FuncHash = Hash;
}
- Error accumuateCounts(const std::string &BaseFilename,
- const std::string &TestFilename, bool IsCS);
+ Error accumulateCounts(const std::string &BaseFilename,
+ const std::string &TestFilename, bool IsCS);
void addOneMismatch(const CountSumOrPercent &MismatchFunc);
void addOneUnique(const CountSumOrPercent &UniqueFunc);
void clearValueData() { ValueData = nullptr; }
/// Compute the sums of all counts and store in Sum.
- void accumuateCounts(CountSumOrPercent &Sum) const;
+ void accumulateCounts(CountSumOrPercent &Sum) const;
/// Compute the overlap b/w this IntrprofRecord and Other.
void overlap(InstrProfRecord &Other, OverlapStats &Overlap,
virtual InstrProfSymtab &getSymtab() = 0;
/// Compute the sum of counts and return in Sum.
- void accumuateCounts(CountSumOrPercent &Sum, bool IsCS);
+ void accumulateCounts(CountSumOrPercent &Sum, bool IsCS);
protected:
std::unique_ptr<InstrProfSymtab> Symtab;
return Error::success();
}
-void InstrProfRecord::accumuateCounts(CountSumOrPercent &Sum) const {
+void InstrProfRecord::accumulateCounts(CountSumOrPercent &Sum) const {
uint64_t FuncSum = 0;
Sum.NumEntries += Counts.size();
for (size_t F = 0, E = Counts.size(); F < E; ++F)
uint64_t ValueCutoff) {
// FuncLevel CountSum for other should already computed and nonzero.
assert(FuncLevelOverlap.Test.CountSum >= 1.0f);
- accumuateCounts(FuncLevelOverlap.Base);
+ accumulateCounts(FuncLevelOverlap.Base);
bool Mismatch = (Counts.size() != Other.Counts.size());
// Check if the value profiles mismatch.
}
}
-Error OverlapStats::accumuateCounts(const std::string &BaseFilename,
- const std::string &TestFilename,
- bool IsCS) {
+Error OverlapStats::accumulateCounts(const std::string &BaseFilename,
+ const std::string &TestFilename,
+ bool IsCS) {
auto getProfileSum = [IsCS](const std::string &Filename,
CountSumOrPercent &Sum) -> Error {
auto ReaderOrErr = InstrProfReader::create(Filename);
return E;
}
auto Reader = std::move(ReaderOrErr.get());
- Reader->accumuateCounts(Sum, IsCS);
+ Reader->accumulateCounts(Sum, IsCS);
return Error::success();
};
auto Ret = getProfileSum(BaseFilename, Base);
return success();
}
-void InstrProfReader::accumuateCounts(CountSumOrPercent &Sum, bool IsCS) {
+void InstrProfReader::accumulateCounts(CountSumOrPercent &Sum, bool IsCS) {
uint64_t NumFuncs = 0;
for (const auto &Func : *this) {
if (isIRLevelProfile()) {
if (FuncIsCS != IsCS)
continue;
}
- Func.accumuateCounts(Sum);
+ Func.accumulateCounts(Sum);
++NumFuncs;
}
Sum.NumEntries = NumFuncs;
const OverlapFuncFilters &FuncFilter) {
auto Name = Other.Name;
auto Hash = Other.Hash;
- Other.accumuateCounts(FuncLevelOverlap.Test);
+ Other.accumulateCounts(FuncLevelOverlap.Test);
if (FunctionData.find(Name) == FunctionData.end()) {
Overlap.addOneUnique(FuncLevelOverlap.Test);
return;
WriterContext Context(false, ErrorLock, WriterErrorCodes);
WeightedFile WeightedInput{BaseFilename, 1};
OverlapStats Overlap;
- Error E = Overlap.accumuateCounts(BaseFilename, TestFilename, IsCS);
+ Error E = Overlap.accumulateCounts(BaseFilename, TestFilename, IsCS);
if (E)
exitWithError(std::move(E), "Error in getting profile count sums");
if (Overlap.Base.CountSum < 1.0f) {