bool MainMemoryAccessBase::doRead(uint32_t address, uint32_t* buffer, size_t count)
{
MemoryArea* cpu = mm->getMemoryArea("CPU");
if (!cpu)
return false;
uint32_t pc = 0;
cpu->read(0, &pc, 1);
bool omitFirst = (address & 0x1);
if (omitFirst) {
--address;
++count;
}
bool omitLast = (count & 1);
if (omitLast) {
++count;
}
const hal_id readMacro = devHandle->supportsQuickMemRead() ?
ID_ReadMemQuick : ID_ReadMemWords;
HalExecElement* el = new HalExecElement(this->devHandle->checkHalId(readMacro));
el->appendInputData32(this->getStart() + address);
el->appendInputData32(static_cast<uint32_t>(count/2));
el->appendInputData32(pc);
el->setOutputSize(count);
ReadElement r(buffer, count, omitFirst, omitLast, 0);
this->readMap[this->elements.size()] = r;
this->elements.push_back(el);
return true;
}
TEST_F( ELFReaderTest, read_symbol_and_rela )
{
ASSERT_TRUE(m_pInput->hasMemArea());
ASSERT_TRUE(m_pInput->hasContext());
m_pInput->setType(Input::Object);
// -- read symbols
LDSection* symtab_shdr = m_pInput->context()->getSection(".symtab");
ASSERT_TRUE(NULL!=symtab_shdr);
LDSection* strtab_shdr = symtab_shdr->getLink();
ASSERT_TRUE(NULL!=strtab_shdr);
MemoryRegion* symtab_region = m_pInput->memArea()->request(
m_pInput->fileOffset() + symtab_shdr->offset(),
symtab_shdr->size());
MemoryRegion* strtab_region = m_pInput->memArea()->request(
m_pInput->fileOffset() + strtab_shdr->offset(),
strtab_shdr->size());
char* strtab = reinterpret_cast<char*>(strtab_region->start());
bool result = m_pELFReader->readSymbols(*m_pInput, *m_pIRBuilder,
*symtab_region, strtab);
ASSERT_TRUE(result);
ASSERT_EQ("hello.c", std::string(m_pInput->context()->getSymbol(1)->name()));
ASSERT_EQ("puts", std::string(m_pInput->context()->getSymbol(10)->name()));
ASSERT_TRUE(NULL==m_pInput->context()->getSymbol(11));
m_pInput->memArea()->release(symtab_region);
m_pInput->memArea()->release(strtab_region);
// -- read relocations
MemoryArea* mem = m_pInput->memArea();
LDContext::sect_iterator rs = m_pInput->context()->relocSectBegin();
ASSERT_TRUE(rs!=m_pInput->context()->relocSectEnd());
ASSERT_EQ(".rela.text", (*rs)->name());
uint64_t offset = m_pInput->fileOffset() + (*rs)->offset();
uint64_t size = (*rs)->size();
MemoryRegion* region = mem->request(offset, size);
IRBuilder::CreateRelocData(**rs); /// create relocation data for the header
ASSERT_EQ(llvm::ELF::SHT_RELA, (*rs)->type());
ASSERT_TRUE(m_pELFReader->readRela(*m_pInput, **rs, *region));
mem->release(region);
const RelocData::RelocationListType &rRelocs =
(*rs)->getRelocData()->getRelocationList();
RelocData::const_iterator rReloc = rRelocs.begin();
ASSERT_EQ(2, rRelocs.size());
ASSERT_TRUE(rRelocs.end()!=rReloc);
++rReloc; /// test rRelocs[1]
ASSERT_EQ("puts", std::string(rReloc->symInfo()->name()));
ASSERT_EQ(llvm::ELF::R_X86_64_PC32, rReloc->type());
ASSERT_EQ(0x0, rReloc->symValue());
ASSERT_EQ(-0x4, rReloc->addend());
}
void TraceThreadListener::recordStreamWriteFromMemory(FILE *Stream,
MemoryArea Area)
{
ProcessTime = getCIProcessTime();
EventsOut.write<EventType::FileWriteFromMemory>
(ProcessTime,
reinterpret_cast<uintptr_t>(Stream),
Area.start(),
Area.length());
}
bool MemoryManagerV3::uploadFunclet(FuncletCode::Type type)
{
const FuncletCode& funclet = parent->getFunclet(type);
const uint8_t* code = (uint8_t*)funclet.code();
const size_t count = funclet.codeSize();
vector<uint32_t> tmp(code, code + count); // copy funclet into vector
MemoryArea* ram = this->getMemoryArea("system", 0);
return ram && ram->write(0, &tmp[0], count) && ram->sync();
}
VOID FreeEnter(ADDRINT startAddress, THREADID threadid)
{
GetLock(&memorySetLock, threadid);
const MemoryArea area = findMemoryArea(startAddress);
ADDRINT freeSize = area.size();
memorySet.erase(area);
ReleaseLock(&memorySetLock);
if (freeSize == 0)
return;
freeMemoryAddress(startAddress, area.to, threadid);
}
Module Process::inject(const Library& lib)
{
if (isInjected(lib))
BOOST_THROW_EXCEPTION(ex_injection() << e_text("library already in process") << e_library(lib.path()) << e_process(*this));
// copy the pathname to the remote process
SIZE_T libPathLen = (lib.path().wstring().size() + 1) * sizeof(wchar_t);
MemoryArea libFileRemote = alloc(libPathLen, true, MEM_COMMIT, PAGE_READWRITE);
libFileRemote.write((void*)(lib.path().c_str()));
PTHREAD_START_ROUTINE loadLibraryW = (PTHREAD_START_ROUTINE)Module::kernel32().getProcAddress("LoadLibraryW");
/*DWORD exitCode =*/ runInHiddenThread(loadLibraryW, libFileRemote.address());
return isInjected(lib);
}
void ELFObjectWriter::emitSectionHeader(const Module& pModule,
const LinkerConfig& pConfig,
MemoryArea& pOutput) const
{
typedef typename ELFSizeTraits<SIZE>::Shdr ElfXX_Shdr;
// emit section header
unsigned int sectNum = pModule.size();
unsigned int header_size = sizeof(ElfXX_Shdr) * sectNum;
MemoryRegion* region = pOutput.request(getLastStartOffset<SIZE>(pModule),
header_size);
ElfXX_Shdr* shdr = (ElfXX_Shdr*)region->start();
// Iterate the SectionTable in LDContext
unsigned int sectIdx = 0;
unsigned int shstridx = 0; // NULL section has empty name
for (; sectIdx < sectNum; ++sectIdx) {
const LDSection *ld_sect = pModule.getSectionTable().at(sectIdx);
shdr[sectIdx].sh_name = shstridx;
shdr[sectIdx].sh_type = ld_sect->type();
shdr[sectIdx].sh_flags = ld_sect->flag();
shdr[sectIdx].sh_addr = ld_sect->addr();
shdr[sectIdx].sh_offset = ld_sect->offset();
shdr[sectIdx].sh_size = ld_sect->size();
shdr[sectIdx].sh_addralign = ld_sect->align();
shdr[sectIdx].sh_entsize = getSectEntrySize<SIZE>(*ld_sect);
shdr[sectIdx].sh_link = getSectLink(*ld_sect, pConfig);
shdr[sectIdx].sh_info = getSectInfo(*ld_sect);
// adjust strshidx
shstridx += ld_sect->name().size() + 1;
}
}
bool MemoryManagerV3::flushAll()
{
for (unsigned int i = 0; i < this->count(); ++i)
{
MemoryArea* area = this->getMemoryArea(i);
MemoryCacheCtrl* ctrl = area->getCacheCtrl();
if (ctrl)
{
if (!ctrl->flush(0, area->getSize()))
return false;
ctrl->clear(0, area->getSize());
}
}
return true;
}
void ELFObjectWriter::emitProgramHeader(MemoryArea& pOutput) const
{
typedef typename ELFSizeTraits<SIZE>::Ehdr ElfXX_Ehdr;
typedef typename ELFSizeTraits<SIZE>::Phdr ElfXX_Phdr;
uint64_t start_offset, phdr_size;
start_offset = sizeof(ElfXX_Ehdr);
phdr_size = sizeof(ElfXX_Phdr);
// Program header must start directly after ELF header
MemoryRegion *region =
pOutput.request(start_offset,
target().elfSegmentTable().size() * phdr_size);
ElfXX_Phdr* phdr = (ElfXX_Phdr*)region->start();
// Iterate the elf segment table in GNULDBackend
size_t index = 0;
ELFSegmentFactory::const_iterator seg = target().elfSegmentTable().begin(),
segEnd = target().elfSegmentTable().end();
for (; seg != segEnd; ++seg, ++index) {
phdr[index].p_type = (*seg)->type();
phdr[index].p_flags = (*seg)->flag();
phdr[index].p_offset = (*seg)->offset();
phdr[index].p_vaddr = (*seg)->vaddr();
phdr[index].p_paddr = (*seg)->paddr();
phdr[index].p_filesz = (*seg)->filesz();
phdr[index].p_memsz = (*seg)->memsz();
phdr[index].p_align = (*seg)->align();
}
}
void ELFObjectWriter::writeELFHeader(const LinkerConfig& pConfig,
const Module& pModule,
MemoryArea& pOutput) const
{
typedef typename ELFSizeTraits<SIZE>::Ehdr ElfXX_Ehdr;
typedef typename ELFSizeTraits<SIZE>::Shdr ElfXX_Shdr;
typedef typename ELFSizeTraits<SIZE>::Phdr ElfXX_Phdr;
// ELF header must start from 0x0
MemoryRegion *region = pOutput.request(0, sizeof(ElfXX_Ehdr));
ElfXX_Ehdr* header = (ElfXX_Ehdr*)region->start();
memcpy(header->e_ident, ElfMagic, EI_MAG3+1);
header->e_ident[EI_CLASS] = (SIZE == 32) ? ELFCLASS32 : ELFCLASS64;
header->e_ident[EI_DATA] = pConfig.targets().isLittleEndian()?
ELFDATA2LSB : ELFDATA2MSB;
header->e_ident[EI_VERSION] = target().getInfo().ELFVersion();
header->e_ident[EI_OSABI] = target().getInfo().OSABI();
header->e_ident[EI_ABIVERSION] = target().getInfo().ABIVersion();
// FIXME: add processor-specific and core file types.
switch(pConfig.codeGenType()) {
case LinkerConfig::Object:
header->e_type = ET_REL;
break;
case LinkerConfig::DynObj:
header->e_type = ET_DYN;
break;
case LinkerConfig::Exec:
header->e_type = ET_EXEC;
break;
default:
llvm::errs() << "unspported output file type: " << pConfig.codeGenType() << ".\n";
header->e_type = ET_NONE;
}
header->e_machine = target().getInfo().machine();
header->e_version = header->e_ident[EI_VERSION];
header->e_entry = getEntryPoint(pConfig, pModule);
if (LinkerConfig::Object != pConfig.codeGenType())
header->e_phoff = sizeof(ElfXX_Ehdr);
else
header->e_phoff = 0x0;
header->e_shoff = getLastStartOffset<SIZE>(pModule);
header->e_flags = target().getInfo().flags();
header->e_ehsize = sizeof(ElfXX_Ehdr);
header->e_phentsize = sizeof(ElfXX_Phdr);
header->e_phnum = target().elfSegmentTable().size();
header->e_shentsize = sizeof(ElfXX_Shdr);
header->e_shnum = pModule.size();
header->e_shstrndx = pModule.getSection(".shstrtab")->index();
}
/// emitShStrTab - emit section string table
void
ELFObjectWriter::emitShStrTab(const LDSection& pShStrTab,
const Module& pModule,
MemoryArea& pOutput)
{
// write out data
MemoryRegion* region = pOutput.request(pShStrTab.offset(), pShStrTab.size());
unsigned char* data = region->start();
size_t shstrsize = 0;
Module::const_iterator section, sectEnd = pModule.end();
for (section = pModule.begin(); section != sectEnd; ++section) {
strcpy((char*)(data + shstrsize), (*section)->name().data());
shstrsize += (*section)->name().size() + 1;
}
}
bool ELFObjectReader::readRelocations(Input& pInput)
{
assert(pInput.hasMemArea());
MemoryArea* mem = pInput.memArea();
LDContext::sect_iterator rs, rsEnd = pInput.context()->relocSectEnd();
for (rs = pInput.context()->relocSectBegin(); rs != rsEnd; ++rs) {
if (LDFileFormat::Ignore == (*rs)->kind())
continue;
uint32_t offset = pInput.fileOffset() + (*rs)->offset();
uint32_t size = (*rs)->size();
llvm::StringRef region = mem->request(offset, size);
IRBuilder::CreateRelocData(**rs); ///< create relocation data for the header
switch ((*rs)->type()) {
case llvm::ELF::SHT_RELA: {
if (!m_pELFReader->readRela(pInput, **rs, region)) {
return false;
}
break;
}
case llvm::ELF::SHT_REL: {
if (!m_pELFReader->readRel(pInput, **rs, region)) {
return false;
}
break;
}
default: { ///< should not enter
return false;
}
} // end of switch
} // end of for all relocation data
return true;
}
void Process::remoteDllMainCall(LPVOID lpModuleEntry, HMODULE hModule, DWORD ul_reason_for_call, LPVOID lpReserved)
{
struct DLLMAINCALL dllMainCall = { (DLLMAIN)lpModuleEntry, hModule, ul_reason_for_call, lpReserved };
SIZE_T DllMainWrapperSize = (SIZE_T)DllMainWrapper_end - (SIZE_T)DllMainWrapper;
MemoryArea param = alloc(sizeof(struct DLLMAINCALL));
MemoryArea dllCallWrapper = alloc((SIZE_T)((DWORD_PTR)DllMainWrapper_end - (DWORD_PTR)DllMainWrapper));
param.write((LPCVOID)&dllMainCall, sizeof(struct DLLMAINCALL));
dllCallWrapper.write((LPCVOID)DllMainWrapper, DllMainWrapperSize);
runInHiddenThread((LPTHREAD_START_ROUTINE)dllCallWrapper.address(), param.address());
}
bool MemoryManagerV3::erase ()
{
MemoryArea* main = this->getMemoryArea("main");
MemoryArea* info = this->getMemoryArea("information");
MemoryArea* bsl = this->getMemoryArea("boot");
if (main && !main->erase())
return false;
if (info && !info->erase())
return false;
if (bsl && !bsl->erase())
return false;
return true;
}
void EhFrameHdr::emitOutput<32>(MemoryArea& pOutput)
{
MemoryRegion* ehframehdr_region =
pOutput.request(m_EhFrameHdr.offset(), m_EhFrameHdr.size());
MemoryRegion* ehframe_region =
pOutput.request(m_EhFrame.offset(),
m_EhFrame.size());
uint8_t* data = (uint8_t*)ehframehdr_region->start();
// version
data[0] = 1;
// eh_frame_ptr_enc
data[1] = DW_EH_PE_pcrel | DW_EH_PE_sdata4;
// eh_frame_ptr
uint32_t* eh_frame_ptr = (uint32_t*)(data + 4);
*eh_frame_ptr = m_EhFrame.addr() - (m_EhFrameHdr.addr() + 4);
// fde_count
uint32_t* fde_count = (uint32_t*)(data + 8);
if (m_EhFrame.hasEhFrame())
*fde_count = 0;
else
*fde_count = m_EhFrame.getEhFrame()->numOfFDEs();
if (0 != *fde_count) {
// fde_count_enc
data[2] = DW_EH_PE_udata4;
// table_enc
data[3] = DW_EH_PE_datarel | DW_EH_PE_sdata4;
}
else {
// fde_count_enc
data[2] = DW_EH_PE_omit;
// table_enc
data[3] = DW_EH_PE_omit;
}
if (0 != *fde_count) {
// prepare the binary search table
typedef std::vector<bit32::Entry> SearchTableType;
SearchTableType search_table;
MemoryRegion* ehframe_region =
pOutput.request(m_EhFrame.offset(), m_EhFrame.size());
EhFrame::const_fde_iterator fde, fde_end = m_EhFrame.getEhFrame()->fde_end();
for(fde = m_EhFrame.getEhFrame()->fde_begin(); fde != fde_end; ++fde) {
assert(*fde != NULL);
SizeTraits<32>::Offset offset;
SizeTraits<32>::Address fde_pc;
SizeTraits<32>::Address fde_addr;
offset = (*fde)->getOffset();
fde_pc = computePCBegin(**fde, *ehframe_region);
fde_addr = m_EhFrame.addr() + offset;
search_table.push_back(std::make_pair(fde_pc, fde_addr));
}
pOutput.release(ehframe_region);
std::sort(search_table.begin(), search_table.end(), bit32::EntryCompare);
// write out the binary search table
uint32_t* bst = (uint32_t*)(data + 12);
SearchTableType::const_iterator entry, entry_end = search_table.end();
size_t id = 0;
for (entry = search_table.begin(); entry != entry_end; ++entry) {
bst[id++] = (*entry).first - m_EhFrameHdr.addr();
bst[id++] = (*entry).second - m_EhFrameHdr.addr();
}
}
pOutput.release(ehframehdr_region);
pOutput.release(ehframe_region);
}
void ELFObjectWriter::writeSection(MemoryArea& pOutput, LDSection *section)
{
MemoryRegion* region;
// Request output region
switch (section->kind()) {
case LDFileFormat::Note:
if (section->getSectionData() == NULL)
return;
// Fall through
case LDFileFormat::Regular:
case LDFileFormat::Relocation:
case LDFileFormat::Target:
case LDFileFormat::Debug:
case LDFileFormat::GCCExceptTable:
case LDFileFormat::EhFrame: {
region = pOutput.request(section->offset(), section->size());
if (NULL == region) {
llvm::report_fatal_error(llvm::Twine("cannot get enough memory region for output section `") +
llvm::Twine(section->name()) +
llvm::Twine("'.\n"));
}
break;
}
case LDFileFormat::Null:
case LDFileFormat::NamePool:
case LDFileFormat::BSS:
case LDFileFormat::MetaData:
case LDFileFormat::Version:
case LDFileFormat::EhFrameHdr:
case LDFileFormat::StackNote:
// Ignore these sections
return;
default:
llvm::errs() << "WARNING: unsupported section kind: "
<< section->kind()
<< " of section "
<< section->name()
<< ".\n";
return;
}
// Write out sections with data
switch(section->kind()) {
case LDFileFormat::GCCExceptTable:
case LDFileFormat::EhFrame:
case LDFileFormat::Regular:
case LDFileFormat::Debug:
case LDFileFormat::Note:
// FIXME: if optimization of exception handling sections is enabled,
// then we should emit these sections by the other way.
emitSectionData(*section, *region);
break;
case LDFileFormat::Relocation:
// sort relocation for the benefit of the dynamic linker.
target().sortRelocation(*section);
emitRelocation(m_Config, *section, *region);
break;
case LDFileFormat::Target:
target().emitSectionData(*section, *region);
break;
default:
llvm_unreachable("invalid section kind");
}
}
bool DebugManagerV3::run (uint16_t controlMask, DebugEventTarget * cb, bool releaseJtag)
{
MemoryManager* mm = this->parent->getMemoryManager();
MemoryArea* cpu = mm->getMemoryArea("CPU");
if (!cpu)
{
return false;
}
lpm5WakeupDetected = false;
if(cb!=0)
{
cbx=cb;
}
uint32_t pc, sr;
cpu->read(0, &pc, 1);
cpu->read(2, &sr, 1);
if(mm->flushAll()==false)
{
return false;
}
cycleCounter_.reset();
ConfigManager *cm = parent->getFetHandle()->getConfigManager();
const uint16_t mdb = parent->getEmulationManager()->getSoftwareBreakpoints()->getSwbpManager()->getInstructionAt(pc);
if (mdb != 0)
{
mdbPatchValue = mdb;
}
HalExecElement* el = new HalExecElement(this->parent->checkHalId(ID_RestoreContext_ReleaseJtag));
this->parent->getWatchdogControl()->addParamsTo(el);
el->appendInputData32(pc);
el->appendInputData16(sr);
el->appendInputData16(controlMask!=0? 0x0007: 0x0006); // eem control bits
el->appendInputData16(mdbPatchValue); // mdb
el->appendInputData16(releaseJtag ? 1 : 0);
el->appendInputData16(cm->ulpDebugEnabled() ? 1 : 0);
mdbPatchValue = 0;
HalExecCommand cmd;
cmd.elements.push_back(el);
if (!this->parent->send(cmd))
{
return false;
}
// handle lpmx5 polling
if (releaseJtag)
{
pausePolling();
}
else
{
this->resumePolling();
}
if (controlMask!=0 && !releaseJtag)
{
if (!activatePolling(controlMask))
{
return false;
}
}
resetCycleCounterBeforeNextStep = true;
return true;
}
void TraceData::parseReport(const std::string& filename)
{
release();
std::ifstream file;
std::istream& in = filename.empty() ? std::cin : file;
if (!filename.empty()) {
file.open(filename.c_str(), std::ios_base::in);
if (file.fail()) {
throw std::ios_base::failure(Formatter() << "Failed to open file: " << filename);
}
}
char buffer[4096];
in.getline(buffer, sizeof(buffer));
if (in.eof()) throw std::runtime_error(Formatter() << "Empty input file: " << filename);
if (buffer[0] == (char)SP_RTRACE_PROTO_HS_ID) {
throw std::runtime_error("Can't process sp-rtrace binary files. "
"Convert to text format with sp-rtrace-postproc and try again.");
}
sp_rtrace_parser_parse_header(buffer, &header);
while (true && (filename_maps.empty() || filename_pageflags.empty()) ) {
in.getline(buffer, sizeof(buffer));
if (in.eof()) break;
sp_rtrace_record_t rec;
int rec_type = sp_rtrace_parser_parse_record(buffer, &rec);
switch (rec_type) {
case SP_RTRACE_RECORD_ATTACHMENT:
if (!strcmp(rec.attachment.name, ATTACHMENT_MAPS)) filename_maps = rec.attachment.path;
else if (!strcmp(rec.attachment.name, ATTACHMENT_PAGEFLAGS)) filename_pageflags = rec.attachment.path;
break;
}
sp_rtrace_parser_free_record(rec_type, &rec);
}
if (access(filename_maps.c_str(), F_OK) == -1) throw std::runtime_error(Formatter() << "Failed to access maps file '" << filename_maps << "': " << strerror(errno));
if (access(filename_pageflags.c_str(), F_OK) == -1) throw std::runtime_error(Formatter() << "Failed to access pageflags file '" << filename_pageflags << "': " << strerror(errno));
// map the pageflags file to memory
pageflags_fd = open(filename_pageflags.c_str(), O_RDONLY);
if (pageflags_fd == -1) throw std::runtime_error(Formatter() << "Failed to open pageflags file '" << filename_pageflags << "': " << strerror(errno));
struct stat ps;
if (fstat(pageflags_fd, &ps) == -1) throw std::runtime_error(Formatter() << "Failed to stat pageflags file '" << filename_pageflags << "': " << strerror(errno));
pageflags_size = ps.st_size;
pageflags_addr = mmap(NULL, pageflags_size, PROT_READ, MAP_SHARED, pageflags_fd, 0);
if (pageflags_addr == MAP_FAILED) throw std::runtime_error(Formatter() << "Failed to mmap pageflags file '" << filename_pageflags << "': " << strerror(errno));
// scan the mapped areas from maps/pageflags files
scanMemoryAreas();
// scan the allocation events
in.seekg(0);
std::list<CallEvent*> last_events;
sp_rtrace_btframe_t frames[512];
sp_rtrace_btframe_t* pframe = frames;
while (true) {
in.getline(buffer, sizeof(buffer));
if (in.eof()) break;
sp_rtrace_record_t rec;
int rec_type = sp_rtrace_parser_parse_record(buffer, &rec);
if (rec_type == SP_RTRACE_RECORD_TRACE) {
/* don't collect backtrace records if there is no preceeding allocation
* function event */
if (last_events.empty()) {
sp_rtrace_parser_free_record(rec_type, &rec);
}
else {
*pframe++ = rec.frame;
}
continue;
}
// Store backtrace record for last cached events
if ((pframe > frames || !*buffer) && !last_events.empty()) {
storeTrace(last_events, frames, pframe - frames);
last_events.clear();
}
if (rec_type == SP_RTRACE_RECORD_CALL) {
if (rec.call.type == SP_RTRACE_FTYPE_ALLOC) {
MemoryArea* area = findMemoryArea(rec.call.res_id);
if (area) {
last_events.push_back(area->addEvent(rec.call));
continue;
}
}
}
pframe = frames;
sp_rtrace_parser_free_record(rec_type, &rec);
}
if ((pframe > frames || !*buffer) && !last_events.empty()) {
fprintf(stderr, "last parse\n");
storeTrace(last_events, frames, pframe - frames);
last_events.clear();
}
// sort the allocation events inside areas
for (MemoryArea::vector_t::iterator iter = memory_areas.begin(); iter != memory_areas.end(); iter++) {
iter->get()->sortEvents();
}
}
bool FramMemoryAccessBaseFR57<MPU>::erase(uint32_t start, uint32_t end, uint32_t block_size, int type)
{
using boost::shared_ptr;
using boost::bind;
// check if valid erase type is used
if ((type != ERASE_SEGMENT) && (type != ERASE_MAIN))
{
return false;
}
if (block_size < 1)
{
return false;
}
// if the MPU is enabled, disable it to enable memory erase
if(!mpu.readMpuSettings() || !mpu.disableMpu())
{
return false;
}
// get Device RAM parameters for funclet upload
MemoryArea* ram = mm->getMemoryArea("system", 0);
if (!ram)
{
return false;
}
if ( !uploadFunclet(FuncletCode::ERASE) )
{
return false;
}
shared_ptr<void> restoreRamOnExit(static_cast<void*>(0),
bind(&FramMemoryAccessBaseFR57<MPU>::restoreRam, this));
//Note the erase on an FRAM device is just a dummy write with 0xFFFF to the device FRAm
int32_t erase_address = start;
const FuncletCode& funclet = devHandle->getFunclet(FuncletCode::ERASE);
const uint32_t eraseType = 0;
const uint32_t eraseLength = end - start + 1;
const uint16_t flags = 0x0;
const uint16_t programStartAddress = ram->getStart() + funclet.programStartOffset();
HalExecCommand cmd;
cmd.setTimeout(10000); // overwrite 3 sec default with 10 sec
HalExecElement* el = new HalExecElement(ID_SetDeviceChainInfo);
el->appendInputData16(static_cast<uint16_t>(this->devHandle->getDevChainInfo()->getBusId()));
cmd.elements.push_back(el);
el = new HalExecElement(this->devHandle->checkHalId(ID_ExecuteFunclet));
el->appendInputData16(static_cast<uint16_t>(ram->getStart() & 0xFFFF));
el->appendInputData16(static_cast<uint16_t>(ram->getSize() & 0xFFFF));
el->appendInputData16(programStartAddress);
el->appendInputData32(static_cast<uint32_t>(erase_address));
el->appendInputData32(eraseLength);
el->appendInputData16(eraseType);
el->appendInputData16(flags);
el->appendInputData16(devHandle->getClockCalibration()->getCal0());
el->appendInputData16(devHandle->getClockCalibration()->getCal1());
//Dummy data to trigger execution of erase funclet
el->appendInputData32(0xDEADBEEF);
// set value for return length
el->setOutputSize(2);
cmd.elements.push_back(el);
if (!this->devHandle->send(cmd))
{
return false;
}
return true;
}
llvm::error_code ELFObjectWriter::writeObject(Module& pModule,
MemoryArea& pOutput)
{
bool is_dynobj = m_Config.codeGenType() == LinkerConfig::DynObj;
bool is_exec = m_Config.codeGenType() == LinkerConfig::Exec;
bool is_binary = m_Config.codeGenType() == LinkerConfig::Binary;
bool is_object = m_Config.codeGenType() == LinkerConfig::Object;
assert(is_dynobj || is_exec || is_binary || is_object);
if (is_dynobj || is_exec) {
// Allow backend to sort symbols before emitting
target().orderSymbolTable(pModule);
// Write out the interpreter section: .interp
target().emitInterp(pOutput);
// Write out name pool sections: .dynsym, .dynstr, .hash
target().emitDynNamePools(pModule, pOutput);
}
if (is_object || is_dynobj || is_exec) {
// Write out name pool sections: .symtab, .strtab
target().emitRegNamePools(pModule, pOutput);
}
if (is_binary) {
// Iterate over the loadable segments and write the corresponding sections
ELFSegmentFactory::iterator seg, segEnd = target().elfSegmentTable().end();
for (seg = target().elfSegmentTable().begin(); seg != segEnd; ++seg) {
if (llvm::ELF::PT_LOAD == (*seg)->type()) {
ELFSegment::iterator sect, sectEnd = (*seg)->end();
for (sect = (*seg)->begin(); sect != sectEnd; ++sect)
writeSection(pOutput, *sect);
}
}
} else {
// Write out regular ELF sections
Module::iterator sect, sectEnd = pModule.end();
for (sect = pModule.begin(); sect != sectEnd; ++sect)
writeSection(pOutput, *sect);
emitShStrTab(target().getOutputFormat()->getShStrTab(), pModule, pOutput);
if (m_Config.targets().is32Bits()) {
// Write out ELF header
// Write out section header table
writeELFHeader<32>(m_Config, pModule, pOutput);
if (is_dynobj || is_exec)
emitProgramHeader<32>(pOutput);
emitSectionHeader<32>(pModule, m_Config, pOutput);
}
else if (m_Config.targets().is64Bits()) {
// Write out ELF header
// Write out section header table
writeELFHeader<64>(m_Config, pModule, pOutput);
if (is_dynobj || is_exec)
emitProgramHeader<64>(pOutput);
emitSectionHeader<64>(pModule, m_Config, pOutput);
}
else
return make_error_code(errc::not_supported);
}
pOutput.clear();
return llvm::make_error_code(llvm::errc::success);
}