *pid_counter;
PERF_COUNTER_DEFINITION *tid_counter;
PERF_COUNTER_DEFINITION *counter;
PERF_INSTANCE_DEFINITION *inst;
DWORD curid;
DWORD i;
BOOL error;
error = FALSE;
beginRead( FALSE );
initObj( ®Data, &threadObject, N_THREAD );
if( threadObject == NULL ) {
error = TRUE;
}
if( !error ) {
pid_counter = findCounter( threadObject, N_PROCID );
tid_counter = findCounter( threadObject, N_THREADID );
if( pid_counter == NULL || tid_counter == NULL ) error = TRUE;
}
if( !error ) {
inst = getFirstInstance( threadObject );
for( i=0; i < threadObject->NumInstances; i++ ) {
if( inst == NULL ) {
error = TRUE;
break;
}
curid = getCounterDWORD( inst, tid_counter );
if( curid == tid ) {
curid = getCounterDWORD( inst, pid_counter );
if( curid == pid ) break;
}
inst = getNextInstance( inst );
}
}
if( !error && i == threadObject->NumInstances ) {
error = TRUE;
} else {
info->tid = tid;
info->pid = pid;
counter = findCounter( threadObject, N_BASE_PRIORITY );
info->base_pri = getCounterDWORD( inst, counter );
counter = findCounter( threadObject, N_CUR_PRIORITY );
info->cur_pri = getCounterDWORD( inst, counter );
counter = findCounter( threadObject, N_THREAD_STATE );
info->state = getCounterDWORD( inst, counter );
counter = findCounter( threadObject, N_WAIT_REASON );
info->wait_reason = getCounterDWORD( inst, counter );
}
endRead( FALSE );
return( !error );
}
/*
* GetProcessInfo
*/
BOOL GetProcessInfo( DWORD pid, ProcStats *info ) {
DWORD i;
PERF_COUNTER_DEFINITION *counter;
PERF_INSTANCE_DEFINITION *inst;
DWORD curpid;
BOOL error;
beginRead( FALSE );
error = FALSE;
initObj( ®Data, &processObject, N_PROCESS );
if( processObject == NULL ) error = TRUE;
if( !error ) {
counter = findCounter( processObject, N_PROCID );
if( counter == NULL ) error = TRUE;
}
if( !error ) {
inst = getFirstInstance( processObject );
for( i=0; i < processObject->NumInstances; i++ ) {
if( inst == NULL ) {
error = TRUE;
break;
}
curpid = getCounterDWORD( inst, counter );
if( curpid == pid ) break;
inst = getNextInstance( inst );
}
}
if( !error && curpid == pid && info != NULL ) {
info->pid = curpid;
counter = findCounter( processObject, N_BASE_PRIORITY );
if( counter == NULL ) {
error = TRUE;
} else {
info->priority = getCounterDWORD( inst, counter );
wsprintf( info->name, "%ls",
(char *)inst + inst->NameOffset );
}
}
endRead( FALSE );
return( !error && curpid == pid );
}
/*
* GetNextProcess
* NB - callers must continue to call this function until it returns FALSE
*/
BOOL GetNextProcess( ProcList *info, ProcPlace *place, BOOL first ) {
PERF_COUNTER_DEFINITION *counter;
BOOL error;
error = FALSE;
if( first ) {
beginRead( FALSE );
initObj( ®Data, &processObject, N_PROCESS );
if( processObject == NULL ) error = TRUE;
if( !error ) {
place->index = 0;
place->obj = processObject;
place->inst = getFirstInstance( processObject );
}
} else {
place->index ++;
if( place->index >= processObject->NumInstances ) {
endRead( FALSE );
return( FALSE );
}
place->inst = getNextInstance( place->inst );
}
if( place->inst == NULL ) error = TRUE;
if( !error ) {
counter = findCounter( place->obj, N_PROCID );
if( counter == NULL ) error = TRUE;
}
if( !error ) {
info->pid = getCounterDWORD( place->inst, counter );
counter = findCounter( place->obj, N_BASE_PRIORITY );
if( counter == NULL ) error = TRUE;
}
if( !error ) {
info->priority = getCounterDWORD( place->inst, counter );
wsprintf( info->name, "%ls",
(char *)( place->inst ) + place->inst->NameOffset );
} else {
endRead( FALSE );
}
return( !error );
}
/*
* getProcessIndex
*/
static BOOL getProcessIndex( DWORD pid, DWORD *indexout ) {
DWORD curpid;
PERF_COUNTER_DEFINITION *counter;
PERF_INSTANCE_DEFINITION *inst;
DWORD index;
counter = findCounter( processObject, N_PROCID );
if( counter == NULL ) return( FALSE );
inst = getFirstInstance( processObject );
if( inst == NULL ) return( FALSE );
for( index=0; index < processObject->NumInstances; index++ ) {
if( inst == NULL ) break;
curpid = getCounterDWORD( inst, counter );
if( curpid == pid ) {
*indexout = index;
return( TRUE );
}
inst = getNextInstance( inst );
}
return( FALSE );
}
Instance MemoryDump::queryInstance(const QString& queryString,
KnowledgeSources src) const
{
QStringList components = queryString.split('.', QString::SkipEmptyParts);
if (components.isEmpty())
queryError("Empty query string given");
Instance result, prev;
while (!components.isEmpty()) {
result = getNextInstance(components.first(), result, src);
if (!result.isValid()) {
QString s(prev.fullName());
if (!s.isEmpty())
s += ".";
s += components.first();
if (result.origin() == Instance::orCandidate)
queryError(QString("The selected member candidate for \"%1\" is invalid")
.arg(s));
else if (result.origin() == Instance::orRuleEngine)
queryError(QString("The instance \"%1\" returned by the rule engine is invalid.")
.arg(s));
else
queryError(QString("The instance \"%1\" is invalid (origin: %2)")
.arg(s)
.arg(Instance::originToString(result.origin())));
}
prev = result;
components.pop_front();
}
return result;
}
void MemoryDump::init()
{
#define memDumpInitError(e) \
genericError("Failed to initialize this MemoryDump instance with " \
"required run-time values from the dump. Error was: " + \
e.message)
// Open virtual memory for reading
if (!_vmem->open(QIODevice::ReadOnly))
throw IOException(
QString("Error opening virtual memory (filename=\"%1\")").arg(_fileName),
__FILE__,
__LINE__);
// The virtual address translation depends on the runtime
// value of "high_memory". We need to query its value and add it to
// _specs.vmallocStart before we can translate paged addresses.
try {
Instance highMem = queryInstance("high_memory");
_specs.highMemory = (_specs.sizeofPointer == 4) ?
(quint64)highMem.toUInt32() : highMem.toUInt64();
}
catch (QueryException& e) {
if (!_factory->findVarByName("high_memory")) {
// This is a failure for 32-bit systems
if (_specs.arch & MemSpecs::ar_i386)
memDumpInitError(e);
// Resort to the failsafe value for 64-bit systems
else {
debugmsg("Variable \"high_memory\" not found, resorting to "
"failsafe default value");
_specs.highMemory = HIGH_MEMORY_FAILSAFE_X86_64;
}
}
else
memDumpInitError(e);
}
if (_specs.arch & MemSpecs::ar_i386) {
// This symbol only exists depending on the kernel version
QString ve_name("vmalloc_earlyreserve");
if (_factory->findVarByName(ve_name)) {
try {
Instance ve = queryInstance(ve_name);
_specs.vmallocEarlyreserve = ve.toUInt32();
}
catch (QueryException& e) {
genericError("Failed to initialize this MemoryDump instance with "
"required run-time values from the dump. Error was: " + e.message);
}
}
else
_specs.vmallocEarlyreserve = 0;
}
// Compare the Linux kernel version to the parsed symbols
QString uts_ns_name("init_uts_ns");
if (!_specs.version.release.isEmpty() &&
_factory->findVarByName(uts_ns_name))
{
try {
struct MemSpecs::Version ver;
Instance uts_ns = queryInstance(uts_ns_name);
uts_ns = getNextInstance("name", uts_ns, ksNone);
// Read in all version information
if (!_specs.version.machine.isEmpty())
ver.machine = trimQuotes(
uts_ns.member("machine",
BaseType::trLexical).toString());
if (!_specs.version.release.isEmpty())
ver.release = trimQuotes(
uts_ns.member("release",
BaseType::trLexical).toString());
if (!_specs.version.sysname.isEmpty())
ver.sysname = trimQuotes(
uts_ns.member("sysname",
BaseType::trLexical).toString());
if (!_specs.version.version.isEmpty())
ver.version = trimQuotes(
uts_ns.member("version",
BaseType::trLexical).toString());
if (!_specs.version.equals(ver)) {
Console::errMsg("WARNING",
QString("The memory in '%0' belongs to a "
"different kernel version than the "
"loaded symbols!\n"
" Kernel symbols: %1\n"
" Memory file: %2")
.arg(ShellUtil::shortFileName(_fileName))
.arg(_specs.version.toString())
.arg(ver.toString()));
}
}
catch (QueryException& e) {
genericError("Failed to retrieve kernel version information of "
"this memory dump. Error was: " + e.message);
}
}
// Initialization done
_specs.initialized = true;
}
QString MemoryDump::dump(const QString& type, quint64 address, int length,
const ColorPalette& col) const
{
if (type == "char") {
char c;
if (_vmem->readAtomic(address, &c, sizeof(char)) != sizeof(char))
queryError(QString("Cannot read memory from address 0x%1")
.arg(address, (_specs.sizeofPointer << 1), 16, QChar('0')));
return QString("%1 (0x%2)").arg(c).arg(c, (sizeof(c) << 1), 16, QChar('0'));
}
if (type == "int") {
qint32 i;
if (_vmem->readAtomic(address, (char*)&i, sizeof(qint32)) != sizeof(qint32))
queryError(QString("Cannot read memory from address 0x%1")
.arg(address, (_specs.sizeofPointer << 1), 16, QChar('0')));
return QString("%1 (0x%2)").arg(i).arg((quint32)i, (sizeof(i) << 1), 16, QChar('0'));
}
if (type == "long") {
qint64 l;
if (_vmem->readAtomic(address, (char*)&l, sizeof(qint64)) != sizeof(qint64))
queryError(QString("Cannot read memory from address 0x%1")
.arg(address, (_specs.sizeofPointer << 1), 16, QChar('0')));
return QString("%1 (0x%2)").arg(l).arg((quint64)l, (sizeof(l) << 1), 16, QChar('0'));
}
if (type == "raw" || type == "hex") {
QString ret;
const int buflen = 256, linelen = 16;
char buf[buflen];
char bufstr[linelen + 1] = {0};
// Make sure we got a valid length
if (length < 0)
queryError(QString("No valid length given for dumping raw memory"));
int totalBytesRead = 0, col = 0;
while (length > 0) {
int bytesRead = _vmem->readAtomic(address, buf, qMin(buflen, length));
length -= bytesRead;
int i = 0;
while (i < bytesRead) {
// New line every 16 bytes begins with address
if (totalBytesRead % 16 == 0) {
if (totalBytesRead > 0) {
ret += QString(" |%0|\n").arg(bufstr, -linelen);
memset(bufstr, 0, linelen + 1);
col = 0;
}
ret += QString("%1 ").arg(address, _specs.sizeofPointer << 1, 16, QChar('0'));
}
// Wider column after 8 bytes
if (totalBytesRead % 8 == 0)
ret += ' ';
// Write the character as hex string
if ((unsigned char)buf[i] < 16)
ret += '0';
ret += QString::number((unsigned char)buf[i], 16) + ' ';
// Add character to string buffer, if it's an ASCII char
if ( ((unsigned char)buf[i] >= 32) && ((unsigned char)buf[i] < 127) )
bufstr[col] = buf[i];
else
bufstr[col] = '.';
++col;
++totalBytesRead;
++address;
++i;
}
}
// Finish it up
if (col > 0) {
while (col < linelen) {
ret += " ";
if (col % 8 == 0)
ret += ' ';
++col;
}
ret += QString(" |%0|").arg(bufstr, -linelen);
}
return ret;
}
QStringList components = type.split('.', QString::SkipEmptyParts);
Instance result;
if (!components.isEmpty()) {
// Get first instance
result = getInstanceAt(components.first(), address, QStringList("user"));
components.pop_front();
while (!components.isEmpty()) {
result = getNextInstance(components.first(), result, ksNone);
components.pop_front();
}
return QString("%1%2%3 (ID%4 0x%5%6) @%7 0x%8%9\n")
.arg(col.color(ctType))
.arg(result.typeName())
.arg(col.color(ctReset))
.arg(col.color(ctTypeId))
.arg((uint)result.type()->id(), 0, 16)
.arg(col.color(ctReset))
.arg(col.color(ctAddress))
.arg(result.address(), 0, 16)
.arg(col.color(ctReset)) + result.toString(&col);
}
queryError3("Unknown type: " + type,
QueryException::ecUnresolvedType, type);
return QString();
}
/*
* GetMemInfo
*/
BOOL GetMemInfo( DWORD procid, MemInfo *info ) {
PERF_COUNTER_DEFINITION *counter;
PERF_INSTANCE_DEFINITION *inst;
DWORD curpid;
DWORD i;
beginRead( TRUE );
initObj( &costlyData, &procAddrObject, N_PROCESS_ADDR_SPACE );
if( procAddrObject == NULL ) {
info->modlist = NULL;
info->modcnt = 0;
goto GETMEMINFO_ERROR;
}
info->modlist = GetModuleList( procid, &info->modcnt );
if( info->modlist == NULL ) goto GETMEMINFO_ERROR;
counter = findCounter( procAddrObject, N_PROCID );
if( counter == NULL ) goto GETMEMINFO_ERROR;
inst = getFirstInstance( procAddrObject );
for( i=0; ; i++ ) {
if( i >= procAddrObject->NumInstances || inst == NULL ) {
goto GETMEMINFO_ERROR;
}
curpid = getCounterDWORD( inst, counter );
if( curpid == procid ) break;
inst = getNextInstance( inst );
}
counter = findCounter( procAddrObject, N_MAP_SPACE_NO_ACC );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.noaccess = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_READ );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.read = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_WRITE );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.write = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_COPY );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.copy = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_EXEC );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.exec = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_EXECREAD );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.execread = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_EXECWRITE );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.execwrite = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_MAP_SPACE_EXECCOPY );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->mapped.execcopy = getCounterDWORD( inst, counter );
info->mapped.tot = info->mapped.noaccess + info->mapped.read
+ info->mapped.write + info->mapped.copy
+ info->mapped.exec + info->mapped.execread
+ info->mapped.execwrite + info->mapped.execcopy;
counter = findCounter( procAddrObject, N_RES_SPACE_NO_ACC );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.noaccess = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_READ );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.read = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_WRITE );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.write = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_COPY );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.copy = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_EXEC );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.exec = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_EXECREAD );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.execread = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_EXECWRITE );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.execwrite = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_RES_SPACE_EXECCOPY );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->res.execcopy = getCounterDWORD( inst, counter );
info->res.tot = info->res.noaccess + info->res.read
+ info->res.write + info->res.copy
+ info->res.exec + info->res.execread
+ info->res.execwrite + info->res.execcopy;
counter = findCounter( procAddrObject, N_IMAGE_SPACE_NO_ACC );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.noaccess = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_READ );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.read = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_WRITE );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.write = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_COPY );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.copy = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_EXEC );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.exec = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_EXECREAD );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.execread = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_EXECWRITE );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.execwrite = getCounterDWORD( inst, counter );
counter = findCounter( procAddrObject, N_IMAGE_SPACE_EXECCOPY );
if( counter == NULL ) goto GETMEMINFO_ERROR;
info->image.execcopy = getCounterDWORD( inst, counter );
info->image.tot = info->image.noaccess + info->image.read
+ info->image.write + info->image.copy
+ info->image.exec + info->image.execread
+ info->image.execwrite + info->image.execcopy;
endRead( TRUE );
return( TRUE );
GETMEMINFO_ERROR:
FreeModuleList( info->modlist, info->modcnt );
endRead( TRUE );
return( FALSE );
}
/*
* GetImageMemInfo
*/
BOOL GetImageMemInfo( DWORD procid, char *imagename, MemByType *imageinfo ) {
DWORD index;
DWORD i;
BOOL ret;
char buf[ _MAX_PATH ];
PERF_COUNTER_DEFINITION *counter;
PERF_INSTANCE_DEFINITION *inst;
ret = FALSE;
beginRead( FALSE );
beginRead( TRUE );
initObj( &costlyData, &imageObject, N_IMAGE );
initObj( ®Data, &processObject, N_PROCESS );
if( imageObject == NULL || processObject == NULL ) goto GETIMAGEMEM_ERROR;
inst = getFirstInstance( imageObject );
if( !getProcessIndex( procid, &index ) ) goto GETIMAGEMEM_ERROR;
for( i=0; i < imageObject->NumInstances; i += 1 ) {
if( inst == NULL ) goto GETIMAGEMEM_ERROR;
if( inst->ParentObjectInstance == index ) {
wsprintf( buf, "%ls", (char *)inst + inst->NameOffset );
if( !strcmp( buf, imagename ) ) {
counter = findCounter( imageObject, N_NO_ACCESS );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->noaccess = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_READ_ONLY );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->read = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_READ_WRITE );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->write = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_WRITE_COPY );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->copy = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_EXEC );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->exec = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_EXEC_READ );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->execread = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_EXEC_WRITE );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->execwrite = getCounterDWORD( inst, counter );
counter = findCounter( imageObject, N_EXEC_COPY );
if( counter == NULL ) goto GETIMAGEMEM_ERROR;
imageinfo->execcopy = getCounterDWORD( inst, counter );
imageinfo->tot = imageinfo->noaccess + imageinfo->read
+ imageinfo->write + imageinfo->copy
+ imageinfo->exec + imageinfo->execread
+ imageinfo->execwrite + imageinfo->execcopy;
ret = TRUE;
break;
}
}
inst = getNextInstance( inst );
}
endRead( TRUE );
endRead( FALSE );
return( ret);
GETIMAGEMEM_ERROR:
endRead( TRUE );
endRead( FALSE );
return( FALSE );
}
