void armv_end(void* codestart, u32 cycl)
{
//Normal block end
//cycle counter rv
//pop registers & return
assembler->Subs(w27, w27, cycl);
ptrdiff_t offset = reinterpret_cast<uintptr_t>(arm_exit) - assembler->GetBuffer()->GetStartAddress<uintptr_t>();
Label arm_exit_label;
assembler->BindToOffset(&arm_exit_label, offset);
assembler->B(&arm_exit_label, mi); //statically predicted as not taken
offset = reinterpret_cast<uintptr_t>(arm_dispatch) - assembler->GetBuffer()->GetStartAddress<uintptr_t>();
Label arm_dispatch_label;
assembler->BindToOffset(&arm_dispatch_label, offset);
assembler->B(&arm_dispatch_label);
assembler->FinalizeCode();
verify(assembler->GetBuffer()->GetCursorOffset() <= assembler->GetBuffer()->GetCapacity());
vmem_platform_flush_cache(
codestart, assembler->GetBuffer()->GetEndAddress<void*>(),
codestart, assembler->GetBuffer()->GetEndAddress<void*>());
icPtr += assembler->GetBuffer()->GetSizeInBytes();
#if 0
Instruction* instr_start = (Instruction *)codestart;
Instruction* instr_end = assembler->GetBuffer()->GetEndAddress<Instruction*>();
Decoder decoder;
Disassembler disasm;
decoder.AppendVisitor(&disasm);
Instruction* instr;
for (instr = instr_start; instr < instr_end; instr += kInstructionSize) {
decoder.Decode(instr);
printf("arm64 arec\t %p:\t%s\n",
reinterpret_cast<void*>(instr),
disasm.GetOutput());
}
#endif
delete assembler;
assembler = NULL;
}
