//
//===----------------------------------------------------------------------===//
+#include "llvm/ProfileData/InstrProf.h"
+#include "llvm/ADT/StringExtras.h"
#include "llvm/IR/Constants.h"
#include "llvm/IR/Function.h"
-#include "llvm/IR/Module.h"
#include "llvm/IR/GlobalVariable.h"
-#include "llvm/ProfileData/InstrProf.h"
+#include "llvm/IR/Module.h"
+#include "llvm/Support/Compression.h"
#include "llvm/Support/ErrorHandling.h"
+#include "llvm/Support/LEB128.h"
#include "llvm/Support/ManagedStatic.h"
using namespace llvm;
std::string getPGOFuncName(StringRef RawFuncName,
GlobalValue::LinkageTypes Linkage,
- StringRef FileName) {
+ StringRef FileName,
+ uint64_t Version LLVM_ATTRIBUTE_UNUSED) {
// Function names may be prefixed with a binary '1' to indicate
// that the backend should not modify the symbols due to any platform
return FuncName;
}
-std::string getPGOFuncName(const Function &F) {
- return getPGOFuncName(F.getName(), F.getLinkage(), F.getParent()->getName());
+std::string getPGOFuncName(const Function &F, uint64_t Version) {
+ return getPGOFuncName(F.getName(), F.getLinkage(), F.getParent()->getName(),
+ Version);
+}
+
+StringRef getFuncNameWithoutPrefix(StringRef PGOFuncName, StringRef FileName) {
+ if (FileName.empty())
+ return PGOFuncName;
+ // Drop the file name including ':'. See also getPGOFuncName.
+ if (PGOFuncName.startswith(FileName))
+ PGOFuncName = PGOFuncName.drop_front(FileName.size() + 1);
+ return PGOFuncName;
+}
+
+// \p FuncName is the string used as profile lookup key for the function. A
+// symbol is created to hold the name. Return the legalized symbol name.
+static std::string getPGOFuncNameVarName(StringRef FuncName,
+ GlobalValue::LinkageTypes Linkage) {
+ std::string VarName = getInstrProfNameVarPrefix();
+ VarName += FuncName;
+
+ if (!GlobalValue::isLocalLinkage(Linkage))
+ return VarName;
+
+ // Now fix up illegal chars in local VarName that may upset the assembler.
+ const char *InvalidChars = "-:<>\"'";
+ size_t found = VarName.find_first_of(InvalidChars);
+ while (found != std::string::npos) {
+ VarName[found] = '_';
+ found = VarName.find_first_of(InvalidChars, found + 1);
+ }
+ return VarName;
}
GlobalVariable *createPGOFuncNameVar(Module &M,
auto *Value = ConstantDataArray::getString(M.getContext(), FuncName, false);
auto FuncNameVar =
new GlobalVariable(M, Value->getType(), true, Linkage, Value,
- Twine(getInstrProfNameVarPrefix()) + FuncName);
+ getPGOFuncNameVarName(FuncName, Linkage));
// Hide the symbol so that we correctly get a copy for each executable.
if (!GlobalValue::isLocalLinkage(FuncNameVar->getLinkage()))
return createPGOFuncNameVar(*F.getParent(), F.getLinkage(), FuncName);
}
-namespace IndexedInstrProf {
+int collectPGOFuncNameStrings(const std::vector<std::string> &NameStrs,
+ bool doCompression, std::string &Result) {
+ uint8_t Header[16], *P = Header;
+ std::string UncompressedNameStrings =
+ join(NameStrs.begin(), NameStrs.end(), StringRef(" "));
+
+ unsigned EncLen = encodeULEB128(UncompressedNameStrings.length(), P);
+ P += EncLen;
+
+ auto WriteStringToResult = [&](size_t CompressedLen,
+ const std::string &InputStr) {
+ EncLen = encodeULEB128(CompressedLen, P);
+ P += EncLen;
+ char *HeaderStr = reinterpret_cast<char *>(&Header[0]);
+ unsigned HeaderLen = P - &Header[0];
+ Result.append(HeaderStr, HeaderLen);
+ Result += InputStr;
+ return 0;
+ };
+
+ if (!doCompression)
+ return WriteStringToResult(0, UncompressedNameStrings);
+
+ SmallVector<char, 128> CompressedNameStrings;
+ zlib::Status Success =
+ zlib::compress(StringRef(UncompressedNameStrings), CompressedNameStrings,
+ zlib::BestSizeCompression);
+
+ if (Success != zlib::StatusOK)
+ return 1;
+
+ return WriteStringToResult(
+ CompressedNameStrings.size(),
+ std::string(CompressedNameStrings.data(), CompressedNameStrings.size()));
+}
-uint32_t ValueProfRecord::getHeaderSize(uint32_t NumValueSites) {
- uint32_t Size = offsetof(ValueProfRecord, SiteCountArray) +
- sizeof(uint8_t) * NumValueSites;
- // Round the size to multiple of 8 bytes.
- Size = (Size + 7) & ~7;
- return Size;
+StringRef getPGOFuncNameInitializer(GlobalVariable *NameVar) {
+ auto *Arr = cast<ConstantDataArray>(NameVar->getInitializer());
+ StringRef NameStr =
+ Arr->isCString() ? Arr->getAsCString() : Arr->getAsString();
+ return NameStr;
}
-uint32_t ValueProfRecord::getSize(uint32_t NumValueSites,
- uint32_t NumValueData) {
- return getHeaderSize(NumValueSites) +
- sizeof(InstrProfValueData) * NumValueData;
+int collectPGOFuncNameStrings(const std::vector<GlobalVariable *> &NameVars,
+ std::string &Result) {
+ std::vector<std::string> NameStrs;
+ for (auto *NameVar : NameVars) {
+ NameStrs.push_back(getPGOFuncNameInitializer(NameVar));
+ }
+ return collectPGOFuncNameStrings(NameStrs, zlib::isAvailable(), Result);
}
-void ValueProfRecord::deserializeTo(InstrProfRecord &Record,
- InstrProfRecord::ValueMapType *VMap) {
- Record.reserveSites(Kind, NumValueSites);
+int readPGOFuncNameStrings(StringRef NameStrings, InstrProfSymtab &Symtab) {
+ const uint8_t *P = reinterpret_cast<const uint8_t *>(NameStrings.data());
+ const uint8_t *EndP = reinterpret_cast<const uint8_t *>(NameStrings.data() +
+ NameStrings.size());
+ while (P < EndP) {
+ uint32_t N;
+ uint64_t UncompressedSize = decodeULEB128(P, &N);
+ P += N;
+ uint64_t CompressedSize = decodeULEB128(P, &N);
+ P += N;
+ bool isCompressed = (CompressedSize != 0);
+ SmallString<128> UncompressedNameStrings;
+ StringRef NameStrings;
+ if (isCompressed) {
+ StringRef CompressedNameStrings(reinterpret_cast<const char *>(P),
+ CompressedSize);
+ if (zlib::uncompress(CompressedNameStrings, UncompressedNameStrings,
+ UncompressedSize) != zlib::StatusOK)
+ return 1;
+ P += CompressedSize;
+ NameStrings = StringRef(UncompressedNameStrings.data(),
+ UncompressedNameStrings.size());
+ } else {
+ NameStrings =
+ StringRef(reinterpret_cast<const char *>(P), UncompressedSize);
+ P += UncompressedSize;
+ }
+ // Now parse the name strings.
+ SmallVector<StringRef, 0> Names;
+ NameStrings.split(Names, ' ');
+ for (StringRef &Name : Names)
+ Symtab.addFuncName(Name);
+
+ while (P < EndP && *P == 0)
+ P++;
+ }
+ Symtab.finalizeSymtab();
+ return 0;
+}
- InstrProfValueData *ValueData = this->getValueData();
- for (uint64_t VSite = 0; VSite < NumValueSites; ++VSite) {
- uint8_t ValueDataCount = this->SiteCountArray[VSite];
- Record.addValueData(Kind, VSite, ValueData, ValueDataCount, VMap);
- ValueData += ValueDataCount;
+instrprof_error InstrProfValueSiteRecord::merge(InstrProfValueSiteRecord &Input,
+ uint64_t Weight) {
+ this->sortByTargetValues();
+ Input.sortByTargetValues();
+ auto I = ValueData.begin();
+ auto IE = ValueData.end();
+ instrprof_error Result = instrprof_error::success;
+ for (auto J = Input.ValueData.begin(), JE = Input.ValueData.end(); J != JE;
+ ++J) {
+ while (I != IE && I->Value < J->Value)
+ ++I;
+ if (I != IE && I->Value == J->Value) {
+ bool Overflowed;
+ I->Count = SaturatingMultiplyAdd(J->Count, Weight, I->Count, &Overflowed);
+ if (Overflowed)
+ Result = instrprof_error::counter_overflow;
+ ++I;
+ continue;
+ }
+ ValueData.insert(I, *J);
+ }
+ return Result;
+}
+
+instrprof_error InstrProfValueSiteRecord::scale(uint64_t Weight) {
+ instrprof_error Result = instrprof_error::success;
+ for (auto I = ValueData.begin(), IE = ValueData.end(); I != IE; ++I) {
+ bool Overflowed;
+ I->Count = SaturatingMultiply(I->Count, Weight, &Overflowed);
+ if (Overflowed)
+ Result = instrprof_error::counter_overflow;
+ }
+ return Result;
+}
+
+// Merge Value Profile data from Src record to this record for ValueKind.
+// Scale merged value counts by \p Weight.
+instrprof_error InstrProfRecord::mergeValueProfData(uint32_t ValueKind,
+ InstrProfRecord &Src,
+ uint64_t Weight) {
+ uint32_t ThisNumValueSites = getNumValueSites(ValueKind);
+ uint32_t OtherNumValueSites = Src.getNumValueSites(ValueKind);
+ if (ThisNumValueSites != OtherNumValueSites)
+ return instrprof_error::value_site_count_mismatch;
+ std::vector<InstrProfValueSiteRecord> &ThisSiteRecords =
+ getValueSitesForKind(ValueKind);
+ std::vector<InstrProfValueSiteRecord> &OtherSiteRecords =
+ Src.getValueSitesForKind(ValueKind);
+ instrprof_error Result = instrprof_error::success;
+ for (uint32_t I = 0; I < ThisNumValueSites; I++)
+ MergeResult(Result, ThisSiteRecords[I].merge(OtherSiteRecords[I], Weight));
+ return Result;
+}
+
+instrprof_error InstrProfRecord::merge(InstrProfRecord &Other,
+ uint64_t Weight) {
+ // If the number of counters doesn't match we either have bad data
+ // or a hash collision.
+ if (Counts.size() != Other.Counts.size())
+ return instrprof_error::count_mismatch;
+
+ instrprof_error Result = instrprof_error::success;
+
+ for (size_t I = 0, E = Other.Counts.size(); I < E; ++I) {
+ bool Overflowed;
+ Counts[I] =
+ SaturatingMultiplyAdd(Other.Counts[I], Weight, Counts[I], &Overflowed);
+ if (Overflowed)
+ Result = instrprof_error::counter_overflow;
}
+
+ for (uint32_t Kind = IPVK_First; Kind <= IPVK_Last; ++Kind)
+ MergeResult(Result, mergeValueProfData(Kind, Other, Weight));
+
+ return Result;
+}
+
+instrprof_error InstrProfRecord::scaleValueProfData(uint32_t ValueKind,
+ uint64_t Weight) {
+ uint32_t ThisNumValueSites = getNumValueSites(ValueKind);
+ std::vector<InstrProfValueSiteRecord> &ThisSiteRecords =
+ getValueSitesForKind(ValueKind);
+ instrprof_error Result = instrprof_error::success;
+ for (uint32_t I = 0; I < ThisNumValueSites; I++)
+ MergeResult(Result, ThisSiteRecords[I].scale(Weight));
+ return Result;
}
-void ValueProfRecord::serializeFrom(const InstrProfRecord &Record,
- uint32_t ValueKind,
- uint32_t NumValueSites) {
- Kind = ValueKind;
- this->NumValueSites = NumValueSites;
- InstrProfValueData *DstVD = getValueData();
- for (uint32_t S = 0; S < NumValueSites; S++) {
- uint32_t ND = Record.getNumValueDataForSite(ValueKind, S);
- SiteCountArray[S] = ND;
- std::unique_ptr<InstrProfValueData[]> SrcVD =
- Record.getValueForSite(ValueKind, S);
- for (uint32_t I = 0; I < ND; I++) {
- DstVD[I] = SrcVD[I];
- switch (ValueKind) {
- case IPVK_IndirectCallTarget:
- DstVD[I].Value = ComputeHash(HashType, (const char *)DstVD[I].Value);
- break;
- default:
- llvm_unreachable("value kind not handled !");
- }
+instrprof_error InstrProfRecord::scale(uint64_t Weight) {
+ instrprof_error Result = instrprof_error::success;
+ for (auto &Count : this->Counts) {
+ bool Overflowed;
+ Count = SaturatingMultiply(Count, Weight, &Overflowed);
+ if (Overflowed && Result == instrprof_error::success) {
+ Result = instrprof_error::counter_overflow;
}
- DstVD += ND;
}
+ for (uint32_t Kind = IPVK_First; Kind <= IPVK_Last; ++Kind)
+ MergeResult(Result, scaleValueProfData(Kind, Weight));
+
+ return Result;
}
-template <class T>
-static T swapToHostOrder(const unsigned char *&D, support::endianness Orig) {
- using namespace support;
- if (Orig == little)
- return endian::readNext<T, little, unaligned>(D);
+// Map indirect call target name hash to name string.
+uint64_t InstrProfRecord::remapValue(uint64_t Value, uint32_t ValueKind,
+ ValueMapType *ValueMap) {
+ if (!ValueMap)
+ return Value;
+ switch (ValueKind) {
+ case IPVK_IndirectCallTarget: {
+ auto Result =
+ std::lower_bound(ValueMap->begin(), ValueMap->end(), Value,
+ [](const std::pair<uint64_t, uint64_t> &LHS,
+ uint64_t RHS) { return LHS.first < RHS; });
+ if (Result != ValueMap->end())
+ Value = (uint64_t)Result->second;
+ break;
+ }
+ }
+ return Value;
+}
+
+void InstrProfRecord::addValueData(uint32_t ValueKind, uint32_t Site,
+ InstrProfValueData *VData, uint32_t N,
+ ValueMapType *ValueMap) {
+ for (uint32_t I = 0; I < N; I++) {
+ VData[I].Value = remapValue(VData[I].Value, ValueKind, ValueMap);
+ }
+ std::vector<InstrProfValueSiteRecord> &ValueSites =
+ getValueSitesForKind(ValueKind);
+ if (N == 0)
+ ValueSites.push_back(InstrProfValueSiteRecord());
else
- return endian::readNext<T, big, unaligned>(D);
+ ValueSites.emplace_back(VData, VData + N);
+}
+
+#define INSTR_PROF_COMMON_API_IMPL
+#include "llvm/ProfileData/InstrProfData.inc"
+
+/*!
+ * \brief ValueProfRecordClosure Interface implementation for InstrProfRecord
+ * class. These C wrappers are used as adaptors so that C++ code can be
+ * invoked as callbacks.
+ */
+uint32_t getNumValueKindsInstrProf(const void *Record) {
+ return reinterpret_cast<const InstrProfRecord *>(Record)->getNumValueKinds();
+}
+
+uint32_t getNumValueSitesInstrProf(const void *Record, uint32_t VKind) {
+ return reinterpret_cast<const InstrProfRecord *>(Record)
+ ->getNumValueSites(VKind);
+}
+
+uint32_t getNumValueDataInstrProf(const void *Record, uint32_t VKind) {
+ return reinterpret_cast<const InstrProfRecord *>(Record)
+ ->getNumValueData(VKind);
+}
+
+uint32_t getNumValueDataForSiteInstrProf(const void *R, uint32_t VK,
+ uint32_t S) {
+ return reinterpret_cast<const InstrProfRecord *>(R)
+ ->getNumValueDataForSite(VK, S);
+}
+
+void getValueForSiteInstrProf(const void *R, InstrProfValueData *Dst,
+ uint32_t K, uint32_t S,
+ uint64_t (*Mapper)(uint32_t, uint64_t)) {
+ return reinterpret_cast<const InstrProfRecord *>(R)->getValueForSite(
+ Dst, K, S, Mapper);
+}
+
+ValueProfData *allocValueProfDataInstrProf(size_t TotalSizeInBytes) {
+ ValueProfData *VD =
+ (ValueProfData *)(new (::operator new(TotalSizeInBytes)) ValueProfData());
+ memset(VD, 0, TotalSizeInBytes);
+ return VD;
+}
+
+static ValueProfRecordClosure InstrProfRecordClosure = {
+ 0,
+ getNumValueKindsInstrProf,
+ getNumValueSitesInstrProf,
+ getNumValueDataInstrProf,
+ getNumValueDataForSiteInstrProf,
+ 0,
+ getValueForSiteInstrProf,
+ allocValueProfDataInstrProf};
+
+// Wrapper implementation using the closure mechanism.
+uint32_t ValueProfData::getSize(const InstrProfRecord &Record) {
+ InstrProfRecordClosure.Record = &Record;
+ return getValueProfDataSize(&InstrProfRecordClosure);
+}
+
+// Wrapper implementation using the closure mechanism.
+std::unique_ptr<ValueProfData>
+ValueProfData::serializeFrom(const InstrProfRecord &Record) {
+ InstrProfRecordClosure.Record = &Record;
+
+ std::unique_ptr<ValueProfData> VPD(
+ serializeValueProfDataFrom(&InstrProfRecordClosure, nullptr));
+ return VPD;
+}
+
+void ValueProfRecord::deserializeTo(InstrProfRecord &Record,
+ InstrProfRecord::ValueMapType *VMap) {
+ Record.reserveSites(Kind, NumValueSites);
+
+ InstrProfValueData *ValueData = getValueProfRecordValueData(this);
+ for (uint64_t VSite = 0; VSite < NumValueSites; ++VSite) {
+ uint8_t ValueDataCount = this->SiteCountArray[VSite];
+ Record.addValueData(Kind, VSite, ValueData, ValueDataCount, VMap);
+ ValueData += ValueDataCount;
+ }
}
// For writing/serializing, Old is the host endianness, and New is
sys::swapByteOrder<uint32_t>(NumValueSites);
sys::swapByteOrder<uint32_t>(Kind);
}
- uint32_t ND = getNumValueData();
- InstrProfValueData *VD = getValueData();
+ uint32_t ND = getValueProfRecordNumValueData(this);
+ InstrProfValueData *VD = getValueProfRecordValueData(this);
// No need to swap byte array: SiteCountArrray.
for (uint32_t I = 0; I < ND; I++) {
}
}
-uint32_t ValueProfData::getSize(const InstrProfRecord &Record) {
- uint32_t TotalSize = sizeof(ValueProfData);
- uint32_t NumValueKinds = Record.getNumValueKinds();
- if (NumValueKinds == 0)
- return TotalSize;
-
- for (uint32_t Kind = IPVK_First; Kind <= IPVK_Last; Kind++) {
- uint32_t NumValueSites = Record.getNumValueSites(Kind);
- if (!NumValueSites)
- continue;
- TotalSize +=
- ValueProfRecord::getSize(NumValueSites, Record.getNumValueData(Kind));
- }
- return TotalSize;
-}
-
void ValueProfData::deserializeTo(InstrProfRecord &Record,
InstrProfRecord::ValueMapType *VMap) {
if (NumValueKinds == 0)
return;
- ValueProfRecord *VR = getFirstValueProfRecord();
+ ValueProfRecord *VR = getFirstValueProfRecord(this);
for (uint32_t K = 0; K < NumValueKinds; K++) {
VR->deserializeTo(Record, VMap);
- VR = VR->getNext();
+ VR = getValueProfRecordNext(VR);
}
}
-static std::unique_ptr<ValueProfData> AllocValueProfData(uint32_t TotalSize) {
+template <class T>
+static T swapToHostOrder(const unsigned char *&D, support::endianness Orig) {
+ using namespace support;
+ if (Orig == little)
+ return endian::readNext<T, little, unaligned>(D);
+ else
+ return endian::readNext<T, big, unaligned>(D);
+}
+
+static std::unique_ptr<ValueProfData> allocValueProfData(uint32_t TotalSize) {
return std::unique_ptr<ValueProfData>(new (::operator new(TotalSize))
ValueProfData());
}
-std::unique_ptr<ValueProfData>
-ValueProfData::serializeFrom(const InstrProfRecord &Record) {
- uint32_t TotalSize = getSize(Record);
-
- std::unique_ptr<ValueProfData> VPD = AllocValueProfData(TotalSize);
+instrprof_error ValueProfData::checkIntegrity() {
+ if (NumValueKinds > IPVK_Last + 1)
+ return instrprof_error::malformed;
+ // Total size needs to be mulltiple of quadword size.
+ if (TotalSize % sizeof(uint64_t))
+ return instrprof_error::malformed;
- VPD->TotalSize = TotalSize;
- VPD->NumValueKinds = Record.getNumValueKinds();
- ValueProfRecord *VR = VPD->getFirstValueProfRecord();
- for (uint32_t Kind = IPVK_First; Kind <= IPVK_Last; Kind++) {
- uint32_t NumValueSites = Record.getNumValueSites(Kind);
- if (!NumValueSites)
- continue;
- VR->serializeFrom(Record, Kind, NumValueSites);
- VR = VR->getNext();
+ ValueProfRecord *VR = getFirstValueProfRecord(this);
+ for (uint32_t K = 0; K < this->NumValueKinds; K++) {
+ if (VR->Kind > IPVK_Last)
+ return instrprof_error::malformed;
+ VR = getValueProfRecordNext(VR);
+ if ((char *)VR - (char *)this > (ptrdiff_t)TotalSize)
+ return instrprof_error::malformed;
}
- return VPD;
+ return instrprof_error::success;
}
ErrorOr<std::unique_ptr<ValueProfData>>
const unsigned char *Header = D;
uint32_t TotalSize = swapToHostOrder<uint32_t>(Header, Endianness);
- uint32_t NumValueKinds = swapToHostOrder<uint32_t>(Header, Endianness);
-
if (D + TotalSize > BufferEnd)
return instrprof_error::too_large;
- if (NumValueKinds > IPVK_Last + 1)
- return instrprof_error::malformed;
- // Total size needs to be mulltiple of quadword size.
- if (TotalSize % sizeof(uint64_t))
- return instrprof_error::malformed;
-
- std::unique_ptr<ValueProfData> VPD = AllocValueProfData(TotalSize);
+ std::unique_ptr<ValueProfData> VPD = allocValueProfData(TotalSize);
memcpy(VPD.get(), D, TotalSize);
// Byte swap.
VPD->swapBytesToHost(Endianness);
- // Data integrety check:
- ValueProfRecord *VR = VPD->getFirstValueProfRecord();
- for (uint32_t K = 0; K < VPD->NumValueKinds; K++) {
- if (VR->Kind > IPVK_Last)
- return instrprof_error::malformed;
- VR = VR->getNext();
- if ((char *)VR - (char *)VPD.get() > (ptrdiff_t)TotalSize)
- return instrprof_error::malformed;
- }
+ instrprof_error EC = VPD->checkIntegrity();
+ if (EC != instrprof_error::success)
+ return EC;
return std::move(VPD);
}
sys::swapByteOrder<uint32_t>(TotalSize);
sys::swapByteOrder<uint32_t>(NumValueKinds);
- ValueProfRecord *VR = getFirstValueProfRecord();
+ ValueProfRecord *VR = getFirstValueProfRecord(this);
for (uint32_t K = 0; K < NumValueKinds; K++) {
VR->swapBytes(Endianness, getHostEndianness());
- VR = VR->getNext();
+ VR = getValueProfRecordNext(VR);
}
}
if (Endianness == getHostEndianness())
return;
- ValueProfRecord *VR = getFirstValueProfRecord();
+ ValueProfRecord *VR = getFirstValueProfRecord(this);
for (uint32_t K = 0; K < NumValueKinds; K++) {
- ValueProfRecord *NVR = VR->getNext();
+ ValueProfRecord *NVR = getValueProfRecordNext(VR);
VR->swapBytes(getHostEndianness(), Endianness);
VR = NVR;
}
sys::swapByteOrder<uint32_t>(NumValueKinds);
}
-ValueProfRecord *ValueProfData::getFirstValueProfRecord() {
- return reinterpret_cast<ValueProfRecord *>((char *)this +
- sizeof(ValueProfData));
-}
-
-uint32_t ValueProfRecord::getNumValueData() const {
- uint32_t NumValueData = 0;
- for (uint32_t I = 0; I < NumValueSites; I++)
- NumValueData += SiteCountArray[I];
- return NumValueData;
-}
-
-ValueProfRecord *ValueProfRecord::getNext() {
- return reinterpret_cast<ValueProfRecord *>((char *)this + getSize());
-}
-
-InstrProfValueData *ValueProfRecord::getValueData() {
- return reinterpret_cast<InstrProfValueData *>((char *)this +
- getHeaderSize(NumValueSites));
-}
-
-} // End of IndexedInstrProf namespace.
}
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