EngineJvm.h

#ifndef ROSE_BinaryAnalysis_Partitioner2_EngineJvm_H
#define ROSE_BinaryAnalysis_Partitioner2_EngineJvm_H

#include <Rose/BinaryAnalysis/Partitioner2/Engine.h>

#ifdef ROSE_ENABLE_BINARY_ANALYSIS

namespace Rose {
namespace BinaryAnalysis {
namespace Partitioner2 {

class ROSE_DLL_API EngineJvm: private boost::noncopyable {
public:
    struct Settings {
        DisassemblerSettings disassembler;              
        PartitionerSettings partitioner;                
        EngineSettings engine;                          
        AstConstructionSettings astConstruction;        
    };

    class Exception: public Rose::Exception {
    public:
        Exception(const std::string &mesg)
            : Rose::Exception(mesg) {}
        ~Exception() throw () {}
    };

    //                                  Internal data structures
private:

    //                                  Data members
private:
    Settings settings_;                                 // Settings for the partitioner.
    Disassembler::BasePtr disassembler_;                // not ref-counted yet, but don't destroy it since user owns it
    Progress::Ptr progress_;                            // optional progress reporting

    //                                  Constructors
public:
    EngineJvm();

    explicit EngineJvm(const Settings &settings);

    virtual ~EngineJvm();

    //                                  The very top-level use case
public:
    SgAsmBlock* frontend(int argc, char *argv[],
                         const std::string &purpose, const std::string &description);
    virtual SgAsmBlock* frontend(const std::vector<std::string> &args,
                                 const std::string &purpose, const std::string &description);
    //                                  Basic top-level steps
public:
    void reset();

    Sawyer::CommandLine::ParserResult parseCommandLine(int argc, char *argv[],
                                                       const std::string &purpose, const std::string &description) /*final*/;
    virtual Sawyer::CommandLine::ParserResult parseCommandLine(const std::vector<std::string> &args,
                                                               const std::string &purpose, const std::string &description);
    SgAsmInterpretation* parseContainers(const std::string &fileName) /*final*/;
    virtual Partitioner partition(const std::vector<std::string> &fileNames = std::vector<std::string>());
    Partitioner partition(const std::string &fileName) /*final*/;
    SgAsmBlock* buildAst(const std::vector<std::string> &fileNames = std::vector<std::string>()) /*final*/;
    SgAsmBlock* buildAst(const std::string &fileName) /*final*/;
    //                                  Command-line parsing
    //
    // top-level: parseCommandLine
public:
    virtual Sawyer::CommandLine::SwitchGroup disassemblerSwitches();
    static Sawyer::CommandLine::SwitchGroup disassemblerSwitches(DisassemblerSettings&);
    virtual Sawyer::CommandLine::SwitchGroup partitionerSwitches();
    static Sawyer::CommandLine::SwitchGroup partitionerSwitches(PartitionerSettings&);
    virtual Sawyer::CommandLine::SwitchGroup engineSwitches();
    static Sawyer::CommandLine::SwitchGroup engineSwitches(EngineSettings&);
    virtual Sawyer::CommandLine::SwitchGroup astConstructionSwitches();
    static Sawyer::CommandLine::SwitchGroup astConstructionSwitches(AstConstructionSettings&);
    static std::string specimenNameDocumentation();

    virtual Sawyer::CommandLine::Parser commandLineParser(const std::string &purpose, const std::string &description);

    virtual void checkSettings();

    //                                  Disassembler
public:
    virtual Disassembler::BasePtr obtainDisassembler(const Disassembler::BasePtr &hint = Disassembler::BasePtr());
    //                                  Partitioner high-level functions
    //
    // top-level: partition
public:
    virtual Partitioner createPartitioner();

    virtual void runPartitioner(Partitioner&);


    //                                  Partitioner mid-level functions
    //
    // These are the functions called by the partitioner high-level stuff.  These are sometimes overridden in subclasses,
    // although it is more likely that the high-level stuff is overridden.
public:
    virtual void labelAddresses(Partitioner&, const Configuration&);

    virtual void discoverBasicBlocks(Partitioner&);

    //                                  Partitioner low-level functions
    //
    // These are functions that a subclass seldom overrides, and maybe even shouldn't override because of their complexity or
    // the way the interact with one another.
public:

    //                                  Build AST
public:
    // Used internally by ROSE's ::frontend disassemble instructions to build the AST that goes under each SgAsmInterpretation.
    static void disassembleForRoseFrontend(SgAsmInterpretation*);


    //                                  Settings and properties
public:
    const Settings& settings() const /*final*/ { return settings_; }
    Settings& settings() /*final*/ { return settings_; }
    bool exitOnError() const /*final*/ { return settings_.engine.exitOnError; }
    virtual void exitOnError(bool b) { settings_.engine.exitOnError = b; }
    Progress::Ptr progress() const /*final*/ { return progress_; }
    virtual void progress(const Progress::Ptr &progress) { progress_ = progress; }
    bool doDisassemble() const /*final*/ { return settings_.disassembler.doDisassemble; }
    virtual void doDisassemble(bool b) { settings_.disassembler.doDisassemble = b; }
    Disassembler::BasePtr disassembler() const /*final*/;
    virtual void disassembler(const Disassembler::BasePtr&);
    const std::string& isaName() const /*final*/ { return settings_.disassembler.isaName; }
    virtual void isaName(const std::string &s) { settings_.disassembler.isaName = s; }
    const std::vector<rose_addr_t>& functionStartingVas() const /*final*/ { return settings_.partitioner.functionStartingVas; }
    std::vector<rose_addr_t>& functionStartingVas() /*final*/ { return settings_.partitioner.functionStartingVas; }
    bool usingSemantics() const /*final*/ { return settings_.partitioner.base.usingSemantics; }
    virtual void usingSemantics(bool b) { settings_.partitioner.base.usingSemantics = b; }
    bool ignoringUnknownInsns() const /*final*/ { return settings_.partitioner.base.ignoringUnknownInsns; }
    virtual void ignoringUnknownInsns(bool b) { settings_.partitioner.base.ignoringUnknownInsns = b; }
    SemanticMemoryParadigm semanticMemoryParadigm() const /*final*/ { return settings_.partitioner.semanticMemoryParadigm; }
    virtual void semanticMemoryParadigm(SemanticMemoryParadigm p) { settings_.partitioner.semanticMemoryParadigm = p; }
    size_t maxBasicBlockSize() const /*final*/ { return settings_.partitioner.maxBasicBlockSize; }
    virtual void maxBasicBlockSize(size_t n) { settings_.partitioner.maxBasicBlockSize = n; }
    const std::vector<rose_addr_t>& ipRewrites() const /*final*/ { return settings_.partitioner.ipRewrites; }
    virtual void ipRewrites(const std::vector<rose_addr_t> &v) { settings_.partitioner.ipRewrites = v; }
    bool findingDeadCode() const /*final*/ { return settings_.partitioner.findingDeadCode; }
    virtual void findingDeadCode(bool b) { settings_.partitioner.findingDeadCode = b; }
    rose_addr_t peScramblerDispatcherVa() const /*final*/ { return settings_.partitioner.peScramblerDispatcherVa; }
    virtual void peScramblerDispatcherVa(rose_addr_t va) { settings_.partitioner.peScramblerDispatcherVa = va; }
    size_t findingIntraFunctionCode() const /*final*/ { return settings_.partitioner.findingIntraFunctionCode; }
    virtual void findingIntraFunctionCode(size_t n) { settings_.partitioner.findingIntraFunctionCode = n; }
    bool findingIntraFunctionData() const /*final*/ { return settings_.partitioner.findingIntraFunctionData; }
    virtual void findingIntraFunctionData(bool b) { settings_.partitioner.findingIntraFunctionData = b; }
    const AddressInterval& interruptVector() const /*final*/ { return settings_.partitioner.interruptVector; }
    virtual void interruptVector(const AddressInterval &i) { settings_.partitioner.interruptVector = i; }
    bool doingPostAnalysis() const /*final*/ { return settings_.partitioner.doingPostAnalysis; }
    virtual void doingPostAnalysis(bool b) { settings_.partitioner.doingPostAnalysis = b; }
    bool doingPostFunctionMayReturn() const /*final*/ { return settings_.partitioner.doingPostFunctionMayReturn; }
    virtual void doingPostFunctionMayReturn(bool b) { settings_.partitioner.doingPostFunctionMayReturn = b; }
    bool doingPostFunctionStackDelta() const /*final*/ { return settings_.partitioner.doingPostFunctionStackDelta; }
    virtual void doingPostFunctionStackDelta(bool b) { settings_.partitioner.doingPostFunctionStackDelta = b; }
    bool doingPostCallingConvention() const /*final*/ { return settings_.partitioner.doingPostCallingConvention; }
    virtual void doingPostCallingConvention(bool b) { settings_.partitioner.doingPostCallingConvention = b; }
    bool doingPostFunctionNoop() const /*final*/ { return settings_.partitioner.doingPostFunctionNoop; }
    virtual void doingPostFunctionNoop(bool b) { settings_.partitioner.doingPostFunctionNoop = b; }
    FunctionReturnAnalysis functionReturnAnalysis() const /*final*/ { return settings_.partitioner.functionReturnAnalysis; }
    virtual void functionReturnAnalysis(FunctionReturnAnalysis x) { settings_.partitioner.functionReturnAnalysis = x; }
    size_t functionReturnAnalysisMaxSorts() const /*final*/ { return settings_.partitioner.functionReturnAnalysisMaxSorts; }
    virtual void functionReturnAnalysisMaxSorts(size_t n) { settings_.partitioner.functionReturnAnalysisMaxSorts = n; }
    bool findingInterFunctionCalls() const /*final*/ { return settings_.partitioner.findingInterFunctionCalls; }
    virtual void findingInterFunctionCalls(bool b) { settings_.partitioner.findingInterFunctionCalls = b; }
    bool findingFunctionCallFunctions() const /*final*/ { return settings_.partitioner.findingFunctionCallFunctions; }
    virtual void findingFunctionCallFunctions(bool b) { settings_.partitioner.findingFunctionCallFunctions = b; }
    bool findingEntryFunctions() const /*final*/ { return settings_.partitioner.findingEntryFunctions; }
    virtual void findingEntryFunctions(bool b) { settings_.partitioner.findingEntryFunctions = b; }
    bool findingErrorFunctions() const /*final*/ { return settings_.partitioner.findingErrorFunctions; }
    virtual void findingErrorFunctions(bool b) { settings_.partitioner.findingErrorFunctions = b; }
    bool findingImportFunctions() const /*final*/ { return settings_.partitioner.findingImportFunctions; }
    virtual void findingImportFunctions(bool b) { settings_.partitioner.findingImportFunctions = b; }
    bool findingExportFunctions() const /*final*/ { return settings_.partitioner.findingExportFunctions; }
    virtual void findingExportFunctions(bool b) { settings_.partitioner.findingExportFunctions = b; }
    bool findingSymbolFunctions() const /*final*/ { return settings_.partitioner.findingSymbolFunctions; }
    virtual void findingSymbolFunctions(bool b) { settings_.partitioner.findingSymbolFunctions = b; }
    bool findingDataFunctionPointers() const /*final*/ { return settings_.partitioner.findingDataFunctionPointers; }
    virtual void findingDataFunctionPointers(bool b) { settings_.partitioner.findingDataFunctionPointers = b; }
    bool findingCodeFunctionPointers() const /*final*/ { return settings_.partitioner.findingCodeFunctionPointers; }
    virtual void findingCodeFunctionPointers(bool b) { settings_.partitioner.findingCodeFunctionPointers = b; }
    bool checkingCallBranch() const /*final*/ { return settings_.partitioner.base.checkingCallBranch; }
    virtual void checkingCallBranch(bool b) { settings_.partitioner.base.checkingCallBranch = b; }
    bool basicBlockSemanticsAutoDrop() const /*final*/ { return settings_.partitioner.base.basicBlockSemanticsAutoDrop; }
    void basicBlockSemanticsAutoDrop(bool b) { settings_.partitioner.base.basicBlockSemanticsAutoDrop = b; }
    const std::vector<std::string>& configurationNames() /*final*/ const { return settings_.engine.configurationNames; }
    std::vector<std::string>& configurationNames() /*final*/ { return settings_.engine.configurationNames; }
    bool namingConstants() const /*final*/ { return settings_.partitioner.namingConstants; }
    virtual void namingConstants(bool b) { settings_.partitioner.namingConstants = b; }
    const AddressInterval& namingStrings() const /*final*/ { return settings_.partitioner.namingStrings; }
    void namingStrings(const AddressInterval &where) { settings_.partitioner.namingStrings = where; }
    bool namingSystemCalls() const /*final*/ { return settings_.partitioner.namingSyscalls; }
    virtual void namingSystemCalls(bool b) { settings_.partitioner.namingSyscalls = b; }
    const boost::filesystem::path& systemCallHeader() const /*final*/ { return settings_.partitioner.syscallHeader; }
    virtual void systemCallHeader(const boost::filesystem::path &filename) { settings_.partitioner.syscallHeader = filename; }
    bool demangleNames() const /*final*/ { return settings_.partitioner.demangleNames; }
    virtual void demangleNames(bool b) { settings_.partitioner.demangleNames = b; }
    bool astAllowEmptyGlobalBlock() const /*final*/ { return settings_.astConstruction.allowEmptyGlobalBlock; }
    virtual void astAllowEmptyGlobalBlock(bool b) { settings_.astConstruction.allowEmptyGlobalBlock = b; }
    bool astAllowFunctionWithNoBasicBlocks() const /*final*/ {
        return settings_.astConstruction.allowFunctionWithNoBasicBlocks;
    }
    virtual void astAllowFunctionWithNoBasicBlocks(bool b) {
        settings_.astConstruction.allowFunctionWithNoBasicBlocks = b;
    }
    bool astAllowEmptyBasicBlock() const /*final*/ { return settings_.astConstruction.allowEmptyBasicBlocks; }
    virtual void astAllowEmptyBasicBlock(bool b) { settings_.astConstruction.allowEmptyBasicBlocks = b; }
    bool astCopyAllInstructions() const /*final*/ { return settings_.astConstruction.copyAllInstructions; }
    virtual void astCopyAllInstructions(bool b) { settings_.astConstruction.copyAllInstructions = b; }
    //                                  Python API support functions
#ifdef ROSE_ENABLE_PYTHON_API

    // Similar to frontend, but returns a partitioner rather than an AST since the Python API doesn't yet support ASTs.
    Partitioner pythonParseVector(boost::python::list &pyArgs, const std::string &purpose, const std::string &description);
    Partitioner pythonParseSingle(const std::string &specimen, const std::string &purpose, const std::string &description);

#endif

    //                                  Internal stuff
private:
    void init();

    // Similar to ::frontend but a lot less complicated.
    SgProject* roseFrontendReplacement(const std::vector<boost::filesystem::path> &fileNames);
};

//                                      JVM Module

namespace ModulesJvm {

bool isJavaClassFile(const boost::filesystem::path&);

} // namespace

} // namespace
} // namespace
} // namespace

#endif
#endif