//===-- ObjectFile.h --------------------------------------------*- C++ -*-===// // // Part of the LLVM Project, under the Apache License v2.0 with LLVM Exceptions. // See https://llvm.org/LICENSE.txt for license information. // SPDX-License-Identifier: Apache-2.0 WITH LLVM-exception // //===----------------------------------------------------------------------===// #ifndef LLDB_SYMBOL_OBJECTFILE_H #define LLDB_SYMBOL_OBJECTFILE_H #include "lldb/Core/ModuleChild.h" #include "lldb/Core/PluginInterface.h" #include "lldb/Symbol/Symtab.h" #include "lldb/Symbol/UnwindTable.h" #include "lldb/Utility/AddressableBits.h" #include "lldb/Utility/DataExtractor.h" #include "lldb/Utility/Endian.h" #include "lldb/Utility/FileSpec.h" #include "lldb/Utility/FileSpecList.h" #include "lldb/Utility/UUID.h" #include "lldb/lldb-private.h" #include "llvm/Support/Threading.h" #include "llvm/Support/VersionTuple.h" #include namespace lldb_private { /// \class ObjectFile ObjectFile.h "lldb/Symbol/ObjectFile.h" /// A plug-in interface definition class for object file parsers. /// /// Object files belong to Module objects and know how to extract information /// from executable, shared library, and object (.o) files used by operating /// system runtime. The symbol table and section list for an object file. /// /// Object files can be represented by the entire file, or by part of a file. /// An example of a partial file ObjectFile is one that contains information /// for one of multiple architectures in the same file. /// /// Once an architecture is selected the object file information can be /// extracted from this abstract class. class ObjectFile : public std::enable_shared_from_this, public PluginInterface, public ModuleChild { friend class lldb_private::Module; public: enum Type { eTypeInvalid = 0, /// A core file that has a checkpoint of a program's execution state. eTypeCoreFile, /// A normal executable. eTypeExecutable, /// An object file that contains only debug information. eTypeDebugInfo, /// The platform's dynamic linker executable. eTypeDynamicLinker, /// An intermediate object file. eTypeObjectFile, /// A shared library that can be used during execution. eTypeSharedLibrary, /// A library that can be linked against but not used for execution. eTypeStubLibrary, /// JIT code that has symbols, sections and possibly debug info. eTypeJIT, eTypeUnknown }; enum Strata { eStrataInvalid = 0, eStrataUnknown, eStrataUser, eStrataKernel, eStrataRawImage, eStrataJIT }; /// If we have a corefile binary hint, this enum /// specifies the binary type which we can use to /// select the correct DynamicLoader plugin. enum BinaryType { eBinaryTypeInvalid = 0, eBinaryTypeUnknown, eBinaryTypeKernel, /// kernel binary eBinaryTypeUser, /// user process binary eBinaryTypeStandalone /// standalone binary / firmware }; struct LoadableData { lldb::addr_t Dest; llvm::ArrayRef Contents; }; /// Construct with a parent module, offset, and header data. /// /// Object files belong to modules and a valid module must be supplied upon /// construction. The at an offset within a file for objects that contain /// more than one architecture or object. ObjectFile(const lldb::ModuleSP &module_sp, const FileSpec *file_spec_ptr, lldb::offset_t file_offset, lldb::offset_t length, lldb::DataBufferSP data_sp, lldb::offset_t data_offset); ObjectFile(const lldb::ModuleSP &module_sp, const lldb::ProcessSP &process_sp, lldb::addr_t header_addr, lldb::DataBufferSP data_sp); /// Destructor. /// /// The destructor is virtual since this class is designed to be inherited /// from by the plug-in instance. ~ObjectFile() override; /// Dump a description of this object to a Stream. /// /// Dump a description of the current contents of this object to the /// supplied stream \a s. The dumping should include the section list if it /// has been parsed, and the symbol table if it has been parsed. /// /// \param[in] s /// The stream to which to dump the object description. virtual void Dump(Stream *s) = 0; /// Find a ObjectFile plug-in that can parse \a file_spec. /// /// Scans all loaded plug-in interfaces that implement versions of the /// ObjectFile plug-in interface and returns the first instance that can /// parse the file. /// /// \param[in] module_sp /// The parent module that owns this object file. /// /// \param[in] file_spec /// A file specification that indicates which file to use as the /// object file. /// /// \param[in] file_offset /// The offset into the file at which to start parsing the /// object. This is for files that contain multiple /// architectures or objects. /// /// \param[in] file_size /// The size of the current object file if it can be determined /// or if it is known. This can be zero. /// /// \see ObjectFile::ParseHeader() static lldb::ObjectFileSP FindPlugin(const lldb::ModuleSP &module_sp, const FileSpec *file_spec, lldb::offset_t file_offset, lldb::offset_t file_size, lldb::DataBufferSP &data_sp, lldb::offset_t &data_offset); /// Find a ObjectFile plug-in that can parse a file in memory. /// /// Scans all loaded plug-in interfaces that implement versions of the /// ObjectFile plug-in interface and returns the first instance that can /// parse the file. /// /// \param[in] module_sp /// The parent module that owns this object file. /// /// \param[in] process_sp /// A shared pointer to the process whose memory space contains /// an object file. This will be stored as a std::weak_ptr. /// /// \param[in] header_addr /// The address of the header for the object file in memory. static lldb::ObjectFileSP FindPlugin(const lldb::ModuleSP &module_sp, const lldb::ProcessSP &process_sp, lldb::addr_t header_addr, lldb::WritableDataBufferSP file_data_sp); static size_t GetModuleSpecifications(const FileSpec &file, lldb::offset_t file_offset, lldb::offset_t file_size, ModuleSpecList &specs, lldb::DataBufferSP data_sp = lldb::DataBufferSP()); static size_t GetModuleSpecifications(const lldb_private::FileSpec &file, lldb::DataBufferSP &data_sp, lldb::offset_t data_offset, lldb::offset_t file_offset, lldb::offset_t file_size, lldb_private::ModuleSpecList &specs); /// Split a path into a file path with object name. /// /// For paths like "/tmp/foo.a(bar.o)" we often need to split a path up into /// the actual path name and into the object name so we can make a valid /// object file from it. /// /// \param[in] path_with_object /// A path that might contain an archive path with a .o file /// specified in parens in the basename of the path. /// /// \param[out] archive_file /// If \b true is returned, \a file_spec will be filled in with /// the path to the archive. /// /// \param[out] archive_object /// If \b true is returned, \a object will be filled in with /// the name of the object inside the archive. /// /// \return /// \b true if the path matches the pattern of archive + object /// and \a archive_file and \a archive_object are modified, /// \b false otherwise and \a archive_file and \a archive_object /// are guaranteed to be remain unchanged. static bool SplitArchivePathWithObject( llvm::StringRef path_with_object, lldb_private::FileSpec &archive_file, lldb_private::ConstString &archive_object, bool must_exist); // LLVM RTTI support static char ID; virtual bool isA(const void *ClassID) const { return ClassID == &ID; } /// Gets the address size in bytes for the current object file. /// /// \return /// The size of an address in bytes for the currently selected /// architecture (and object for archives). Returns zero if no /// architecture or object has been selected. virtual uint32_t GetAddressByteSize() const = 0; /// Get the address type given a file address in an object file. /// /// Many binary file formats know what kinds This is primarily for ARM /// binaries, though it can be applied to any executable file format that /// supports different opcode types within the same binary. ARM binaries /// support having both ARM and Thumb within the same executable container. /// We need to be able to get \return /// The size of an address in bytes for the currently selected /// architecture (and object for archives). Returns zero if no /// architecture or object has been selected. virtual AddressClass GetAddressClass(lldb::addr_t file_addr); /// Extract the dependent modules from an object file. /// /// If an object file has information about which other images it depends on /// (such as shared libraries), this function will provide the list. Since /// many executables or shared libraries may depend on the same files, /// FileSpecList::AppendIfUnique(const FileSpec &) should be used to make /// sure any files that are added are not already in the list. /// /// \param[out] file_list /// A list of file specification objects that gets dependent /// files appended to. /// /// \return /// The number of new files that were appended to \a file_list. /// /// \see FileSpecList::AppendIfUnique(const FileSpec &) virtual uint32_t GetDependentModules(FileSpecList &file_list) = 0; /// Tells whether this object file is capable of being the main executable /// for a process. /// /// \return /// \b true if it is, \b false otherwise. virtual bool IsExecutable() const = 0; /// Returns the offset into a file at which this object resides. /// /// Some files contain many object files, and this function allows access to /// an object's offset within the file. /// /// \return /// The offset in bytes into the file. Defaults to zero for /// simple object files that a represented by an entire file. virtual lldb::addr_t GetFileOffset() const { return m_file_offset; } virtual lldb::addr_t GetByteSize() const { return m_length; } /// Get accessor to the object file specification. /// /// \return /// The file specification object pointer if there is one, or /// NULL if this object is only from memory. virtual FileSpec &GetFileSpec() { return m_file; } /// Get const accessor to the object file specification. /// /// \return /// The const file specification object pointer if there is one, /// or NULL if this object is only from memory. virtual const FileSpec &GetFileSpec() const { return m_file; } /// Get the ArchSpec for this object file. /// /// \return /// The ArchSpec of this object file. In case of error, an invalid /// ArchSpec object is returned. virtual ArchSpec GetArchitecture() = 0; /// Gets the section list for the currently selected architecture (and /// object for archives). /// /// Section list parsing can be deferred by ObjectFile instances until this /// accessor is called the first time. /// /// \return /// The list of sections contained in this object file. virtual SectionList *GetSectionList(bool update_module_section_list = true); virtual void CreateSections(SectionList &unified_section_list) = 0; /// Notify the ObjectFile that the file addresses in the Sections for this /// module have been changed. virtual void SectionFileAddressesChanged() {} /// Gets the symbol table for the currently selected architecture (and /// object for archives). /// /// This function will manage when ParseSymtab(...) is called to actually do /// the symbol table parsing in each plug-in. This function will take care of /// taking all the necessary locks and finalizing the symbol table when the /// symbol table does get parsed. /// /// \return /// The symbol table for this object file. Symtab *GetSymtab(); /// Parse the symbol table into the provides symbol table object. /// /// Symbol table parsing will be done once when this function is called by /// each object file plugin. All of the necessary locks will already be /// acquired before this function is called and the symbol table object to /// populate is supplied as an argument and doesn't need to be created by /// each plug-in. /// /// \param /// The symbol table to populate. virtual void ParseSymtab(Symtab &symtab) = 0; /// Perform relocations on the section if necessary. /// virtual void RelocateSection(lldb_private::Section *section); /// Appends a Symbol for the specified so_addr to the symbol table. /// /// If verify_unique is false, the symbol table is not searched to determine /// if a Symbol found at this address has already been added to the symbol /// table. When verify_unique is true, this method resolves the Symbol as /// the first match in the SymbolTable and appends a Symbol only if /// required/found. /// /// \return /// The resolved symbol or nullptr. Returns nullptr if a /// a Symbol could not be found for the specified so_addr. virtual Symbol *ResolveSymbolForAddress(const Address &so_addr, bool verify_unique) { // Typically overridden to lazily add stripped symbols recoverable from the // exception handling unwind information (i.e. without parsing the entire // eh_frame section. // // The availability of LC_FUNCTION_STARTS allows ObjectFileMachO to // efficiently add stripped symbols when the symbol table is first // constructed. Poorer cousins are PECoff and ELF. return nullptr; } /// Detect if this object file has been stripped of local symbols. /// Detect if this object file has been stripped of local symbols. /// /// \return /// Return \b true if the object file has been stripped of local /// symbols. virtual bool IsStripped() = 0; /// Frees the symbol table. /// /// This function should only be used when an object file is virtual void ClearSymtab(); /// Gets the UUID for this object file. /// /// If the object file format contains a UUID, the value should be returned. /// Else ObjectFile instances should return the MD5 checksum of all of the /// bytes for the object file (or memory for memory based object files). /// /// \return /// The object file's UUID. In case of an error, an empty UUID is /// returned. virtual UUID GetUUID() = 0; /// Gets the file spec list of libraries re-exported by this object file. /// /// If the object file format has the notion of one library re-exporting the /// symbols from another, the re-exported libraries will be returned in the /// FileSpecList. /// /// \return /// Returns filespeclist. virtual lldb_private::FileSpecList GetReExportedLibraries() { return FileSpecList(); } /// Sets the load address for an entire module, assuming a rigid slide of /// sections, if possible in the implementation. /// /// \return /// Returns true iff any section's load address changed. virtual bool SetLoadAddress(Target &target, lldb::addr_t value, bool value_is_offset) { return false; } /// Gets whether endian swapping should occur when extracting data from this /// object file. /// /// \return /// Returns \b true if endian swapping is needed, \b false /// otherwise. virtual lldb::ByteOrder GetByteOrder() const = 0; /// Attempts to parse the object header. /// /// This function is used as a test to see if a given plug-in instance can /// parse the header data already contained in ObjectFile::m_data. If an /// object file parser does not recognize that magic bytes in a header, /// false should be returned and the next plug-in can attempt to parse an /// object file. /// /// \return /// Returns \b true if the header was parsed successfully, \b /// false otherwise. virtual bool ParseHeader() = 0; /// Returns if the function bounds for symbols in this symbol file are /// likely accurate. /// /// The unwinder can emulate the instructions of functions to understand /// prologue/epilogue code sequences, where registers are spilled on the /// stack, etc. This feature relies on having the correct start addresses /// of all functions. If the ObjectFile has a way to tell that symbols have /// been stripped and there's no way to reconstruct start addresses (e.g. /// LC_FUNCTION_STARTS on Mach-O, or eh_frame unwind info), the ObjectFile /// should indicate that assembly emulation should not be used for this /// module. /// /// It is uncommon for this to return false. An ObjectFile needs to be sure /// that symbol start addresses are unavailable before false is returned. /// If it is unclear, this should return true. /// /// \return /// Returns true if assembly emulation should be used for this /// module. /// Only returns false if the ObjectFile is sure that symbol /// addresses are insufficient for accurate assembly emulation. virtual bool AllowAssemblyEmulationUnwindPlans() { return true; } /// Similar to Process::GetImageInfoAddress(). /// /// Some platforms embed auxiliary structures useful to debuggers in the /// address space of the inferior process. This method returns the address /// of such a structure if the information can be resolved via entries in /// the object file. ELF, for example, provides a means to hook into the /// runtime linker so that a debugger may monitor the loading and unloading /// of shared libraries. /// /// \return /// The address of any auxiliary tables, or an invalid address if this /// object file format does not support or contain such information. virtual lldb_private::Address GetImageInfoAddress(Target *target) { return Address(); } /// Returns the address of the Entry Point in this object file - if the /// object file doesn't have an entry point (because it is not an executable /// file) then an invalid address is returned. /// /// \return /// Returns the entry address for this module. virtual lldb_private::Address GetEntryPointAddress() { return Address(); } /// Returns base address of this object file. /// /// This also sometimes referred to as the "preferred load address" or the /// "image base address". Addresses within object files are often expressed /// relative to this base. If this address corresponds to a specific section /// (usually the first byte of the first section) then the returned address /// will have this section set. Otherwise, the address will just have the /// offset member filled in, indicating that this represents a file address. virtual lldb_private::Address GetBaseAddress() { return Address(m_memory_addr); } virtual uint32_t GetNumThreadContexts() { return 0; } /// Some object files may have an identifier string embedded in them, e.g. /// in a Mach-O core file using the LC_IDENT load command (which is /// obsolete, but can still be found in some old files) /// /// \return /// Returns the identifier string if one exists, else an empty /// string. virtual std::string GetIdentifierString () { return std::string(); } /// Some object files may have the number of bits used for addressing /// embedded in them, e.g. a Mach-O core file using an LC_NOTE. These /// object files can return an AddressableBits object that can can be /// used to set the address masks in the Process. /// /// \return /// Returns an AddressableBits object which can be used to set /// the address masks in the Process. virtual lldb_private::AddressableBits GetAddressableBits() { return {}; } /// When the ObjectFile is a core file, lldb needs to locate the "binary" in /// the core file. lldb can iterate over the pages looking for a valid /// binary, but some core files may have metadata describing where the main /// binary is exactly which removes ambiguity when there are multiple /// binaries present in the captured memory pages. /// /// \param[out] value /// The address or offset (slide) where the binary is loaded in memory. /// LLDB_INVALID_ADDRESS for unspecified. If an offset is given, /// this offset should be added to the binary's file address to get /// the load address. /// /// \param[out] value_is_offset /// Specifies if \b value is a load address, or an offset to calculate /// the load address. /// /// \param[out] uuid /// If the uuid of the binary is specified, this will be set. /// If no UUID is available, will be cleared. /// /// \param[out] type /// Return the type of the binary, which will dictate which /// DynamicLoader plugin should be used. /// /// \return /// Returns true if either address or uuid has been set. virtual bool GetCorefileMainBinaryInfo(lldb::addr_t &value, bool &value_is_offset, UUID &uuid, ObjectFile::BinaryType &type) { value = LLDB_INVALID_ADDRESS; value_is_offset = false; uuid.Clear(); return false; } /// Get metadata about threads from the corefile. /// /// The corefile may have metadata (e.g. a Mach-O "thread extrainfo" /// LC_NOTE) which for the threads in the process; this method tries /// to retrieve them. /// /// \param[out] tids /// Filled in with a vector of tid_t's that matches the number /// of threads in the corefile (ObjectFile::GetNumThreadContexts). /// If a tid is not specified for one of the corefile threads, /// that entry in the vector will have LLDB_INVALID_THREAD_ID and /// the caller should assign a tid to the thread that does not /// conflict with the ones provided in this array. /// As additional metadata are added, this method may return a /// \a tids vector with no thread id's specified at all; the /// corefile may only specify one of the other metadata. /// /// \return /// Returns true if thread metadata was found in this corefile. /// virtual bool GetCorefileThreadExtraInfos(std::vector &tids) { return false; } virtual lldb::RegisterContextSP GetThreadContextAtIndex(uint32_t idx, lldb_private::Thread &thread) { return lldb::RegisterContextSP(); } /// The object file should be able to calculate its type by looking at its /// file header and possibly the sections or other data in the object file. /// The file type is used in the debugger to help select the correct plug- /// ins for the job at hand, so this is important to get right. If any /// eTypeXXX definitions do not match up with the type of file you are /// loading, please feel free to add a new enumeration value. /// /// \return /// The calculated file type for the current object file. virtual Type CalculateType() = 0; /// In cases where the type can't be calculated (elf files), this routine /// allows someone to explicitly set it. As an example, SymbolVendorELF uses /// this routine to set eTypeDebugInfo when loading debug link files. virtual void SetType(Type type) { m_type = type; } /// The object file should be able to calculate the strata of the object /// file. /// /// Many object files for platforms might be for either user space debugging /// or for kernel debugging. If your object file subclass can figure this /// out, it will help with debugger plug-in selection when it comes time to /// debug. /// /// \return /// The calculated object file strata for the current object /// file. virtual Strata CalculateStrata() = 0; /// Get the object file version numbers. /// /// Many object files have a set of version numbers that describe the /// version of the executable or shared library. Typically there are major, /// minor and build, but there may be more. This function will extract the /// versions from object files if they are available. /// /// \return /// This function returns extracted version numbers as a /// llvm::VersionTuple. In case of error an empty VersionTuple is /// returned. virtual llvm::VersionTuple GetVersion() { return llvm::VersionTuple(); } /// Get the minimum OS version this object file can run on. /// /// Some object files have information that specifies the minimum OS version /// that they can be used on. /// /// \return /// This function returns extracted version numbers as a /// llvm::VersionTuple. In case of error an empty VersionTuple is /// returned. virtual llvm::VersionTuple GetMinimumOSVersion() { return llvm::VersionTuple(); } /// Get the SDK OS version this object file was built with. /// /// \return /// This function returns extracted version numbers as a /// llvm::VersionTuple. In case of error an empty VersionTuple is /// returned. virtual llvm::VersionTuple GetSDKVersion() { return llvm::VersionTuple(); } /// Return true if this file is a dynamic link editor (dyld) /// /// Often times dyld has symbols that mirror symbols in libc and other /// shared libraries (like "malloc" and "free") and the user does _not_ want /// to stop in these shared libraries by default. We can ask the ObjectFile /// if it is such a file and should be avoided for things like settings /// breakpoints and doing function lookups for expressions. virtual bool GetIsDynamicLinkEditor() { return false; } // Member Functions Type GetType() { if (m_type == eTypeInvalid) m_type = CalculateType(); return m_type; } Strata GetStrata() { if (m_strata == eStrataInvalid) m_strata = CalculateStrata(); return m_strata; } // When an object file is in memory, subclasses should try and lock the // process weak pointer. If the process weak pointer produces a valid // ProcessSP, then subclasses can call this function to read memory. static lldb::DataBufferSP ReadMemory(const lldb::ProcessSP &process_sp, lldb::addr_t addr, size_t byte_size); // This function returns raw file contents. Do not use it if you want // transparent decompression of section contents. size_t GetData(lldb::offset_t offset, size_t length, DataExtractor &data) const; // This function returns raw file contents. Do not use it if you want // transparent decompression of section contents. size_t CopyData(lldb::offset_t offset, size_t length, void *dst) const; // This function will transparently decompress section data if the section if // compressed. virtual size_t ReadSectionData(Section *section, lldb::offset_t section_offset, void *dst, size_t dst_len); // This function will transparently decompress section data if the section if // compressed. Note that for compressed section the resulting data size may // be larger than what Section::GetFileSize reports. virtual size_t ReadSectionData(Section *section, DataExtractor §ion_data); // Returns the section data size. This is special-cased for PECOFF // due to file alignment. virtual size_t GetSectionDataSize(Section *section) { return section->GetFileSize(); } /// Returns true if the object file exists only in memory. bool IsInMemory() const { return m_memory_addr != LLDB_INVALID_ADDRESS; } // Strip linker annotations (such as @@VERSION) from symbol names. virtual llvm::StringRef StripLinkerSymbolAnnotations(llvm::StringRef symbol_name) const { return symbol_name; } /// Can we trust the address ranges accelerator associated with this object /// file to be complete. virtual bool CanTrustAddressRanges() { return false; } static lldb::SymbolType GetSymbolTypeFromName( llvm::StringRef name, lldb::SymbolType symbol_type_hint = lldb::eSymbolTypeUndefined); /// Loads this objfile to memory. /// /// Loads the bits needed to create an executable image to the memory. It is /// useful with bare-metal targets where target does not have the ability to /// start a process itself. /// /// \param[in] target /// Target where to load. virtual std::vector GetLoadableData(Target &target); /// Creates a plugin-specific call frame info virtual std::unique_ptr CreateCallFrameInfo(); /// Load binaries listed in a corefile /// /// A corefile may have metadata listing binaries that can be loaded, /// and the offsets at which they were loaded. This method will try /// to add them to the Target. If any binaries were loaded, /// /// \param[in] process /// Process where to load binaries. /// /// \return /// Returns true if any binaries were loaded. virtual bool LoadCoreFileImages(lldb_private::Process &process) { return false; } /// Get a hash that can be used for caching object file releated information. /// /// Data for object files can be cached between runs of debug sessions and /// a module can end up using a main file and a symbol file, both of which /// can be object files. So we need a unique hash that identifies an object /// file when storing cached data. uint32_t GetCacheHash(); static lldb::DataBufferSP MapFileData(const FileSpec &file, uint64_t Size, uint64_t Offset); protected: // Member variables. FileSpec m_file; Type m_type; Strata m_strata; lldb::addr_t m_file_offset; ///< The offset in bytes into the file, or the ///address in memory lldb::addr_t m_length; ///< The length of this object file if it is known (can ///be zero if length is unknown or can't be ///determined). DataExtractor m_data; ///< The data for this object file so things can be parsed lazily. lldb::ProcessWP m_process_wp; /// Set if the object file only exists in memory. const lldb::addr_t m_memory_addr; std::unique_ptr m_sections_up; std::unique_ptr m_symtab_up; /// We need a llvm::once_flag that we can use to avoid locking the module /// lock and deadlocking LLDB. See comments in ObjectFile::GetSymtab() for /// the full details. We also need to be able to clear the symbol table, so we /// need to use a std::unique_ptr to a llvm::once_flag so if we clear the /// symbol table, we can have a new once flag to use when it is created again. std::unique_ptr m_symtab_once_up; std::optional m_cache_hash; /// Sets the architecture for a module. At present the architecture can /// only be set if it is invalid. It is not allowed to switch from one /// concrete architecture to another. /// /// \param[in] new_arch /// The architecture this module will be set to. /// /// \return /// Returns \b true if the architecture was changed, \b /// false otherwise. bool SetModulesArchitecture(const ArchSpec &new_arch); /// The number of bytes to read when going through the plugins. static size_t g_initial_bytes_to_read; private: ObjectFile(const ObjectFile &) = delete; const ObjectFile &operator=(const ObjectFile &) = delete; }; } // namespace lldb_private namespace llvm { template <> struct format_provider { static void format(const lldb_private::ObjectFile::Type &type, raw_ostream &OS, StringRef Style); }; template <> struct format_provider { static void format(const lldb_private::ObjectFile::Strata &strata, raw_ostream &OS, StringRef Style); }; namespace json { bool fromJSON(const llvm::json::Value &value, lldb_private::ObjectFile::Type &, llvm::json::Path path); } // namespace json } // namespace llvm #endif // LLDB_SYMBOL_OBJECTFILE_H