/// if they are never started.
///
class Timer {
- int64_t Elapsed; // Wall clock time elapsed in seconds
- int64_t UserTime; // User time elapsed
- int64_t SystemTime; // System time elapsed
- int64_t MemUsed; // Memory allocated (in bytes)
- int64_t PeakMem; // Peak memory used
- int64_t PeakMemBase; // Temporary for peak calculation...
+ double Elapsed; // Wall clock time elapsed in seconds
+ double UserTime; // User time elapsed
+ double SystemTime; // System time elapsed
+ ssize_t MemUsed; // Memory allocated (in bytes)
+ size_t PeakMem; // Peak memory used
+ size_t PeakMemBase; // Temporary for peak calculation...
std::string Name; // The name of this time variable
bool Started; // Has this time variable ever been started?
TimerGroup *TG; // The TimerGroup this Timer is in.
Timer(const Timer &T);
~Timer();
- int64_t getProcessTime() const { return UserTime+SystemTime; }
- int64_t getWallTime() const { return Elapsed; }
- int64_t getMemUsed() const { return MemUsed; }
- int64_t getPeakMem() const { return PeakMem; }
+ double getProcessTime() const { return UserTime+SystemTime; }
+ double getWallTime() const { return Elapsed; }
+ ssize_t getMemUsed() const { return MemUsed; }
+ size_t getPeakMem() const { return PeakMem; }
std::string getName() const { return Name; }
const Timer &operator=(const Timer &T) {
namespace sys {
void MemoryFence();
- uint32_t CompareAndSwap32(volatile uint32_t* ptr,
- uint32_t new_value,
- uint32_t old_value);
- int32_t AtomicIncrement32(volatile int32_t* ptr);
- int32_t AtomicDecrement32(volatile int32_t* ptr);
- int32_t AtomicAdd32(volatile int32_t* ptr, int32_t val);
-
- int64_t AtomicAdd64(volatile int64_t* ptr, int64_t val);
+ typedef uint32_t cas_flag;
+ cas_flag CompareAndSwap(volatile cas_flag* ptr,
+ cas_flag new_value,
+ cas_flag old_value);
+ cas_flag AtomicIncrement(volatile cas_flag* ptr);
+ cas_flag AtomicDecrement(volatile cas_flag* ptr);
+ cas_flag AtomicAdd(volatile cas_flag* ptr, cas_flag val);
}
}
/// has no AbstractTypeUsers, the type is deleted. This is only sensical for
/// derived types.
///
- mutable int32_t RefCount;
+ mutable sys::cas_flag RefCount;
const Type *getForwardedTypeInternal() const;
void addRef() const {
assert(isAbstract() && "Cannot add a reference to a non-abstract type!");
- sys::AtomicIncrement32(&RefCount);
+ sys::AtomicIncrement(&RefCount);
}
void dropRef() const {
// If this is the last PATypeHolder using this object, and there are no
// PATypeHandles using it, the type is dead, delete it now.
- int32_t Count = sys::AtomicDecrement32(&RefCount);
- if (Count == 0 && AbstractTypeUsers.empty())
+ sys::cas_flag OldCount = sys::AtomicDecrement(&RefCount);
+ if (OldCount == 0 && AbstractTypeUsers.empty())
this->destroy();
}
}
struct TimeRecord {
- int64_t Elapsed, UserTime, SystemTime, MemUsed;
+ double Elapsed, UserTime, SystemTime;
+ ssize_t MemUsed;
};
static TimeRecord getTimeRecord(bool Start) {
sys::TimeValue user(0,0);
sys::TimeValue sys(0,0);
- int64_t MemUsed = 0;
+ ssize_t MemUsed = 0;
if (Start) {
MemUsed = getMemUsage();
sys::Process::GetTimeUsage(now,user,sys);
MemUsed = getMemUsage();
}
- Result.Elapsed = now.seconds() * 1000000 + now.microseconds();
- Result.UserTime = user.seconds() * 1000000 + user.microseconds();
- Result.SystemTime = sys.seconds() * 1000000 + sys.microseconds();
+ Result.Elapsed = now.seconds() + now.microseconds() / 1000000.0;
+ Result.UserTime = user.seconds() + user.microseconds() / 1000000.0;
+ Result.SystemTime = sys.seconds() + sys.microseconds() / 1000000.0;
Result.MemUsed = MemUsed;
return Result;
/// currently active timers, which will be printed when the timer group prints
///
void Timer::addPeakMemoryMeasurement() {
- int64_t MemUsed = getMemUsage();
+ size_t MemUsed = getMemUsage();
for (std::vector<Timer*>::iterator I = ActiveTimers->begin(),
E = ActiveTimers->end(); I != E; ++I)
- (*I)->PeakMem = std::max((*I)->PeakMem, (int64_t)MemUsed-(*I)->PeakMemBase);
+ (*I)->PeakMem = std::max((*I)->PeakMem, MemUsed-(*I)->PeakMemBase);
}
//===----------------------------------------------------------------------===//
void Timer::print(const Timer &Total, std::ostream &OS) {
if (Total.UserTime)
- printVal(UserTime / 1000000.0, Total.UserTime / 1000000.0, OS);
+ printVal(UserTime, Total.UserTime, OS);
if (Total.SystemTime)
- printVal(SystemTime / 1000000.0, Total.SystemTime / 1000000.0, OS);
+ printVal(SystemTime, Total.SystemTime, OS);
if (Total.getProcessTime())
- printVal(getProcessTime() / 1000000.0,
- Total.getProcessTime() / 1000000.0, OS);
- printVal(Elapsed / 1000000.0, Total.Elapsed / 1000000.0, OS);
+ printVal(getProcessTime(), Total.getProcessTime(), OS);
+ printVal(Elapsed, Total.Elapsed, OS);
OS << " ";
if (this != DefaultTimerGroup) {
*OutStream << " Total Execution Time: ";
- printAlignedFP(Total.getProcessTime() / 1000000.0, 4, 5, *OutStream);
+ printAlignedFP(Total.getProcessTime(), 4, 5, *OutStream);
*OutStream << " seconds (";
- printAlignedFP(Total.getWallTime() / 1000000.0, 4, 5, *OutStream);
+ printAlignedFP(Total.getWallTime(), 4, 5, *OutStream);
*OutStream << " wall clock)\n";
}
*OutStream << "\n";
- if (Total.UserTime / 1000000.0)
+ if (Total.UserTime)
*OutStream << " ---User Time---";
- if (Total.SystemTime / 1000000.0)
+ if (Total.SystemTime)
*OutStream << " --System Time--";
- if (Total.getProcessTime() / 1000000.0)
+ if (Total.getProcessTime())
*OutStream << " --User+System--";
*OutStream << " ---Wall Time---";
- if (Total.getMemUsed() / 1000000.0)
+ if (Total.getMemUsed())
*OutStream << " ---Mem---";
- if (Total.getPeakMem() / 1000000.0)
+ if (Total.getPeakMem())
*OutStream << " -PeakMem-";
*OutStream << " --- Name ---\n";
#endif
}
-uint32_t sys::CompareAndSwap32(volatile uint32_t* ptr,
- uint32_t new_value,
- uint32_t old_value) {
+sys::cas_flag sys::CompareAndSwap(volatile sys::cas_flag* ptr,
+ sys::cas_flag new_value,
+ sys::cas_flag old_value) {
#if LLVM_MULTITHREADED==0
- uint32_t result = *ptr;
+ sys::cas_flag result = *ptr;
if (result == old_value)
*ptr = new_value;
return result;
#endif
}
-int32_t sys::AtomicIncrement32(volatile int32_t* ptr) {
+sys::cas_flag sys::AtomicIncrement(volatile sys::cas_flag* ptr) {
#if LLVM_MULTITHREADED==0
++(*ptr);
return *ptr;
#endif
}
-int32_t sys::AtomicDecrement32(volatile int32_t* ptr) {
+sys::cas_flag sys::AtomicDecrement(volatile sys::cas_flag* ptr) {
#if LLVM_MULTITHREADED==0
--(*ptr);
return *ptr;
#endif
}
-int32_t sys::AtomicAdd32(volatile int32_t* ptr, int32_t val) {
+sys::cas_flag sys::AtomicAdd(volatile sys::cas_flag* ptr, sys::cas_flag val) {
#if LLVM_MULTITHREADED==0
*ptr += val;
return *ptr;
#endif
}
-int64_t sys::AtomicAdd64(volatile int64_t* ptr, int64_t val) {
-#if LLVM_MULTITHREADED==0
- *ptr += val;
- return *ptr;
-#elif defined(__GNUC__)
- return __sync_add_and_fetch(ptr, val);
-#elif defined(_MSC_VER)
- return InterlockedAdd64(ptr, val);
-#else
-# error No atomic add implementation for your platform!
-#endif
-}
} else if (!GV->hasName()) {
// Must mangle the global into a unique ID.
unsigned TypeUniqueID = getTypeID(GV->getType());
- static int32_t GlobalID = 0;
+ static uint32_t GlobalID = 0;
- int32_t OldID = GlobalID;
- sys::AtomicIncrement32(&GlobalID);
+ unsigned OldID = GlobalID;
+ sys::AtomicIncrement(&GlobalID);
Name = "__unnamed_" + utostr(TypeUniqueID) + "_" + utostr(OldID);
} else {