llvm-6502/lib/Bytecode/Reader/Analyzer.cpp
Reid Spencer d2bb887cd1 Bye, Bye Compaction Tables. The benefit compaction tables provides doesn't
outweight its computational costs. This patch removes all compaction
table handling from the bcreader and bcwriter. For the record, here's the
difference betweeen having and not having compaction tables for some tests:

Test             With       Without   Size Chg
Olden/mst       5,602         5,598      +0.1%
viterbi        18,026        17,795      +1.3%
obsequi       162,133       166,663      -2.8%
burg          224,090       228,148      -1.8%
kimwitu++   4,933,263     5,121,159      -3.8%
176.gcc     8,470,424     9,141,539      -7.3%

It seems that it is more beneficial to larger files, but even on the largest
test case we have (176.gcc) it only amounts ot an I/O saving of 7.3%.


git-svn-id: https://llvm.org/svn/llvm-project/llvm/trunk@33661 91177308-0d34-0410-b5e6-96231b3b80d8
2007-01-30 19:36:46 +00:00

726 lines
23 KiB
C++

//===-- Analyzer.cpp - Analysis and Dumping of Bytecode 000000---*- C++ -*-===//
//
// The LLVM Compiler Infrastructure
//
// This file was developed by Reid Spencer and is distributed under the
// University of Illinois Open Source License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
//
// This file implements the AnalyzerHandler class and PrintBytecodeAnalysis
// function which together comprise the basic functionality of the llmv-abcd
// tool. The AnalyzerHandler collects information about the bytecode file into
// the BytecodeAnalysis structure. The PrintBytecodeAnalysis function prints
// out the content of that structure.
// @see include/llvm/Bytecode/Analysis.h
//
//===----------------------------------------------------------------------===//
#include "Reader.h"
#include "llvm/Constants.h"
#include "llvm/DerivedTypes.h"
#include "llvm/Module.h"
#include "llvm/Analysis/Verifier.h"
#include "llvm/Bytecode/BytecodeHandler.h"
#include "llvm/Assembly/Writer.h"
#include <iomanip>
#include <sstream>
#include <ios>
using namespace llvm;
namespace {
/// @brief Bytecode reading handler for analyzing bytecode.
class AnalyzerHandler : public BytecodeHandler {
BytecodeAnalysis& bca; ///< The structure in which data is recorded
std::ostream* os; ///< A convenience for osing data.
/// @brief Keeps track of current function
BytecodeAnalysis::BytecodeFunctionInfo* currFunc;
Module* M; ///< Keeps track of current module
/// @name Constructor
/// @{
public:
/// The only way to construct an AnalyzerHandler. All that is needed is a
/// reference to the BytecodeAnalysis structure where the output will be
/// placed.
AnalyzerHandler(BytecodeAnalysis& TheBca, std::ostream* output)
: bca(TheBca)
, os(output)
, currFunc(0)
{ }
/// @}
/// @name BytecodeHandler Implementations
/// @{
public:
virtual void handleError(const std::string& str ) {
if (os)
*os << "ERROR: " << str << "\n";
}
virtual void handleStart( Module* Mod, unsigned theSize ) {
M = Mod;
if (os)
*os << "Bytecode {\n";
bca.byteSize = theSize;
bca.ModuleId.clear();
bca.numBlocks = 0;
bca.numTypes = 0;
bca.numValues = 0;
bca.numFunctions = 0;
bca.numConstants = 0;
bca.numGlobalVars = 0;
bca.numInstructions = 0;
bca.numBasicBlocks = 0;
bca.numOperands = 0;
bca.numCmpctnTables = 0;
bca.numSymTab = 0;
bca.numLibraries = 0;
bca.libSize = 0;
bca.maxTypeSlot = 0;
bca.maxValueSlot = 0;
bca.numAlignment = 0;
bca.fileDensity = 0.0;
bca.globalsDensity = 0.0;
bca.functionDensity = 0.0;
bca.instructionSize = 0;
bca.longInstructions = 0;
bca.vbrCount32 = 0;
bca.vbrCount64 = 0;
bca.vbrCompBytes = 0;
bca.vbrExpdBytes = 0;
bca.FunctionInfo.clear();
bca.BlockSizes[BytecodeFormat::Reserved_DoNotUse] = 0;
bca.BlockSizes[BytecodeFormat::ModuleBlockID] = theSize;
bca.BlockSizes[BytecodeFormat::FunctionBlockID] = 0;
bca.BlockSizes[BytecodeFormat::ConstantPoolBlockID] = 0;
bca.BlockSizes[BytecodeFormat::ValueSymbolTableBlockID] = 0;
bca.BlockSizes[BytecodeFormat::ModuleGlobalInfoBlockID] = 0;
bca.BlockSizes[BytecodeFormat::GlobalTypePlaneBlockID] = 0;
bca.BlockSizes[BytecodeFormat::InstructionListBlockID] = 0;
bca.BlockSizes[BytecodeFormat::TypeSymbolTableBlockID] = 0;
}
virtual void handleFinish() {
if (os)
*os << "} End Bytecode\n";
bca.fileDensity = double(bca.byteSize) / double( bca.numTypes + bca.numValues );
double globalSize = 0.0;
globalSize += double(bca.BlockSizes[BytecodeFormat::ConstantPoolBlockID]);
globalSize += double(bca.BlockSizes[BytecodeFormat::ModuleGlobalInfoBlockID]);
globalSize += double(bca.BlockSizes[BytecodeFormat::GlobalTypePlaneBlockID]);
bca.globalsDensity = globalSize / double( bca.numTypes + bca.numConstants +
bca.numGlobalVars );
bca.functionDensity = double(bca.BlockSizes[BytecodeFormat::FunctionBlockID]) /
double(bca.numFunctions);
if (bca.progressiveVerify) {
std::string msg;
if (verifyModule(*M, ReturnStatusAction, &msg))
bca.VerifyInfo += "Verify@Finish: " + msg + "\n";
}
}
virtual void handleModuleBegin(const std::string& id) {
if (os)
*os << " Module " << id << " {\n";
bca.ModuleId = id;
}
virtual void handleModuleEnd(const std::string& id) {
if (os)
*os << " } End Module " << id << "\n";
if (bca.progressiveVerify) {
std::string msg;
if (verifyModule(*M, ReturnStatusAction, &msg))
bca.VerifyInfo += "Verify@EndModule: " + msg + "\n";
}
}
virtual void handleVersionInfo(
unsigned char RevisionNum ///< Byte code revision number
) {
if (os)
*os << " RevisionNum: " << int(RevisionNum) << "\n";
bca.version = RevisionNum;
}
virtual void handleModuleGlobalsBegin() {
if (os)
*os << " BLOCK: ModuleGlobalInfo {\n";
}
virtual void handleGlobalVariable(
const Type* ElemType,
bool isConstant,
GlobalValue::LinkageTypes Linkage,
GlobalValue::VisibilityTypes Visibility,
unsigned SlotNum,
unsigned initSlot
) {
if (os) {
*os << " GV: "
<< ( initSlot == 0 ? "Uni" : "I" ) << "nitialized, "
<< ( isConstant? "Constant, " : "Variable, ")
<< " Linkage=" << Linkage
<< " Visibility="<< Visibility
<< " Type=";
WriteTypeSymbolic(*os, ElemType, M);
*os << " Slot=" << SlotNum << " InitSlot=" << initSlot
<< "\n";
}
bca.numGlobalVars++;
bca.numValues++;
if (SlotNum > bca.maxValueSlot)
bca.maxValueSlot = SlotNum;
if (initSlot > bca.maxValueSlot)
bca.maxValueSlot = initSlot;
}
virtual void handleTypeList(unsigned numEntries) {
bca.maxTypeSlot = numEntries - 1;
}
virtual void handleType( const Type* Ty ) {
bca.numTypes++;
if (os) {
*os << " Type: ";
WriteTypeSymbolic(*os,Ty,M);
*os << "\n";
}
}
virtual void handleFunctionDeclaration(
Function* Func ///< The function
) {
bca.numFunctions++;
bca.numValues++;
if (os) {
*os << " Function Decl: ";
WriteTypeSymbolic(*os,Func->getType(),M);
*os <<", Linkage=" << Func->getLinkage();
*os <<", Visibility=" << Func->getVisibility();
*os << "\n";
}
}
virtual void handleGlobalInitializer(GlobalVariable* GV, Constant* CV) {
if (os) {
*os << " Initializer: GV=";
GV->print(*os);
*os << " CV=";
CV->print(*os);
*os << "\n";
}
}
virtual void handleDependentLibrary(const std::string& libName) {
bca.numLibraries++;
bca.libSize += libName.size() + (libName.size() < 128 ? 1 : 2);
if (os)
*os << " Library: '" << libName << "'\n";
}
virtual void handleModuleGlobalsEnd() {
if (os)
*os << " } END BLOCK: ModuleGlobalInfo\n";
if (bca.progressiveVerify) {
std::string msg;
if (verifyModule(*M, ReturnStatusAction, &msg))
bca.VerifyInfo += "Verify@EndModuleGlobalInfo: " + msg + "\n";
}
}
virtual void handleCompactionTableBegin() {
if (os)
*os << " BLOCK: CompactionTable {\n";
bca.numCmpctnTables++;
}
virtual void handleCompactionTablePlane( unsigned Ty, unsigned NumEntries) {
if (os)
*os << " Plane: Ty=" << Ty << " Size=" << NumEntries << "\n";
}
virtual void handleCompactionTableType( unsigned i, unsigned TypSlot,
const Type* Ty ) {
if (os) {
*os << " Type: " << i << " Slot:" << TypSlot << " is ";
WriteTypeSymbolic(*os,Ty,M);
*os << "\n";
}
}
virtual void handleCompactionTableValue(unsigned i, unsigned TypSlot,
unsigned ValSlot) {
if (os)
*os << " Value: " << i << " TypSlot: " << TypSlot
<< " ValSlot:" << ValSlot << "\n";
if (ValSlot > bca.maxValueSlot)
bca.maxValueSlot = ValSlot;
}
virtual void handleCompactionTableEnd() {
if (os)
*os << " } END BLOCK: CompactionTable\n";
}
virtual void handleSymbolTableBegin(Function* CF, SymbolTable* ST) {
bca.numSymTab++;
if (os)
*os << " BLOCK: SymbolTable {\n";
}
virtual void handleSymbolTablePlane(unsigned Ty, unsigned NumEntries,
const Type* Typ) {
if (os) {
*os << " Plane: Ty=" << Ty << " Size=" << NumEntries << " Type: ";
WriteTypeSymbolic(*os,Typ,M);
*os << "\n";
}
}
virtual void handleSymbolTableType(unsigned i, unsigned TypSlot,
const std::string& name ) {
if (os)
*os << " Type " << i << " Slot=" << TypSlot
<< " Name: " << name << "\n";
}
virtual void handleSymbolTableValue(unsigned i, unsigned ValSlot,
const std::string& name ) {
if (os)
*os << " Value " << i << " Slot=" << ValSlot
<< " Name: " << name << "\n";
if (ValSlot > bca.maxValueSlot)
bca.maxValueSlot = ValSlot;
}
virtual void handleSymbolTableEnd() {
if (os)
*os << " } END BLOCK: SymbolTable\n";
}
virtual void handleFunctionBegin(Function* Func, unsigned Size) {
if (os) {
*os << " BLOCK: Function {\n"
<< " Linkage: " << Func->getLinkage() << "\n"
<< " Visibility: " << Func->getVisibility() << "\n"
<< " Type: ";
WriteTypeSymbolic(*os,Func->getType(),M);
*os << "\n";
}
currFunc = &bca.FunctionInfo[Func];
std::ostringstream tmp;
WriteTypeSymbolic(tmp,Func->getType(),M);
currFunc->description = tmp.str();
currFunc->name = Func->getName();
currFunc->byteSize = Size;
currFunc->numInstructions = 0;
currFunc->numBasicBlocks = 0;
currFunc->numPhis = 0;
currFunc->numOperands = 0;
currFunc->density = 0.0;
currFunc->instructionSize = 0;
currFunc->longInstructions = 0;
currFunc->vbrCount32 = 0;
currFunc->vbrCount64 = 0;
currFunc->vbrCompBytes = 0;
currFunc->vbrExpdBytes = 0;
}
virtual void handleFunctionEnd( Function* Func) {
if (os)
*os << " } END BLOCK: Function\n";
currFunc->density = double(currFunc->byteSize) /
double(currFunc->numInstructions);
if (bca.progressiveVerify) {
std::string msg;
if (verifyModule(*M, ReturnStatusAction, &msg))
bca.VerifyInfo += "Verify@EndFunction: " + msg + "\n";
}
}
virtual void handleBasicBlockBegin( unsigned blocknum) {
if (os)
*os << " BLOCK: BasicBlock #" << blocknum << "{\n";
bca.numBasicBlocks++;
bca.numValues++;
if ( currFunc ) currFunc->numBasicBlocks++;
}
virtual bool handleInstruction( unsigned Opcode, const Type* iType,
std::vector<unsigned>& Operands, unsigned Size){
if (os) {
*os << " INST: OpCode="
<< Instruction::getOpcodeName(Opcode) << " Type=\"";
WriteTypeSymbolic(*os,iType,M);
*os << "\"";
for ( unsigned i = 0; i < Operands.size(); ++i )
*os << " Op(" << i << ")=Slot(" << Operands[i] << ")";
*os << "\n";
}
bca.numInstructions++;
bca.numValues++;
bca.instructionSize += Size;
if (Size > 4 ) bca.longInstructions++;
bca.numOperands += Operands.size();
for (unsigned i = 0; i < Operands.size(); ++i )
if (Operands[i] > bca.maxValueSlot)
bca.maxValueSlot = Operands[i];
if ( currFunc ) {
currFunc->numInstructions++;
currFunc->instructionSize += Size;
if (Size > 4 ) currFunc->longInstructions++;
if ( Opcode == Instruction::PHI ) currFunc->numPhis++;
}
return Instruction::isTerminator(Opcode);
}
virtual void handleBasicBlockEnd(unsigned blocknum) {
if (os)
*os << " } END BLOCK: BasicBlock #" << blocknum << "\n";
}
virtual void handleGlobalConstantsBegin() {
if (os)
*os << " BLOCK: GlobalConstants {\n";
}
virtual void handleConstantExpression( unsigned Opcode,
std::vector<Constant*> ArgVec, Constant* C ) {
if (os) {
*os << " EXPR: " << Instruction::getOpcodeName(Opcode) << "\n";
for ( unsigned i = 0; i < ArgVec.size(); ++i ) {
*os << " Arg#" << i << " "; ArgVec[i]->print(*os);
*os << "\n";
}
*os << " Value=";
C->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleConstantValue( Constant * c ) {
if (os) {
*os << " VALUE: ";
c->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleConstantArray( const ArrayType* AT,
std::vector<Constant*>& Elements,
unsigned TypeSlot,
Constant* ArrayVal ) {
if (os) {
*os << " ARRAY: ";
WriteTypeSymbolic(*os,AT,M);
*os << " TypeSlot=" << TypeSlot << "\n";
for ( unsigned i = 0; i < Elements.size(); ++i ) {
*os << " #" << i;
Elements[i]->print(*os);
*os << "\n";
}
*os << " Value=";
ArrayVal->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleConstantStruct(
const StructType* ST,
std::vector<Constant*>& Elements,
Constant* StructVal)
{
if (os) {
*os << " STRUC: ";
WriteTypeSymbolic(*os,ST,M);
*os << "\n";
for ( unsigned i = 0; i < Elements.size(); ++i ) {
*os << " #" << i << " "; Elements[i]->print(*os);
*os << "\n";
}
*os << " Value=";
StructVal->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleConstantPacked(
const PackedType* PT,
std::vector<Constant*>& Elements,
unsigned TypeSlot,
Constant* PackedVal)
{
if (os) {
*os << " PACKD: ";
WriteTypeSymbolic(*os,PT,M);
*os << " TypeSlot=" << TypeSlot << "\n";
for ( unsigned i = 0; i < Elements.size(); ++i ) {
*os << " #" << i;
Elements[i]->print(*os);
*os << "\n";
}
*os << " Value=";
PackedVal->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleConstantPointer( const PointerType* PT,
unsigned Slot, GlobalValue* GV ) {
if (os) {
*os << " PNTR: ";
WriteTypeSymbolic(*os,PT,M);
*os << " Slot=" << Slot << " GlobalValue=";
GV->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleConstantString( const ConstantArray* CA ) {
if (os) {
*os << " STRNG: ";
CA->print(*os);
*os << "\n";
}
bca.numConstants++;
bca.numValues++;
}
virtual void handleGlobalConstantsEnd() {
if (os)
*os << " } END BLOCK: GlobalConstants\n";
if (bca.progressiveVerify) {
std::string msg;
if (verifyModule(*M, ReturnStatusAction, &msg))
bca.VerifyInfo += "Verify@EndGlobalConstants: " + msg + "\n";
}
}
virtual void handleAlignment(unsigned numBytes) {
bca.numAlignment += numBytes;
}
virtual void handleBlock(
unsigned BType, const unsigned char* StartPtr, unsigned Size) {
bca.numBlocks++;
assert(BType >= BytecodeFormat::ModuleBlockID);
assert(BType < BytecodeFormat::NumberOfBlockIDs);
bca.BlockSizes[
llvm::BytecodeFormat::BytecodeBlockIdentifiers(BType)] += Size;
if (bca.version < 3) // Check for long block headers versions
bca.BlockSizes[llvm::BytecodeFormat::Reserved_DoNotUse] += 8;
else
bca.BlockSizes[llvm::BytecodeFormat::Reserved_DoNotUse] += 4;
}
virtual void handleVBR32(unsigned Size ) {
bca.vbrCount32++;
bca.vbrCompBytes += Size;
bca.vbrExpdBytes += sizeof(uint32_t);
if (currFunc) {
currFunc->vbrCount32++;
currFunc->vbrCompBytes += Size;
currFunc->vbrExpdBytes += sizeof(uint32_t);
}
}
virtual void handleVBR64(unsigned Size ) {
bca.vbrCount64++;
bca.vbrCompBytes += Size;
bca.vbrExpdBytes += sizeof(uint64_t);
if ( currFunc ) {
currFunc->vbrCount64++;
currFunc->vbrCompBytes += Size;
currFunc->vbrExpdBytes += sizeof(uint64_t);
}
}
};
/// @brief Utility for printing a titled unsigned value with
/// an aligned colon.
inline static void print(std::ostream& Out, const char*title,
unsigned val, bool nl = true ) {
Out << std::setw(30) << std::right << title
<< std::setw(0) << ": "
<< std::setw(9) << val << "\n";
}
/// @brief Utility for printing a titled double value with an
/// aligned colon
inline static void print(std::ostream&Out, const char*title,
double val ) {
Out << std::setw(30) << std::right << title
<< std::setw(0) << ": "
<< std::setw(9) << std::setprecision(6) << val << "\n" ;
}
/// @brief Utility for printing a titled double value with a
/// percentage and aligned colon.
inline static void print(std::ostream&Out, const char*title,
double top, double bot ) {
Out << std::setw(30) << std::right << title
<< std::setw(0) << ": "
<< std::setw(9) << std::setprecision(6) << top
<< " (" << std::left << std::setw(0) << std::setprecision(4)
<< (top/bot)*100.0 << "%)\n";
}
/// @brief Utility for printing a titled string value with
/// an aligned colon.
inline static void print(std::ostream&Out, const char*title,
std::string val, bool nl = true) {
Out << std::setw(30) << std::right << title
<< std::setw(0) << ": "
<< std::left << val << (nl ? "\n" : "");
}
}
namespace llvm {
/// This function prints the contents of rhe BytecodeAnalysis structure in
/// a human legible form.
/// @brief Print BytecodeAnalysis structure to an ostream
void PrintBytecodeAnalysis(BytecodeAnalysis& bca, std::ostream& Out )
{
Out << "\nSummary Analysis Of " << bca.ModuleId << ": \n\n";
print(Out, "Bytecode Analysis Of Module", bca.ModuleId);
print(Out, "Bytecode Version Number", bca.version);
print(Out, "File Size", bca.byteSize);
print(Out, "Module Bytes",
double(bca.BlockSizes[BytecodeFormat::ModuleBlockID]),
double(bca.byteSize));
print(Out, "Function Bytes",
double(bca.BlockSizes[BytecodeFormat::FunctionBlockID]),
double(bca.byteSize));
print(Out, "Global Types Bytes",
double(bca.BlockSizes[BytecodeFormat::GlobalTypePlaneBlockID]),
double(bca.byteSize));
print(Out, "Constant Pool Bytes",
double(bca.BlockSizes[BytecodeFormat::ConstantPoolBlockID]),
double(bca.byteSize));
print(Out, "Module Globals Bytes",
double(bca.BlockSizes[BytecodeFormat::ModuleGlobalInfoBlockID]),
double(bca.byteSize));
print(Out, "Instruction List Bytes",
double(bca.BlockSizes[BytecodeFormat::InstructionListBlockID]),
double(bca.byteSize));
print(Out, "Value Symbol Table Bytes",
double(bca.BlockSizes[BytecodeFormat::ValueSymbolTableBlockID]),
double(bca.byteSize));
print(Out, "Type Symbol Table Bytes",
double(bca.BlockSizes[BytecodeFormat::TypeSymbolTableBlockID]),
double(bca.byteSize));
print(Out, "Alignment Bytes",
double(bca.numAlignment), double(bca.byteSize));
print(Out, "Block Header Bytes",
double(bca.BlockSizes[BytecodeFormat::Reserved_DoNotUse]),
double(bca.byteSize));
print(Out, "Dependent Libraries Bytes", double(bca.libSize),
double(bca.byteSize));
print(Out, "Number Of Bytecode Blocks", bca.numBlocks);
print(Out, "Number Of Functions", bca.numFunctions);
print(Out, "Number Of Types", bca.numTypes);
print(Out, "Number Of Constants", bca.numConstants);
print(Out, "Number Of Global Variables", bca.numGlobalVars);
print(Out, "Number Of Values", bca.numValues);
print(Out, "Number Of Basic Blocks", bca.numBasicBlocks);
print(Out, "Number Of Instructions", bca.numInstructions);
print(Out, "Number Of Long Instructions", bca.longInstructions);
print(Out, "Number Of Operands", bca.numOperands);
print(Out, "Number Of Compaction Tables", bca.numCmpctnTables);
print(Out, "Number Of Symbol Tables", bca.numSymTab);
print(Out, "Number Of Dependent Libs", bca.numLibraries);
print(Out, "Total Instruction Size", bca.instructionSize);
print(Out, "Average Instruction Size",
double(bca.instructionSize)/double(bca.numInstructions));
print(Out, "Maximum Type Slot Number", bca.maxTypeSlot);
print(Out, "Maximum Value Slot Number", bca.maxValueSlot);
print(Out, "Bytes Per Value ", bca.fileDensity);
print(Out, "Bytes Per Global", bca.globalsDensity);
print(Out, "Bytes Per Function", bca.functionDensity);
print(Out, "# of VBR 32-bit Integers", bca.vbrCount32);
print(Out, "# of VBR 64-bit Integers", bca.vbrCount64);
print(Out, "# of VBR Compressed Bytes", bca.vbrCompBytes);
print(Out, "# of VBR Expanded Bytes", bca.vbrExpdBytes);
print(Out, "Bytes Saved With VBR",
double(bca.vbrExpdBytes)-double(bca.vbrCompBytes),
double(bca.vbrExpdBytes));
if (bca.detailedResults) {
Out << "\nDetailed Analysis Of " << bca.ModuleId << " Functions:\n";
std::map<const Function*,BytecodeAnalysis::BytecodeFunctionInfo>::iterator I =
bca.FunctionInfo.begin();
std::map<const Function*,BytecodeAnalysis::BytecodeFunctionInfo>::iterator E =
bca.FunctionInfo.end();
while ( I != E ) {
Out << std::left << std::setw(0) << "\n";
if (I->second.numBasicBlocks == 0) Out << "External ";
Out << "Function: " << I->second.name << "\n";
print(Out, "Type:", I->second.description);
print(Out, "Byte Size", I->second.byteSize);
if (I->second.numBasicBlocks) {
print(Out, "Basic Blocks", I->second.numBasicBlocks);
print(Out, "Instructions", I->second.numInstructions);
print(Out, "Long Instructions", I->second.longInstructions);
print(Out, "Operands", I->second.numOperands);
print(Out, "Instruction Size", I->second.instructionSize);
print(Out, "Average Instruction Size",
double(I->second.instructionSize) / I->second.numInstructions);
print(Out, "Bytes Per Instruction", I->second.density);
print(Out, "# of VBR 32-bit Integers", I->second.vbrCount32);
print(Out, "# of VBR 64-bit Integers", I->second.vbrCount64);
print(Out, "# of VBR Compressed Bytes", I->second.vbrCompBytes);
print(Out, "# of VBR Expanded Bytes", I->second.vbrExpdBytes);
print(Out, "Bytes Saved With VBR",
double(I->second.vbrExpdBytes) - I->second.vbrCompBytes);
}
++I;
}
}
if ( bca.progressiveVerify )
Out << bca.VerifyInfo;
}
BytecodeHandler* createBytecodeAnalyzerHandler(BytecodeAnalysis& bca,
std::ostream* output)
{
return new AnalyzerHandler(bca,output);
}
}