redundancies with threadId() as their replacement.
def format MT_MFTR(code, *flags) {{
flags += ('IsNonSpeculative', )
-# code = 'std::cerr << curTick << \": T\" << xc->tcBase()->getThreadNum() << \": Executing MT INST: ' + name + '\" << endl;\n' + code
+# code = 'std::cerr << curTick << \": T\" << xc->tcBase()->threadId() << \": Executing MT INST: ' + name + '\" << endl;\n' + code
code += 'if (MT_H == 1) {\n'
code += 'data = bits(data, top_bit, bottom_bit);\n'
def format MT_MTTR(code, *flags) {{
flags += ('IsNonSpeculative', )
-# code = 'std::cerr << curTick << \": T\" << xc->tcBase()->getThreadNum() << \": Executing MT INST: ' + name + '\" << endl;\n' + code
+# code = 'std::cerr << curTick << \": T\" << xc->tcBase()->threadId() << \": Executing MT INST: ' + name + '\" << endl;\n' + code
iop = InstObjParams(name, Name, 'MTOp', code, flags)
header_output = BasicDeclare.subst(iop)
decoder_output = BasicConstructor.subst(iop)
xc->setMiscRegNoEffect(LLAddr, req->getPaddr() & ~0xf);
xc->setMiscRegNoEffect(LLFlag, true);
DPRINTF(LLSC, "[tid:%i]: Load-Link Flag Set & Load-Link Address set to %x.\n",
- req->getThreadNum(), req->getPaddr() & ~0xf);
+ req->threadId(), req->getPaddr() & ~0xf);
}
if (!lock_flag){
DPRINTF(LLSC, "[tid:%i]: Lock Flag Set, Store Conditional Failed.\n",
- req->getThreadNum());
+ req->threadId());
} else if ((req->getPaddr() & ~0xf) != lock_addr) {
DPRINTF(LLSC, "[tid:%i]: Load-Link Address Mismatch, Store Conditional Failed.\n",
- req->getThreadNum());
+ req->threadId());
}
// store conditional failed already, so don't issue it to mem
return false;
// @TODO: Needs to check if this is a branch and if so, take previous instruction
tc->setMiscReg(TCRestart, tc->readNextPC());
- warn("%i: Halting thread %i in %s @ PC %x, setting restart PC to %x", curTick, tc->getThreadNum(), tc->getCpuPtr()->name(),
+ warn("%i: Halting thread %i in %s @ PC %x, setting restart PC to %x", curTick, tc->threadId(), tc->getCpuPtr()->name(),
tc->readPC(), tc->readNextPC());
}
}
tc->setNextNPC(pc + 8);
tc->activate(0);
- warn("%i: Restoring thread %i in %s @ PC %x", curTick, tc->getThreadNum(), tc->getCpuPtr()->name(),
+ warn("%i: Restoring thread %i in %s @ PC %x", curTick, tc->threadId(), tc->getCpuPtr()->name(),
tc->readPC());
}
}
if (ok == 1) {
unsigned tcstatus = tc->readMiscRegNoEffect(TCStatus);
tc->setMiscReg(TCStatus, insertBits(tcstatus, TCS_A, TCS_A, 0));
- warn("%i: Deactivating Hardware Thread Context #%i", curTick, tc->getThreadNum());
+ warn("%i: Deactivating Hardware Thread Context #%i", curTick, tc->threadId());
}
} else if (src_reg > 0) {
if (src_reg && !yield_mask != 0) {
fault = new ThreadFault();
} else {
//tc->ScheduleOtherThreads();
- //std::cerr << "T" << tc->getThreadNum() << "YIELD: Schedule Other Threads.\n" << std::endl;
+ //std::cerr << "T" << tc->threadId() << "YIELD: Schedule Other Threads.\n" << std::endl;
//tc->suspend();
// Save last known PC in TCRestart
// @TODO: Needs to check if this is a branch and if so, take previous instruction
void
startupCPU(ThreadContext *tc, int cpuId)
{
- tc->activate(0/*tc->getThreadNum()*/);
+ tc->activate(0/*tc->threadId()*/);
}
} // namespace MipsISA
CpuEvent::replaceThreadContext(oldTC, newTC);
assert(newTC->contextId() == oldTC->contextId());
+ assert(newTC->threadId() == oldTC->threadId());
system->replaceThreadContext(newTC, newTC->contextId());
if (DTRACE(Context))
Tick instCnt;
// every cpu has an id, put it in the base cpu
// Set at initialization, only time a cpuId might change is during a
- // takeover (which should be done from within the BaseCPU anyway,
+ // takeover (which should be done from within the BaseCPU anyway,
// therefore no setCpuId() method is provided
int _cpuId;
void profileSample() { return actualTC->profileSample(); }
#endif
- int getThreadNum() { return actualTC->getThreadNum(); }
+ int threadId() { return actualTC->threadId(); }
// @todo: Do I need this?
MachInst getInst() { return actualTC->getInst(); }
outs << (misspeculating ? "-" : "+") << " ";
if (IsOn(ExecThread))
- outs << "T" << thread->getThreadNum() << " : ";
+ outs << "T" << thread->threadId() << " : ";
std::string sym_str;
virtual void setContextId(int id) { thread->setContextId(id); }
+ /** Returns this thread's ID number. */
+ virtual int threadId() { return thread->threadId(); }
+ virtual void setThreadId(int id) { return thread->setThreadId(id); }
+
#if FULL_SYSTEM
/** Returns a pointer to the system. */
virtual System *getSystemPtr() { return cpu->system; }
/** Samples the function profiling information. */
virtual void profileSample();
#endif
- /** Returns this thread's ID number. */
- virtual int getThreadNum() { return thread->readTid(); }
-
/** Returns the instruction this thread is currently committing.
* Only used when an instruction faults.
*/
/** Reads this thread's PC. */
virtual uint64_t readPC()
- { return cpu->readPC(thread->readTid()); }
+ { return cpu->readPC(thread->threadId()); }
/** Sets this thread's PC. */
virtual void setPC(uint64_t val);
/** Reads this thread's next PC. */
virtual uint64_t readNextPC()
- { return cpu->readNextPC(thread->readTid()); }
+ { return cpu->readNextPC(thread->threadId()); }
/** Sets this thread's next PC. */
virtual void setNextPC(uint64_t val);
virtual uint64_t readMicroPC()
- { return cpu->readMicroPC(thread->readTid()); }
+ { return cpu->readMicroPC(thread->threadId()); }
virtual void setMicroPC(uint64_t val);
virtual uint64_t readNextMicroPC()
- { return cpu->readNextMicroPC(thread->readTid()); }
+ { return cpu->readNextMicroPC(thread->threadId()); }
virtual void setNextMicroPC(uint64_t val);
/** Reads a miscellaneous register. */
virtual MiscReg readMiscRegNoEffect(int misc_reg)
- { return cpu->readMiscRegNoEffect(misc_reg, thread->readTid()); }
+ { return cpu->readMiscRegNoEffect(misc_reg, thread->threadId()); }
/** Reads a misc. register, including any side-effects the
* read might have as defined by the architecture. */
virtual MiscReg readMiscReg(int misc_reg)
- { return cpu->readMiscReg(misc_reg, thread->readTid()); }
+ { return cpu->readMiscReg(misc_reg, thread->threadId()); }
/** Sets a misc. register. */
virtual void setMiscRegNoEffect(int misc_reg, const MiscReg &val);
/** Executes a syscall in SE mode. */
virtual void syscall(int64_t callnum)
- { return cpu->syscall(callnum, thread->readTid()); }
+ { return cpu->syscall(callnum, thread->threadId()); }
/** Reads the funcExeInst counter. */
virtual Counter readFuncExeInst() { return thread->funcExeInst; }
virtual uint64_t readNextNPC()
{
- return this->cpu->readNextNPC(this->thread->readTid());
+ return this->cpu->readNextNPC(this->thread->threadId());
}
virtual void setNextNPC(uint64_t val)
#if THE_ISA == ALPHA_ISA
panic("Not supported on Alpha!");
#endif
- this->cpu->setNextNPC(val, this->thread->readTid());
+ this->cpu->setNextNPC(val, this->thread->threadId());
}
/** This function exits the thread context in the CPU and returns
setStatus(old_context->status());
copyArchRegs(old_context);
setContextId(old_context->contextId());
+ setThreadId(old_context->threadId());
#if !FULL_SYSTEM
thread->funcExeInst = old_context->readFuncExeInst();
O3ThreadContext<Impl>::activate(int delay)
{
DPRINTF(O3CPU, "Calling activate on Thread Context %d\n",
- getThreadNum());
+ threadId());
if (thread->status() == ThreadContext::Active)
return;
#endif
if (thread->status() == ThreadContext::Unallocated) {
- cpu->activateWhenReady(thread->readTid());
+ cpu->activateWhenReady(thread->threadId());
return;
}
thread->setStatus(ThreadContext::Active);
// status() == Suspended
- cpu->activateContext(thread->readTid(), delay);
+ cpu->activateContext(thread->threadId(), delay);
}
template <class Impl>
O3ThreadContext<Impl>::suspend(int delay)
{
DPRINTF(O3CPU, "Calling suspend on Thread Context %d\n",
- getThreadNum());
+ threadId());
if (thread->status() == ThreadContext::Suspended)
return;
#endif
*/
thread->setStatus(ThreadContext::Suspended);
- cpu->suspendContext(thread->readTid());
+ cpu->suspendContext(thread->threadId());
}
template <class Impl>
O3ThreadContext<Impl>::deallocate(int delay)
{
DPRINTF(O3CPU, "Calling deallocate on Thread Context %d delay %d\n",
- getThreadNum(), delay);
+ threadId(), delay);
if (thread->status() == ThreadContext::Unallocated)
return;
thread->setStatus(ThreadContext::Unallocated);
- cpu->deallocateContext(thread->readTid(), true, delay);
+ cpu->deallocateContext(thread->threadId(), true, delay);
}
template <class Impl>
O3ThreadContext<Impl>::halt(int delay)
{
DPRINTF(O3CPU, "Calling halt on Thread Context %d\n",
- getThreadNum());
+ threadId());
if (thread->status() == ThreadContext::Halted)
return;
thread->setStatus(ThreadContext::Halted);
- cpu->haltContext(thread->readTid());
+ cpu->haltContext(thread->threadId());
}
template <class Impl>
{
// This function will mess things up unless the ROB is empty and
// there are no instructions in the pipeline.
- unsigned tid = thread->readTid();
+ unsigned tid = thread->threadId();
PhysRegIndex renamed_reg;
// First loop through the integer registers.
O3ThreadContext<Impl>::readIntReg(int reg_idx)
{
reg_idx = TheISA::flattenIntIndex(this, reg_idx);
- return cpu->readArchIntReg(reg_idx, thread->readTid());
+ return cpu->readArchIntReg(reg_idx, thread->threadId());
}
template <class Impl>
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
switch(width) {
case 32:
- return cpu->readArchFloatRegSingle(reg_idx, thread->readTid());
+ return cpu->readArchFloatRegSingle(reg_idx, thread->threadId());
case 64:
- return cpu->readArchFloatRegDouble(reg_idx, thread->readTid());
+ return cpu->readArchFloatRegDouble(reg_idx, thread->threadId());
default:
panic("Unsupported width!");
return 0;
O3ThreadContext<Impl>::readFloatReg(int reg_idx)
{
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
- return cpu->readArchFloatRegSingle(reg_idx, thread->readTid());
+ return cpu->readArchFloatRegSingle(reg_idx, thread->threadId());
}
template <class Impl>
{
DPRINTF(Fault, "Reading floatint register through the TC!\n");
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
- return cpu->readArchFloatRegInt(reg_idx, thread->readTid());
+ return cpu->readArchFloatRegInt(reg_idx, thread->threadId());
}
template <class Impl>
O3ThreadContext<Impl>::readFloatRegBits(int reg_idx)
{
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
- return cpu->readArchFloatRegInt(reg_idx, thread->readTid());
+ return cpu->readArchFloatRegInt(reg_idx, thread->threadId());
}
template <class Impl>
O3ThreadContext<Impl>::setIntReg(int reg_idx, uint64_t val)
{
reg_idx = TheISA::flattenIntIndex(this, reg_idx);
- cpu->setArchIntReg(reg_idx, val, thread->readTid());
+ cpu->setArchIntReg(reg_idx, val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
switch(width) {
case 32:
- cpu->setArchFloatRegSingle(reg_idx, val, thread->readTid());
+ cpu->setArchFloatRegSingle(reg_idx, val, thread->threadId());
break;
case 64:
- cpu->setArchFloatRegDouble(reg_idx, val, thread->readTid());
+ cpu->setArchFloatRegDouble(reg_idx, val, thread->threadId());
break;
}
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
O3ThreadContext<Impl>::setFloatReg(int reg_idx, FloatReg val)
{
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
- cpu->setArchFloatRegSingle(reg_idx, val, thread->readTid());
+ cpu->setArchFloatRegSingle(reg_idx, val, thread->threadId());
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
{
DPRINTF(Fault, "Setting floatint register through the TC!\n");
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
- cpu->setArchFloatRegInt(reg_idx, val, thread->readTid());
+ cpu->setArchFloatRegInt(reg_idx, val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
O3ThreadContext<Impl>::setFloatRegBits(int reg_idx, FloatRegBits val)
{
reg_idx = TheISA::flattenFloatIndex(this, reg_idx);
- cpu->setArchFloatRegInt(reg_idx, val, thread->readTid());
+ cpu->setArchFloatRegInt(reg_idx, val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
void
O3ThreadContext<Impl>::setPC(uint64_t val)
{
- cpu->setPC(val, thread->readTid());
+ cpu->setPC(val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
void
O3ThreadContext<Impl>::setNextPC(uint64_t val)
{
- cpu->setNextPC(val, thread->readTid());
+ cpu->setNextPC(val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
void
O3ThreadContext<Impl>::setMicroPC(uint64_t val)
{
- cpu->setMicroPC(val, thread->readTid());
+ cpu->setMicroPC(val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
void
O3ThreadContext<Impl>::setNextMicroPC(uint64_t val)
{
- cpu->setNextMicroPC(val, thread->readTid());
+ cpu->setNextMicroPC(val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
void
O3ThreadContext<Impl>::setMiscRegNoEffect(int misc_reg, const MiscReg &val)
{
- cpu->setMiscRegNoEffect(misc_reg, val, thread->readTid());
+ cpu->setMiscRegNoEffect(misc_reg, val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
O3ThreadContext<Impl>::setMiscReg(int misc_reg,
const MiscReg &val)
{
- cpu->setMiscReg(misc_reg, val, thread->readTid());
+ cpu->setMiscReg(misc_reg, val, thread->threadId());
// Squash if we're not already in a state update mode.
if (!thread->trapPending && !thread->inSyscall) {
- cpu->squashFromTC(thread->readTid());
+ cpu->squashFromTC(thread->threadId());
}
}
TheISA::IntReg
O3ThreadContext<Impl>::getSyscallArg(int i)
{
- return cpu->getSyscallArg(i, thread->readTid());
+ return cpu->getSyscallArg(i, thread->threadId());
}
template <class Impl>
void
O3ThreadContext<Impl>::setSyscallArg(int i, IntReg val)
{
- cpu->setSyscallArg(i, val, thread->readTid());
+ cpu->setSyscallArg(i, val, thread->threadId());
}
template <class Impl>
void
O3ThreadContext<Impl>::setSyscallReturn(SyscallReturn return_value)
{
- cpu->setSyscallReturn(return_value, thread->readTid());
+ cpu->setSyscallReturn(return_value, thread->threadId());
}
#endif // FULL_SYSTEM
void profileSample();
#endif
- int getThreadNum();
+ int threadId();
// Also somewhat obnoxious. Really only used for the TLB fault.
TheISA::MachInst getInst();
}
void setSyscallReturn(SyscallReturn return_value)
- { cpu->setSyscallReturn(return_value, thread->readTid()); }
+ { cpu->setSyscallReturn(return_value, thread->threadId()); }
Counter readFuncExeInst() { return thread->funcExeInst; }
// thread.activate();
// Hack for now. Otherwise might have to go through the tc, or
// I need to figure out what's the right thing to call.
- activateContext(thread.readTid(), 1);
+ activateContext(thread.threadId(), 1);
}
}
#endif // FULL_SYSTEM
switch (palFunc) {
case PAL::halt:
- haltContext(thread.readTid());
+ haltContext(thread.threadId());
if (--System::numSystemsRunning == 0)
exitSimLoop("all cpus halted");
break;
void
OzoneCPU<Impl>::OzoneTC::activate(int delay)
{
- cpu->activateContext(thread->readTid(), delay);
+ cpu->activateContext(thread->threadId(), delay);
}
/// Set the status to Suspended.
void
OzoneCPU<Impl>::OzoneTC::suspend()
{
- cpu->suspendContext(thread->readTid());
+ cpu->suspendContext(thread->threadId());
}
/// Set the status to Unallocated.
void
OzoneCPU<Impl>::OzoneTC::deallocate(int delay)
{
- cpu->deallocateContext(thread->readTid(), delay);
+ cpu->deallocateContext(thread->threadId(), delay);
}
/// Set the status to Halted.
void
OzoneCPU<Impl>::OzoneTC::halt()
{
- cpu->haltContext(thread->readTid());
+ cpu->haltContext(thread->threadId());
}
#if FULL_SYSTEM
template <class Impl>
int
-OzoneCPU<Impl>::OzoneTC::getThreadNum()
+OzoneCPU<Impl>::OzoneTC::threadId()
{
- return thread->readTid();
+ return thread->threadId();
}
template <class Impl>
#endif
inst = oldContext->getInst();
+ _threadId = oldContext->threadId();
_contextId = oldContext->contextId();
}
lastActivate = curTick;
// if (status() == ThreadContext::Unallocated) {
-// cpu->activateWhenReady(tid);
+// cpu->activateWhenReady(_threadId);
// return;
// }
_status = ThreadContext::Active;
// status() == Suspended
- cpu->activateContext(tid, delay);
+ cpu->activateContext(_threadId, delay);
}
void
#endif
*/
_status = ThreadContext::Suspended;
- cpu->suspendContext(tid);
+ cpu->suspendContext(_threadId);
}
void
return;
_status = ThreadContext::Unallocated;
- cpu->deallocateContext(tid);
+ cpu->deallocateContext(_threadId);
}
void
return;
_status = ThreadContext::Halted;
- cpu->haltContext(tid);
+ cpu->haltContext(_threadId);
}
BaseCPU *getCpuPtr() { return cpu; }
- int getThreadNum() { return tid; }
-
TheISA::ITB *getITBPtr() { return itb; }
TheISA::DTB *getDTBPtr() { return dtb; }
virtual int cpuId() = 0;
- virtual int getThreadNum() = 0;
+ virtual int threadId() = 0;
+
+ virtual void setThreadId(int id) = 0;
virtual int contextId() = 0;
int cpuId() { return actualTC->cpuId(); }
- int getThreadNum() { return actualTC->getThreadNum(); }
+ int threadId() { return actualTC->threadId(); }
+
+ void setThreadId(int id) { return actualTC->setThreadId(id); }
int contextId() { return actualTC->contextId(); }
#if FULL_SYSTEM
ThreadState::ThreadState(BaseCPU *cpu, int _tid)
- : baseCpu(cpu), tid(_tid), lastActivate(0), lastSuspend(0),
+ : baseCpu(cpu), _threadId(_tid), lastActivate(0), lastSuspend(0),
profile(NULL), profileNode(NULL), profilePC(0), quiesceEvent(NULL),
kernelStats(NULL), physPort(NULL), virtPort(NULL),
microPC(0), nextMicroPC(1), funcExeInst(0), storeCondFailures(0)
#else
ThreadState::ThreadState(BaseCPU *cpu, int _tid, Process *_process,
short _asid)
- : baseCpu(cpu), tid(_tid), lastActivate(0), lastSuspend(0),
+ : baseCpu(cpu), _threadId(_tid), lastActivate(0), lastSuspend(0),
port(NULL), process(_process), asid(_asid),
microPC(0), nextMicroPC(1), funcExeInst(0), storeCondFailures(0)
#endif
physPort->removeConn();
else
physPort = new FunctionalPort(csprintf("%s-%d-funcport",
- baseCpu->name(), tid));
+ baseCpu->name(), _threadId));
connectToMemFunc(physPort);
}
virtPort->removeConn();
else
virtPort = new VirtualPort(csprintf("%s-%d-vport",
- baseCpu->name(), tid), tc);
+ baseCpu->name(), _threadId), tc);
connectToMemFunc(virtPort);
}
return port;
/* Use this port to for syscall emulation writes to memory. */
- port = new TranslatingPort(csprintf("%s-%d-funcport", baseCpu->name(), tid),
+ port = new TranslatingPort(csprintf("%s-%d-funcport", baseCpu->name(), _threadId),
process, TranslatingPort::NextPage);
connectToMemFunc(port);
void setContextId(int id) { _contextId = id; }
- void setTid(int id) { tid = id; }
+ void setThreadId(int id) { _threadId = id; }
- int readTid() { return tid; }
+ int threadId() { return _threadId; }
Tick readLastActivate() { return lastActivate; }
int _contextId;
// Index of hardware thread context on the CPU that this represents.
- int tid;
+ int _threadId;
public:
/** Last time activate was called on this thread. */
void incMissCount(PacketPtr pkt)
{
- misses[pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/]++;
+ misses[pkt->cmdToIndex()][0/*pkt->req->threadId()*/]++;
if (missCount) {
--missCount;
if (pkt->needsExclusive() ? blk->isWritable() : blk->isReadable()) {
// OK to satisfy access
- hits[pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/]++;
+ hits[pkt->cmdToIndex()][0/*pkt->req->threadId()*/]++;
satisfyCpuSideRequest(pkt, blk);
return true;
}
blk->status |= BlkDirty;
// nothing else to do; writeback doesn't expect response
assert(!pkt->needsResponse());
- hits[pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/]++;
+ hits[pkt->cmdToIndex()][0/*pkt->req->threadId()*/]++;
return true;
}
if (mshr) {
// MSHR hit
//@todo remove hw_pf here
- mshr_hits[pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/]++;
- if (mshr->threadNum != 0/*pkt->req->getThreadNum()*/) {
+ mshr_hits[pkt->cmdToIndex()][0/*pkt->req->threadId()*/]++;
+ if (mshr->threadNum != 0/*pkt->req->threadId()*/) {
mshr->threadNum = -1;
}
mshr->allocateTarget(pkt, time, order++);
}
} else {
// no MSHR
- mshr_misses[pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/]++;
+ mshr_misses[pkt->cmdToIndex()][0/*pkt->req->threadId()*/]++;
// always mark as cache fill for now... if we implement
// no-write-allocate or bypass accesses this will have to
// be changed.
PacketList writebacks;
if (pkt->req->isUncacheable()) {
- mshr_uncacheable_lat[stats_cmd_idx][0/*pkt->req->getThreadNum()*/] +=
+ mshr_uncacheable_lat[stats_cmd_idx][0/*pkt->req->threadId()*/] +=
miss_latency;
} else {
- mshr_miss_latency[stats_cmd_idx][0/*pkt->req->getThreadNum()*/] +=
+ mshr_miss_latency[stats_cmd_idx][0/*pkt->req->threadId()*/] +=
miss_latency;
}
(transfer_offset ? pkt->finishTime : pkt->firstWordTime);
assert(!target->pkt->req->isUncacheable());
- missLatency[target->pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/] +=
+ missLatency[target->pkt->cmdToIndex()][0/*pkt->req->threadId()*/] +=
completion_time - target->recvTime;
} else {
// not a cache fill, just forwarding response
{
assert(blk && blk->isValid() && blk->isDirty());
- writebacks[0/*pkt->req->getThreadNum()*/]++;
+ writebacks[0/*pkt->req->threadId()*/]++;
Request *writebackReq =
new Request(tags->regenerateBlkAddr(blk->tag, blk->set), blkSize, 0);
if (pkt) {
// Update statistic on number of prefetches issued
// (hwpf_mshr_misses)
- mshr_misses[pkt->cmdToIndex()][0/*pkt->req->getThreadNum()*/]++;
+ mshr_misses[pkt->cmdToIndex()][0/*pkt->req->threadId()*/]++;
// Don't request bus, since we already have it
return allocateMissBuffer(pkt, curTick, false);
}
if (mshr->threadNum == threadNum) {
while (mshr->hasTargets()) {
mshr->popTarget();
- assert(0/*target->req->getThreadNum()*/ == threadNum);
+ assert(0/*target->req->threadId()*/ == threadNum);
}
assert(!mshr->hasTargets());
assert(mshr->ntargets==0);