def _(bs):
"handler(rsp)"
bs.code += isa.mov(registers.rdi, registers.rsp)
bs.code += isa.mov(registers.r12, registers.rsp)
bs.code += isa.and_(registers.rsp, -16)
bs.code += isa.mov(
registers.rax,
ctypes.cast(handler_cfunc, ctypes.c_void_p).value)
bs.code += isa.call(registers.rax)
bs.code += isa.mov(registers.rsp, registers.r12)
for arg in arg_types[::-1]:
assert bs.flow.stack.pop() is arg
for i in xrange(arg.size):
bs.code += isa.pop(registers.rbx)
assert bs.flow.stack.pop() is self
bs.code += isa.push(registers.rax)
def _(value):
def _(bs):
type = type_impl.id_to_type[value]
for i in xrange(type.size):
bs.code += isa.push(
MemRef(
ctypes.cast(self.return_area,
ctypes.c_void_p).value + i))
bs.flow.stack.append(type)
assert bs.flow.stack[-1].size == 0
return _
util.unlift(bs, _, "PythonFunction.call")
def _(bs):
"handler(rsp)"
bs.code += isa.mov(registers.rdi, registers.rsp)
bs.code += isa.mov(registers.r12, registers.rsp)
bs.code += isa.and_(registers.rsp, -16)
bs.code += isa.mov(registers.rax, ctypes.cast(handler_cfunc, ctypes.c_void_p).value)
bs.code += isa.call(registers.rax)
bs.code += isa.mov(registers.rsp, registers.r12)
for arg in arg_types[::-1]:
assert bs.flow.stack.pop() is arg
for i in xrange(arg.size):
bs.code += isa.pop(registers.rbx)
assert bs.flow.stack.pop() is self
bs.code += isa.push(registers.rax)
def _(value):
def _(bs):
type = type_impl.id_to_type[value]
for i in xrange(type.size):
bs.code += isa.push(MemRef(ctypes.cast(self.return_area, ctypes.c_void_p).value + i))
bs.flow.stack.append(type)
assert bs.flow.stack[-1].size == 0
return _
util.unlift(bs, _, "PythonFunction.call")
def CpuidAsmInit():
import corepy.arch.x86_64.isa as x86
import corepy.arch.x86_64.types.registers as reg
import corepy.arch.x86_64.platform as env
import corepy.arch.x86_64.lib.memory as mem
global CpuidCode
global CpuidProc
global CpuidParams
CpuidCode = env.InstructionStream()
CpuidProc = env.Processor()
CpuidParams = env.ExecParams()
CpuidCode.add(x86.mov(reg.rax, mem.MemRef(reg.rbp, 16))) # parameter 1
CpuidCode.add(x86.mov(reg.rcx, mem.MemRef(reg.rbp, 24))) # parameter 2
CpuidCode.add(x86.mov(reg.rdi, mem.MemRef(reg.rbp, 32))) # parameter 3
CpuidCode.add(x86.push(reg.rax)) # save input parameter
CpuidCode.add(x86.cpuid())
CpuidCode.add(x86.mov(mem.MemRef(reg.edi, 0, data_size=32), reg.eax))
CpuidCode.add(x86.mov(mem.MemRef(reg.edi, 4, data_size=32), reg.ebx))
CpuidCode.add(x86.mov(mem.MemRef(reg.edi, 8, data_size=32), reg.ecx))
CpuidCode.add(x86.mov(mem.MemRef(reg.edi, 12, data_size=32), reg.edx))
CpuidCode.add(x86.pop(reg.rax)) # restore input parameter as return value
def load_float(code, reg, val, clear=False):
data = extarray.extarray('f', (val, ))
data.change_type('I')
# reg better be an mmx or xmm, should we check?
code.add(x86.push(data[0]))
code.add(x86.pshufd(reg, mem.MemRef(regs.rsp, data_size=128), 0))
return code.add(x86.add(regs.rsp, 8))
def load_double(code, reg, val):
data = extarray.extarray('d', (val, ))
data.change_type('L')
# reg better be an mmx or xmm, should we check?
code.add(x86.push(data[0]))
code.add(x86.pshufd(reg, mem.MemRef(regs.rsp, data_size=128), 0x44))
return code.add(x86.add(regs.rsp, 8))
def load_float(code, reg, val, clear = False):
data = extarray.extarray('f', (val,))
data.change_type('I')
# reg better be an mmx or xmm, should we check?
code.add(x86.push(data[0]))
code.add(x86.pshufd(reg, mem.MemRef(regs.rsp, data_size = 128), 0))
return code.add(x86.add(regs.rsp, 8))
def _(bs):
#print "loading", attr, self.desc, type, repr(content.container.raw)
addr = ctypes.cast(content.container, ctypes.c_void_p).value
if type.size:
bs.code += isa.mov(registers.rax, addr)
for i in xrange(type.size):
bs.code += isa.push(MemRef(registers.rax, 8 * i))
bs.flow.stack.append(type)
def load_double(code, reg, val):
data = extarray.extarray('d', (val,))
data.change_type('L')
# reg better be an mmx or xmm, should we check?
code.add(x86.push(data[0]))
code.add(x86.pshufd(reg, mem.MemRef(regs.rsp, data_size = 128), 0x44))
return code.add(x86.add(regs.rsp, 8))
def _(bs):
assert bs.flow.stack.pop() is type_impl.Int
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.rdi)
bs.code += isa.shl(registers.rdi, 3)
bs.code += isa.mov(registers.rax, util.malloc_addr)
bs.code += isa.call(registers.rax)
bs.code += isa.push(registers.rax)
bs.flow.stack.append(Raw)
def _(bs):
for i in xrange(bs.flow.stack[-1].size):
bs.code += isa.pop(registers.rax)
assert bs.flow.stack.pop() is arg_types[0]
for i in xrange(bs.flow.stack[-1].size):
bs.code += isa.pop(registers.rax)
assert bs.flow.stack.pop() is self
bs.code += isa.push(arg_types[0].id)
bs.flow.stack.append(type_impl.Int)
def _(bs):
assert bs.flow.stack.pop() is type_impl.Int
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.rdi)
bs.code += isa.shl(registers.rdi, 3)
bs.code += isa.mov(registers.rax, util.malloc_addr)
bs.code += isa.call(registers.rax)
bs.code += isa.push(registers.rax)
bs.flow.stack.append(Raw)
def _(bs):
for i in xrange(bs.flow.stack[-1].size):
bs.code += isa.pop(registers.rax)
assert bs.flow.stack.pop() is arg_types[0]
for i in xrange(bs.flow.stack[-1].size):
bs.code += isa.pop(registers.rax)
assert bs.flow.stack.pop() is self
bs.code += isa.push(arg_types[0].id)
bs.flow.stack.append(type_impl.Int)
def _(bs):
type = type_impl.id_to_type[value]
for i in xrange(type.size):
bs.code += isa.push(
MemRef(
ctypes.cast(self.return_area,
ctypes.c_void_p).value + i))
bs.flow.stack.append(type)
assert bs.flow.stack[-1].size == 0
def _(bs):
ints = len([x for x in arg_types if x is type_impl.Int or x is type_impl.Str or x is Raw or x is type_impl.NoneType or isinstance(x, _FuncPtr) or x is type_impl.Bool])
floats = len([x for x in arg_types if x is type_impl.Float])
floats_orig = floats
pos = 0
for arg_type in reversed(arg_types):
type = bs.flow.stack.pop()
assert arg_type is type, (type, arg_type)
if type is type_impl.Int or type is type_impl.Bool:
ints -= 1
bs.code += isa.mov(int_regs[ints], MemRef(registers.rsp, pos))
pos += 8
elif isinstance(type, _FuncPtr):
ints -= 1
bs.code += isa.mov(int_regs[ints], MemRef(registers.rsp, pos))
pos += 8
elif type is type_impl.NoneType:
ints -= 1
bs.code += isa.mov(int_regs[ints], 0)
elif type is Raw:
ints -= 1
bs.code += isa.mov(int_regs[ints], MemRef(registers.rsp, pos))
pos += 8
bs.code += isa.add(int_regs[ints], 8)
elif type is type_impl.Float:
floats -= 1
bs.code += isa.movsd(float_regs[floats], MemRef(registers.rsp, pos))
pos += 8
elif type is type_impl.Str:
ints -= 1
bs.code += isa.mov(int_regs[ints], MemRef(registers.rsp, pos))
bs.code += isa.test(int_regs[ints], 1)
short = bs.program.get_unique_label()
end = bs.program.get_unique_label()
bs.code += isa.jnz(short)
# long
bs.code += isa.add(int_regs[ints], 8)
bs.code += isa.jmp(end)
bs.code += short
# short
bs.code += isa.shr(MemRef(registers.rsp, pos), 8)
bs.code += isa.lea(int_regs[ints], MemRef(registers.rsp, pos, data_size=None))
bs.code += end
pos += 8
else:
assert False, type
assert bs.flow.stack.pop() is self
bs.code += isa.mov(registers.rbx, ctypes.cast(self.func, ctypes.c_void_p).value)
bs.code += isa.mov(registers.r12, registers.rsp)
bs.code += isa.and_(registers.rsp, -16)
bs.code += isa.mov(registers.rax, floats)
bs.code += isa.call(registers.rbx)
bs.code += isa.mov(registers.rsp, registers.r12)
bs.code += isa.add(registers.rsp, pos)
bs.code += isa.push(registers.rax)
bs.flow.stack.append(type_impl.Int)
def dup_lower(bs, level):
# 0 = dup
skip = sum(x.size for x in bs.flow.stack[-1 - level:])
type = bs.flow.stack[-1 - level]
#print skip, bs.flow.stack[-1-level:]
#print "skip =", skip, level
if type.size:
bs.code += isa.mov(registers.rax, 8 * skip - 8)
for i in xrange(type.size):
bs.code += isa.push(MemRef(registers.rsp, 0, registers.rax))
bs.flow.stack.append(type)
def _(bs):
assert bs.flow.stack.pop() is type_impl.Int
bs.code += isa.pop(registers.rbx)
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.rax)
bs.code += isa.shl(registers.rbx, 3)
bs.code += isa.add(registers.rax, registers.rbx)
bs.code += isa.push(MemRef(registers.rax))
bs.flow.stack.append(type_impl.Int)
def dup_lower(bs, level):
# 0 = dup
skip = sum(x.size for x in bs.flow.stack[-1-level:])
type = bs.flow.stack[-1-level]
#print skip, bs.flow.stack[-1-level:]
#print "skip =", skip, level
if type.size:
bs.code += isa.mov(registers.rax, 8 * skip - 8)
for i in xrange(type.size):
bs.code += isa.push(MemRef(registers.rsp, 0, registers.rax))
bs.flow.stack.append(type)
def _(bs):
assert bs.flow.stack.pop() is type_impl.Int
bs.code += isa.pop(registers.rbx)
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.rax)
bs.code += isa.shl(registers.rbx, 3)
bs.code += isa.add(registers.rax, registers.rbx)
bs.code += isa.push(MemRef(registers.rax))
bs.flow.stack.append(type_impl.Int)
def getattr_raw(self, bs):
bs.code += isa.pop(registers.r12)
bs.code += isa.mov(registers.rdi, MemRef(registers.r12))
bs.code += isa.add(registers.rdi, 8)
bs.code += isa.mov(registers.rax, util.malloc_addr)
bs.code += isa.call(registers.rax)
bs.code += isa.push(registers.rax)
bs.code += isa.mov(registers.rdi, registers.rax)
bs.code += isa.mov(registers.rsi, registers.r12)
bs.code += isa.mov(registers.rcx, MemRef(registers.r12))
bs.code += isa.add(registers.rcx, 8)
bs.code += isa.rep()
bs.code += isa.movsb()
bs.flow.stack.append(type_impl.Str)
def getattr_raw(self, bs):
bs.code += isa.pop(registers.r12)
bs.code += isa.mov(registers.rdi, MemRef(registers.r12))
bs.code += isa.add(registers.rdi, 8)
bs.code += isa.mov(registers.rax, util.malloc_addr)
bs.code += isa.call(registers.rax)
bs.code += isa.push(registers.rax)
bs.code += isa.mov(registers.rdi, registers.rax)
bs.code += isa.mov(registers.rsi, registers.r12)
bs.code += isa.mov(registers.rcx, MemRef(registers.r12))
bs.code += isa.add(registers.rcx, 8)
bs.code += isa.rep()
bs.code += isa.movsb()
bs.flow.stack.append(type_impl.Str)
def MsrAsmInit():
import corepy.arch.x86_64.isa as x86
import corepy.arch.x86_64.types.registers as reg
import corepy.arch.x86_64.lib.memory as mem
# WrMsrAsm (EDX, EAX, ECX)
# MSR[ECX] = EDX:EAX;
global WrMsrAsm
WrMsrAsm = env.InstructionStream()
WrMsrAsm.add(x86.mov(reg.rdx, mem.MemRef(reg.rbp,
16))) # parameter 1, rdx, IN
WrMsrAsm.add(x86.mov(reg.rax, mem.MemRef(reg.rbp,
24))) # parameter 2, rax, IN
WrMsrAsm.add(x86.mov(reg.rcx, mem.MemRef(reg.rbp,
32))) # parameter 3, rcx, IN
WrMsrAsm.add(x86.push(reg.rcx))
WrMsrAsm.add(x86.wrmsr())
WrMsrAsm.add(x86.pop(reg.rax))
# RdMsrAsm (EDX, EAX, ECX)
# EDX:EAX = MSR[ECX];
global RdMsrAsm
RdMsrAsm = env.InstructionStream()
RdMsrAsm.add(x86.mov(reg.rdi, mem.MemRef(reg.rbp,
16))) # parameter 1, rdx, OUT
RdMsrAsm.add(x86.mov(reg.rsi, mem.MemRef(reg.rbp,
24))) # parameter 2, rax, OUT
RdMsrAsm.add(x86.mov(reg.rcx, mem.MemRef(reg.rbp,
32))) # parameter 3, rcx, IN
WrMsrAsm.add(x86.push(reg.rcx))
RdMsrAsm.add(x86.rdmsr())
RdMsrAsm.add(x86.mov(mem.MemRef(reg.rdi),
reg.rdx)) # parameter 1, rdx, OUT
RdMsrAsm.add(x86.mov(mem.MemRef(reg.rsi),
reg.rax)) # parameter 2, rax, OUT
WrMsrAsm.add(x86.pop(reg.rax))
def load_float(code, reg, val, clear=False):
data = extarray.extarray('f', (val, ))
data.change_type('I')
# reg better be an mmx or xmm, should we check?
code.add(x86.push(data[0]))
code.add(x86.movd(reg, mem.MemRef(regs.rsp, data_size=32)))
ret = code.add(x86.add(regs.rsp, 8))
if clear == False:
# Need to duplicate the value out across now
# Assumes reg is xmm
ret = x86.pshufd(reg, reg, 0)
return ret
def get_asm_glue_old(dest_addr):
program = BareProgram()
code = program.get_stream()
code += isa.mov(registers.rax, fake_int(dest_addr))
code += isa.push(registers.r12)
code += isa.mov(registers.r12, registers.rsp)
code += isa.and_(registers.rsp, -16)
code += isa.call(registers.rax)
code += isa.mov(registers.rsp, registers.r12)
code += isa.pop(registers.r12)
code += isa.pop(registers.rax)
code += isa.sub(registers.rax, patch_len)
code += isa.jmp(registers.rax)
program.add(code)
program.cache_code()
return program.render_code
def get_asm_glue_old(dest_addr):
program = BareProgram()
code = program.get_stream()
code += isa.mov(registers.rax, fake_int(dest_addr))
code += isa.push(registers.r12)
code += isa.mov(registers.r12, registers.rsp)
code += isa.and_(registers.rsp, -16)
code += isa.call(registers.rax)
code += isa.mov(registers.rsp, registers.r12)
code += isa.pop(registers.r12)
code += isa.pop(registers.rax)
code += isa.sub(registers.rax, patch_len)
code += isa.jmp(registers.rax)
program.add(code)
program.cache_code()
return program.render_code
def _(bs):
type = bs.flow.stack.pop()
for i, reg in zip(xrange(type.size), [registers.r11, registers.r12, registers.r13, registers.r14]):
bs.code += isa.pop(reg)
assert bs.flow.stack.pop() is type_impl.Int
bs.code += isa.pop(registers.rbx)
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.rax)
bs.code += isa.shl(registers.rbx, 3)
bs.code += isa.add(registers.rax, registers.rbx)
bs.code += isa.mov(MemRef(registers.rax), type.id)
for i, reg in zip(xrange(type.size), [registers.r11, registers.r12, registers.r13, registers.r14]):
bs.code += isa.mov(MemRef(registers.rax, i * 8 + 8), reg)
bs.code += isa.push(1 + type.size)
bs.flow.stack.append(type_impl.Int)
def make_root():
return compiler.translate("make_root", compiler.Flow(), this=[
lambda bs: bs.code.add(isa.push(registers.rbp)),
lambda bs: bs.code.add(isa.mov(registers.rbp, registers.rsp)),
lambda bs: bs.flow.try_stack.append(uncaught_exception),
#main_module.load(),
#ast.Call(
# func=lambda bs: None,
# args=[],
# keywords=[],
# starargs=None,
# kwargs=None,
# ),
tree.body,
lambda bs: bs.code.add(isa.mov(registers.rsp, registers.rbp)),
lambda bs: bs.code.add(isa.pop(registers.rbp)),
lambda bs: bs.code.add(isa.ret()),
compiler.end,
])
def _(bs):
assert bs.flow.stack.pop() is type_impl.Int
bs.code += isa.pop(registers.r13)
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.r12)
bs.code += isa.shl(registers.r13, 3)
bs.code += isa.add(registers.r12, registers.r13)
bs.code += isa.push(MemRef(registers.r12))
def _(value):
def _(bs):
type = type_impl.id_to_type[value]
for i in reversed(xrange(type.size)):
bs.code += isa.push(MemRef(registers.r12, i * 8 + 8))
bs.flow.stack.append(type)
return _
util.unlift(bs, _, "RawLoadObjectMeth.call")
def _(bs):
assert bs.flow.stack.pop() is type_impl.Int
bs.code += isa.pop(registers.r13)
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.r12)
bs.code += isa.shl(registers.r13, 3)
bs.code += isa.add(registers.r12, registers.r13)
bs.code += isa.push(MemRef(registers.r12))
def _(value):
def _(bs):
type = type_impl.id_to_type[value]
for i in reversed(xrange(type.size)):
bs.code += isa.push(MemRef(registers.r12, i * 8 + 8))
bs.flow.stack.append(type)
return _
util.unlift(bs, _, "RawLoadObjectMeth.call")
def make_root():
return compiler.translate(
"make_root",
compiler.Flow(),
this=[
lambda bs: bs.code.add(isa.push(registers.rbp)),
lambda bs: bs.code.add(isa.mov(registers.rbp, registers.rsp)),
lambda bs: bs.flow.try_stack.append(uncaught_exception),
#main_module.load(),
#ast.Call(
# func=lambda bs: None,
# args=[],
# keywords=[],
# starargs=None,
# kwargs=None,
# ),
tree.body,
lambda bs: bs.code.add(isa.mov(registers.rsp, registers.rbp)),
lambda bs: bs.code.add(isa.pop(registers.rbp)),
lambda bs: bs.code.add(isa.ret()),
compiler.end,
])
def _(bs):
type = bs.flow.stack.pop()
for i, reg in zip(
xrange(type.size),
[registers.r11, registers.r12, registers.r13, registers.r14]):
bs.code += isa.pop(reg)
assert bs.flow.stack.pop() is type_impl.Int
bs.code += isa.pop(registers.rbx)
assert bs.flow.stack.pop() is self
bs.code += isa.pop(registers.rax)
bs.code += isa.shl(registers.rbx, 3)
bs.code += isa.add(registers.rax, registers.rbx)
bs.code += isa.mov(MemRef(registers.rax), type.id)
for i, reg in zip(
xrange(type.size),
[registers.r11, registers.r12, registers.r13, registers.r14]):
bs.code += isa.mov(MemRef(registers.rax, i * 8 + 8), reg)
bs.code += isa.push(1 + type.size)
bs.flow.stack.append(type_impl.Int)
def _synthesize_prologue(self):
"""
Create the prologue.
This manages the register preservation requirements from the ABI.
"""
# Set up the call frame and push callee-save registers
# Note the stack is expected to remain 16-byte aligned, which is true here.
self._prologue = [self.lbl_prologue,
x86.push(rbp, ignore_active = True),
x86.mov(rbp, rsp, ignore_active = True),
x86.push(r15, ignore_active = True),
x86.push(r14, ignore_active = True),
x86.push(r13, ignore_active = True),
x86.push(r12, ignore_active = True),
x86.push(rbx, ignore_active = True)]
return
def _synthesize_prologue(self):
"""
Create the prologue.
This manages the register preservation requirements from the ABI.
"""
# Set up the call frame and push callee-save registers
# Note the stack is expected to remain 16-byte aligned, which is true here.
self._prologue = [
self.lbl_prologue,
x86.push(rbp, ignore_active=True),
x86.mov(rbp, rsp, ignore_active=True),
x86.push(r15, ignore_active=True),
x86.push(r14, ignore_active=True),
x86.push(r13, ignore_active=True),
x86.push(r12, ignore_active=True),
x86.push(rbx, ignore_active=True)
]
return
def _(bs):
ints = len([
x for x in arg_types if x is type_impl.Int
or x is type_impl.Str or x is Raw or x is type_impl.NoneType
or isinstance(x, _FuncPtr) or x is type_impl.Bool
])
floats = len([x for x in arg_types if x is type_impl.Float])
floats_orig = floats
pos = 0
for arg_type in reversed(arg_types):
type = bs.flow.stack.pop()
assert arg_type is type, (type, arg_type)
if type is type_impl.Int or type is type_impl.Bool:
ints -= 1
bs.code += isa.mov(int_regs[ints],
MemRef(registers.rsp, pos))
pos += 8
elif isinstance(type, _FuncPtr):
ints -= 1
bs.code += isa.mov(int_regs[ints],
MemRef(registers.rsp, pos))
pos += 8
elif type is type_impl.NoneType:
ints -= 1
bs.code += isa.mov(int_regs[ints], 0)
elif type is Raw:
ints -= 1
bs.code += isa.mov(int_regs[ints],
MemRef(registers.rsp, pos))
pos += 8
bs.code += isa.add(int_regs[ints], 8)
elif type is type_impl.Float:
floats -= 1
bs.code += isa.movsd(float_regs[floats],
MemRef(registers.rsp, pos))
pos += 8
elif type is type_impl.Str:
ints -= 1
bs.code += isa.mov(int_regs[ints],
MemRef(registers.rsp, pos))
bs.code += isa.test(int_regs[ints], 1)
short = bs.program.get_unique_label()
end = bs.program.get_unique_label()
bs.code += isa.jnz(short)
# long
bs.code += isa.add(int_regs[ints], 8)
bs.code += isa.jmp(end)
bs.code += short
# short
bs.code += isa.shr(MemRef(registers.rsp, pos), 8)
bs.code += isa.lea(
int_regs[ints],
MemRef(registers.rsp, pos, data_size=None))
bs.code += end
pos += 8
else:
assert False, type
assert bs.flow.stack.pop() is self
bs.code += isa.mov(registers.rbx,
ctypes.cast(self.func, ctypes.c_void_p).value)
bs.code += isa.mov(registers.r12, registers.rsp)
bs.code += isa.and_(registers.rsp, -16)
bs.code += isa.mov(registers.rax, floats)
bs.code += isa.call(registers.rbx)
bs.code += isa.mov(registers.rsp, registers.r12)
bs.code += isa.add(registers.rsp, pos)
bs.code += isa.push(registers.rax)
bs.flow.stack.append(type_impl.Int)
def pop(bs, regs):
res = []
type = bs.flow.stack.pop()
for i in xrange(type.size):
reg = regs.pop()
bs.code += isa.pop(reg)
res.append(reg)
return type, res
def push(bs, (type, regs)):
assert type.size == len(regs)
for reg in reversed(regs):
bs.code += isa.push(reg)
bs.flow.stack.append(type)
good_regs = [
registers.rbx, registers.rcx, registers.rdx, registers.rdi, registers.rsi,
registers.r9, registers.r10, registers.r11, registers.r12
]
def swap(bs):
regs = list(good_regs)
a = pop(bs, regs)
b = pop(bs, regs)
push(bs, a)
push(bs, b)
reg = regs.pop()
bs.code += isa.mov(reg, MemRef(registers.rsp, 8*i))
res.append(reg)
return type, res
def pop(bs, regs):
res = []
type = bs.flow.stack.pop()
for i in xrange(type.size):
reg = regs.pop()
bs.code += isa.pop(reg)
res.append(reg)
return type, res
def push(bs, (type, regs)):
assert type.size == len(regs)
for reg in reversed(regs):
bs.code += isa.push(reg)
bs.flow.stack.append(type)
good_regs = [registers.rbx, registers.rcx, registers.rdx, registers.rdi, registers.rsi, registers.r9, registers.r10, registers.r11, registers.r12]
def swap(bs):
regs = list(good_regs)
a = pop(bs, regs)
b = pop(bs, regs)
push(bs, a)
push(bs, b)
def rev3(bs):
regs = list(good_regs)
a = pop(bs, regs)
b = pop(bs, regs)
def Test():
prgm = env.Program()
code = prgm.get_stream()
proc = env.Processor()
params = env.ExecParams()
params.p1 = 3
lbl1 = prgm.get_label("lbl1")
lbl2 = prgm.get_label("lbl2")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.jne(lbl1))
code.add(x86.ud2())
code.add(x86.ud2())
code.add(lbl1)
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.je(lbl2))
code.add(x86.add(prgm.gp_return, 12))
code.add(lbl2)
prgm.add(code)
#prgm.print_code(pro = True, epi = True, hex = True)
ret = proc.execute(prgm, mode='int')
print "ret", ret
assert (ret == 12)
prgm.reset()
code.reset()
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.jne(28))
code.add(x86.ud2())
code.add(x86.ud2())
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.je(37))
code.add(x86.add(prgm.gp_return, 12))
prgm.add(code)
prgm.print_code(hex=True, pro=True, epi=True)
ret = proc.execute(prgm)
print "ret", ret
assert (ret == 12)
prgm.reset()
code.reset()
call_lbl = prgm.get_label("call_fn")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.call(call_lbl))
code.add(x86.jmp(prgm.lbl_epilogue))
code.add(x86.mov(prgm.gp_return, 75))
code.add(x86.mov(prgm.gp_return, 42))
code.add(call_lbl)
code.add(x86.mov(prgm.gp_return, 15))
code.add(x86.ret())
prgm.add(code)
prgm.print_code()
ret = proc.execute(prgm, mode='int')
print "ret", ret
assert (ret == 15)
prgm.reset()
code.reset()
fwd_lbl = prgm.get_label("FORWARD")
bck_lbl = prgm.get_label("BACKWARD")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(bck_lbl)
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.jne(fwd_lbl))
r_foo = prgm.acquire_register()
for i in xrange(0, 65):
code.add(x86.pop(r_foo))
prgm.release_register(r_foo)
code.add(fwd_lbl)
prgm.add(code)
ret = proc.execute(prgm, mode='int')
print "ret", ret
assert (ret == 0)
prgm.reset()
code.reset()
loop_lbl = prgm.get_label("LOOP")
out_lbl = prgm.get_label("OUT")
skip_lbl = prgm.get_label("SKIP")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(loop_lbl)
r_foo = prgm.acquire_register()
for i in range(0, 1):
for i in xrange(0, 24):
code.add(x86.add(r_foo, MemRef(rsp, 4)))
code.add(x86.add(prgm.gp_return, 4))
code.add(x86.cmp(prgm.gp_return, 20))
code.add(x86.je(out_lbl))
for i in xrange(0, 24):
code.add(x86.add(r_foo, MemRef(rsp, 4)))
code.add(x86.cmp(prgm.gp_return, 32))
code.add(x86.jne(loop_lbl))
code.add(out_lbl)
code.add(x86.jmp(skip_lbl))
for i in xrange(0, 2):
code.add(x86.add(r_foo, MemRef(rsp, 4)))
code.add(skip_lbl)
prgm.release_register(r_foo)
prgm.add(code)
ret = proc.execute(prgm, mode='int')
print "ret", ret
assert (ret == 20)
prgm.reset()
code.reset()
r_tmp = prgm.acquire_registers(2)
loop_lbl = prgm.get_label("LOOP")
else_lbl = prgm.get_label("ELSE")
finish_lbl = prgm.get_label("finish")
code.add(x86.mov(prgm.gp_return, 0))
code.add(x86.mov(r_tmp[0], 0))
code.add(loop_lbl)
code.add(x86.add(prgm.gp_return, 1))
code.add(x86.cmp(prgm.gp_return, 16))
code.add(x86.jge(finish_lbl))
code.add(x86.add(r_tmp[0], prgm.gp_return))
code.add(x86.mov(r_tmp[1], r_tmp[0]))
code.add(x86.and_(r_tmp[1], 0x1))
code.add(x86.jnz(else_lbl))
code.add(x86.add(r_tmp[0], 1))
code.add(x86.jmp(loop_lbl))
code.add(else_lbl)
code.add(x86.add(r_tmp[0], r_tmp[1]))
code.add(x86.jmp(loop_lbl))
code.add(finish_lbl)
code.add(x86.mov(prgm.gp_return, r_tmp[0]))
prgm.release_registers(r_tmp)
prgm.add(code)
ret = proc.execute(prgm, mode='int')
print "ret", ret
assert (ret == 135)
prgm.reset()
code.reset()
loop_lbl = prgm.get_label("LOOP")
r_one = prgm.acquire_register()
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.xor(rcx, rcx))
code.add(x86.mov(r_one, 1))
code.add(loop_lbl)
code.add(x86.inc(prgm.gp_return))
code.add(x86.cmp(prgm.gp_return, 7))
code.add(x86.cmove(rcx, r_one))
code.add(x86.jrcxz(loop_lbl))
prgm.release_register(r_one)
prgm.add(code)
prgm.print_code(hex=True)
ret = proc.execute(prgm, mode='int')
print "ret", ret
assert (ret == 7)
prgm.reset()
code.reset()
r_tmp = prgm.acquire_register()
code.add(x86.mov(prgm.gp_return, rdi))
code.add(x86.xor(r_tmp, r_tmp))
code.add(x86.mov(r_tmp, -1))
code.add(x86.mov(cl, 1))
code.add(x86.shld(prgm.gp_return, r_tmp, cl))
prgm.release_register(r_tmp)
prgm.add(code)
ret = proc.execute(prgm, params=params, mode='int')
print "ret", ret
assert (ret == 7)
prgm.reset()
code.reset()
code.add(x86.add(eax, 200))
code.add(x86.xor(eax, eax))
code.add(x86.add(al, 32))
code.add(x86.add(bl, 32))
code.add(x86.xor(bl, bl))
code.add(x86.mov(dil, al))
code.add(x86.add(rdi, 0))
code.add(x86.mov(eax, edi))
code.add(x86.mov(al, dil))
code.add(x86.imul(ax, ax, 4))
code.add(x86.imul(eax, ebx, 10))
code.add(x86.mov(cx, 1232))
code.add(x86.sub(ax, cx))
code.add(x86.xor(eax, eax))
code.add(x86.mov(eax, ebx))
code.add(x86.clc())
code.add(x86.rcl(eax, 1))
code.add(x86.rcr(eax, 1))
prgm.add(code)
#ret = proc.execute(prgm, debug = True, params = params)
id1 = proc.execute(prgm, params=params, mode='int', async=True)
id2 = proc.execute(prgm, params=params, mode='int', async=True)
ret = proc.execute(prgm, params=params, mode='int')
print "Return main thread: %d" % (ret)
assert (ret == 1280)
ret = proc.join(id1)
print "Return thread 1: %d" % (ret)
assert (ret == 1280)
ret = proc.join(id2)
print "Return thread 2: %d" % (ret)
assert (ret == 1280)
prgm.reset()
code.reset()
code.add(x86.fldpi())
code.add(x86.pxor(xmm0, xmm0))
code.add(x86.fld1())
code.add(x86.fadd(st0, st0))
code.add(x86.fmulp())
code.add(x86.fsin())
code.add(x86.fcos())
code.add(x86.fld1())
code.add(x86.fyl2xp1())
# x86_64 now uses xmm0 to return floats, not st0. So here, just make room
# on the stack, convert the FP result to an int and store it on the stack,
# then pop it into rax, the int return register.
code.add(x86.push(prgm.gp_return))
code.add(x86.fistp(MemRef(rsp)))
code.add(x86.pop(prgm.gp_return))
prgm.add(code)
prgm.print_code(hex=True)
ret = proc.execute(prgm, params=params, mode='int')
assert (ret == 1)
print "Return main thread: %d" % (ret)
prgm.reset()
code.reset()
lbl_ok = prgm.get_label("OK")
code.add(x86.emms())
code.add(x86.movd(xmm0, edi))
code.add(x86.mov(ebx, edi))
code.add(x86.cmp(ebx, 3))
code.add(x86.je(lbl_ok))
code.add(x86.movd(eax, xmm0))
code.add(x86.cmp(eax, 3))
code.add(x86.je(lbl_ok))
code.add(x86.ud2())
code.add(lbl_ok)
code.add(x86.xor(eax, eax))
code.add(x86.movd(xmm1, ebx))
code.add(x86.paddq(xmm0, xmm1))
code.add(x86.pextrw(ecx, xmm0, 0))
code.add(x86.pxor(mm1, mm1))
code.add(x86.pinsrw(mm1, ecx, 0))
code.add(x86.movq2dq(xmm0, mm1))
code.add(x86.movdq2q(mm2, xmm0))
code.add(x86.movd(edx, mm2))
code.add(x86.movd(xmm5, edx))
code.add(x86.movd(ecx, xmm5))
code.add(x86.pxor(xmm6, xmm6))
code.add(x86.pinsrw(xmm6, ecx, 0))
code.add(x86.movd(eax, xmm6))
prgm.add(code)
prgm.print_code(hex=True)
ret = proc.execute(prgm, params=params, mode='int')
print "Return main thread: %d" % (ret)
assert (ret == 6)
prgm.reset()
code.reset()
code.add(x86.mov(edx, 0x1234))
code.add(x86.mov(eax, 0xFFFF))
code.add(x86.xchg(edx, eax))
prgm.add(code)
prgm.print_code(hex=True)
ret = proc.execute(prgm, params=params)
print "ret:", ret
assert (ret == 0x1234)
prgm.reset()
code.reset()
code.add(x86.mov(prgm.gp_return, rsp))
code.add(x86.pushfq())
code.add(x86.sub(prgm.gp_return, rsp))
code.add(x86.add(rsp, prgm.gp_return))
prgm.add(code)
prgm.print_code(hex=True)
ret = proc.execute(prgm, params=params)
print "ret:", ret
assert (ret == 8)
prgm.reset()
code.reset()
data = extarray.extarray('H', xrange(0, 16))
r_128 = prgm.acquire_register(reg_type=XMMRegister)
regs = prgm.acquire_registers(4)
code.add(x86.mov(regs[0], data.buffer_info()[0]))
code.add(x86.movaps(r_128, MemRef(regs[0], data_size=128)))
code.add(x86.pextrw(prgm.gp_return, r_128, 0))
code.add(x86.pextrw(regs[1], r_128, 1))
code.add(x86.pextrw(regs[2], r_128, 2))
code.add(x86.pextrw(regs[3], r_128, 3))
code.add(x86.shl(regs[1], 16))
code.add(x86.shl(regs[2], 32))
code.add(x86.shl(regs[3], 48))
code.add(x86.or_(prgm.gp_return, regs[1]))
code.add(x86.or_(prgm.gp_return, regs[2]))
code.add(x86.or_(prgm.gp_return, regs[3]))
prgm.release_register(r_128)
prgm.release_registers(regs)
prgm.add(code)
prgm.print_code()
ret = proc.execute(prgm, mode='int')
print "ret %x" % ret
assert (ret == 0x0003000200010000)
prgm.reset()
code.reset()
util.load_float(code, xmm0, 3.14159)
prgm.add(code)
ret = proc.execute(prgm, mode='fp')
print "ret", ret
assert (ret - 3.14159 < 0.00001)
return
def Test():
code = env.InstructionStream()
proc = env.Processor()
params = env.ExecParams()
params.p1 = 3
mr32 = MemRef(rbp, 16, data_size=32)
mr8 = MemRef(rbp, 16, data_size=8)
lbl1 = code.get_label("lbl1")
lbl2 = code.get_label("lbl2")
code.add(x86.xor(rax, rax))
code.add(x86.cmp(rax, 1))
code.add(x86.jne(lbl1))
code.add(x86.ud2())
code.add(x86.ud2())
code.add(lbl1)
code.add(x86.cmp(rax, 1))
code.add(x86.je(lbl2))
code.add(x86.add(rax, 12))
code.add(lbl2)
# printer.PrintInstructionStream(code, printer.x86_64_Nasm(function_name="foobar"))
ret = proc.execute(code)
print "ret", ret
assert (ret == 12)
print "W00T"
code.reset()
code.add(x86.xor(rax, rax))
code.add(x86.cmp(rax, 1))
code.add(x86.jne(28))
code.add(x86.ud2())
code.add(x86.ud2())
code.add(x86.cmp(eax, 1))
code.add(x86.je(37))
code.add(x86.add(rax, 12))
code.print_code(hex=True, pro=True, epi=True)
print "a"
ret = proc.execute(code)
print "b"
print "ret", ret
assert (ret == 12)
print "w00t 2"
code.reset()
call_lbl = code.get_label("call_fn")
code.add(x86.xor(rax, rax))
code.add(x86.call(call_lbl))
code.add(x86.jmp(code.lbl_epilogue))
code.add(x86.mov(rax, 75))
code.add(x86.mov(rax, 42))
code.add(call_lbl)
code.add(x86.mov(rax, 15))
code.add(x86.ret())
code.print_code()
ret = proc.execute(code)
print "ret", ret
assert (ret == 15)
code.reset()
fwd_lbl = code.get_label("FORWARD")
bck_lbl = code.get_label("BACKWARD")
code.add(x86.xor(rax, rax))
code.add(bck_lbl)
code.add(x86.cmp(rax, 1))
code.add(x86.jne(fwd_lbl))
for i in xrange(0, 65):
code.add(x86.pop(r15))
code.add(fwd_lbl)
ret = proc.execute(code, mode='int')
assert (ret == 0)
code.reset()
loop_lbl = code.get_label("LOOP")
out_lbl = code.get_label("OUT")
skip_lbl = code.get_label("SKIP")
code.add(x86.xor(rax, rax))
code.add(loop_lbl)
for i in range(0, 1):
for i in xrange(0, 24):
code.add(x86.add(r15, MemRef(rsp, 4)))
code.add(x86.add(rax, 4))
code.add(x86.cmp(rax, 20))
code.add(x86.je(out_lbl))
for i in xrange(0, 24):
code.add(x86.add(r15, MemRef(rsp, 4)))
code.add(x86.cmp(rax, 32))
code.add(x86.jne(loop_lbl))
code.add(out_lbl)
code.add(x86.jmp(skip_lbl))
for i in xrange(0, 2):
code.add(x86.add(r15, MemRef(rsp, 4)))
code.add(skip_lbl)
ret = proc.execute(code, mode='int')
print "ret", ret
assert (ret == 20)
code.reset()
loop_lbl = code.get_label("LOOP")
else_lbl = code.get_label("ELSE")
finish_lbl = code.get_label("finish")
code.add(x86.mov(rax, 0))
code.add(x86.mov(rdx, 0))
code.add(loop_lbl)
code.add(x86.add(rax, 1))
code.add(x86.cmp(rax, 16))
code.add(x86.jge(finish_lbl))
code.add(x86.add(rdx, rax))
code.add(x86.mov(r8, rdx))
code.add(x86.and_(r8, 0x1))
code.add(x86.jnz(else_lbl))
code.add(x86.add(rdx, 1))
code.add(x86.jmp(loop_lbl))
code.add(else_lbl)
code.add(x86.add(rdx, r8))
code.add(x86.jmp(loop_lbl))
code.add(finish_lbl)
code.add(x86.mov(rax, rdx))
ret = proc.execute(code, mode='int')
print "ret", ret
assert (ret == 135)
code.reset()
loop_lbl = code.get_label("LOOP")
code.add(x86.xor(rax, rax))
code.add(x86.xor(rcx, rcx))
code.add(x86.mov(rdx, 1))
code.add(loop_lbl)
code.add(x86.inc(rax))
code.add(x86.cmp(rax, 7))
code.add(x86.cmove(rcx, rdx))
code.add(x86.jrcxz(loop_lbl))
code.print_code(hex=True)
ret = proc.execute(code, mode='int')
print "ret", ret
assert (ret == 7)
code.reset()
code.add(x86.mov(rax, MemRef(rbp, 16)))
code.add(x86.xor(rbx, rbx))
code.add(x86.mov(rbx, -1))
code.add(x86.mov(cl, 1))
code.add(x86.shld(rax, rbx, cl))
code.print_code(hex=True)
ret = proc.execute(code, params=params, mode='int')
print "ret", ret
assert (ret == 7)
# code.reset()
# code.add(x86.add(eax, 200))
# code.add(x86.xor(eax, eax))
# code.add(x86.add(al, 32))
# code.add(x86.add(bl, 32))
# code.add(x86.xor(bl, bl))
# code.add(x86.mov(mr8, al))
# code.add(x86.add(mr32, 0))
# code.add(x86.mov(eax, mr32))
# code.add(x86.mov(al, mr8))
#
# code.add(x86.imul(ax, ax, 4))
# code.add(x86.imul(eax, ebx, 10))
# code.add(x86.mov(cx, 1232))
# code.add(x86.sub(ax, cx))
# code.add(x86.xor(eax,eax))
# code.add(x86.mov(eax,ebx))
# code.add(x86.clc())
# code.add(x86.rcl(eax, 1))
# code.add(x86.rcr(eax, 1))
# #ret = proc.execute(code, debug = True, params = params)
# id1 = proc.execute(code, params = params, mode = 'int', async = True)
# id2 = proc.execute(code, params = params, mode = 'int', async = True)
# ret = proc.execute(code, params = params, mode = 'int')
# print "Return main thread: %d" % (ret)
# assert(ret == 1280)
# ret = proc.join(id1)
# print "Return thread 1: %d" % (ret)
# assert(ret == 1280)
# ret = proc.join(id2)
# print "Return thread 2: %d" % (ret)
# assert(ret == 1280)
code.reset()
code.add(x86.fldpi())
code.add(x86.pxor(xmm0, xmm0))
code.add(x86.fld1())
code.add(x86.fadd(st0, st0))
code.add(x86.fmulp())
code.add(x86.fsin())
code.add(x86.fcos())
code.add(x86.fld1())
code.add(x86.fyl2xp1())
# x86_64 now uses xmm0 to return floats, not st0. So here, just make room
# on the stack, convert the FP result to an int and store it on the stack,
# then pop it into rax, the int return register.
code.add(x86.push(rax))
code.add(x86.fistp(MemRef(rsp)))
code.add(x86.pop(rax))
code.print_code(hex=True)
ret = proc.execute(code, params=params, mode='int')
assert (ret == 1)
print "Return main thread: %d" % (ret)
code.reset()
lbl_ok = code.get_label("OK")
code.add(x86.emms())
code.add(x86.movd(xmm0, mr32))
code.add(x86.mov(ebx, mr32))
code.add(x86.cmp(ebx, 3))
code.add(x86.je(lbl_ok))
code.add(x86.movd(eax, xmm0))
code.add(x86.cmp(eax, 3))
code.add(x86.je(lbl_ok))
code.add(x86.ud2())
code.add(lbl_ok)
code.add(x86.xor(eax, eax))
code.add(x86.movd(xmm1, ebx))
code.add(x86.paddq(xmm0, xmm1))
code.add(x86.pextrw(ecx, xmm0, 0))
code.add(x86.pinsrw(mm1, ecx, 0))
code.add(x86.movq2dq(xmm0, mm1))
code.add(x86.movdq2q(mm2, xmm0))
code.add(x86.movd(edx, mm2))
code.add(x86.movd(xmm5, edx))
code.add(x86.movd(ecx, xmm5))
code.add(x86.pinsrw(xmm6, ecx, 0))
code.add(x86.movd(eax, xmm6))
code.print_code(hex=True)
ret = proc.execute(code, params=params, mode='int')
print "Return main thread: %d" % (ret)
assert (ret == 6)
code.reset()
# Test immediate size encodings
code.add(x86.add(eax, 300))
code.add(x86.add(ax, 300))
code.add(x86.add(ax, 30))
code.add(x86.mov(eax, 16))
code.add(x86.mov(eax, 300))
code.reset()
code.add(x86.add(eax, 0xDEADBEEF))
code.add(x86.add(ebx, 0xDEADBEEF))
code.print_code(hex=True)
# Try the LOCK prefix
code.reset()
code.add(x86.xor(eax, eax))
code.add(x86.add(mr32, eax))
code.add(x86.add(mr32, eax, lock=True))
#code.print_code(hex = True)
proc.execute(code, params=params)
code.reset()
code.add(x86.mov(edx, 0x1234))
code.add(x86.mov(eax, 0xFFFF))
code.add(x86.xchg(edx, eax))
code.print_code(hex=True)
ret = proc.execute(code, params=params)
print "ret:", ret
assert (ret == 0x1234)
code.reset()
code.add(x86.mov(rax, rsp))
code.add(x86.pushfq())
code.add(x86.sub(rax, rsp))
code.add(x86.add(rsp, rax))
code.print_code(hex=True)
ret = proc.execute(code, params=params)
print "ret:", ret
assert (ret == 8)
code.reset()
data = extarray.extarray('H', xrange(0, 16))
# code.add(x86.push(rdi))
code.add(x86.mov(rdi, data.buffer_info()[0]))
code.add(x86.movaps(xmm1, MemRef(rdi, data_size=128)))
code.add(x86.pextrw(rax, xmm1, 0))
code.add(x86.pextrw(rbx, xmm1, 1))
code.add(x86.pextrw(rcx, xmm1, 2))
code.add(x86.pextrw(rdx, xmm1, 3))
code.add(x86.shl(rbx, 16))
code.add(x86.shl(rcx, 32))
code.add(x86.shl(rdx, 48))
code.add(x86.or_(rax, rbx))
code.add(x86.or_(rax, rcx))
code.add(x86.or_(rax, rdx))
# code.add(x86.pop(rdi))
code.print_code(hex=True)
ret = proc.execute(code, mode='int')
print "ret %x" % ret
assert (ret == 0x0003000200010000)
code.reset()
L1 = code.get_label("L1")
code.add(x86.xor(rax, rax))
code.add(x86.mov(rcx, 3))
code.add(L1)
code.add(x86.add(rax, 1))
code.add(x86.loop(L1))
code.print_code(hex=True)
ret = proc.execute(code, mode='int')
print "ret %x" % ret
assert (ret == 0x03)
return
def _(bs):
type = type_impl.id_to_type[value]
for i in xrange(type.size):
bs.code += isa.push(MemRef(ctypes.cast(self.return_area, ctypes.c_void_p).value + i))
bs.flow.stack.append(type)
assert bs.flow.stack[-1].size == 0
def _(bs):
type = type_impl.id_to_type[value]
for i in reversed(xrange(type.size)):
bs.code += isa.push(MemRef(registers.r12, i * 8 + 8))
bs.flow.stack.append(type)
def _(bs):
type = type_impl.id_to_type[value]
for i in reversed(xrange(type.size)):
bs.code += isa.push(MemRef(registers.r12, i * 8 + 8))
bs.flow.stack.append(type)
def Test():
prgm = env.Program()
code = prgm.get_stream()
proc = env.Processor()
params = env.ExecParams()
params.p1 = 3
lbl1 = prgm.get_label("lbl1")
lbl2 = prgm.get_label("lbl2")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.jne(lbl1))
code.add(x86.ud2())
code.add(x86.ud2())
code.add(lbl1)
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.je(lbl2))
code.add(x86.add(prgm.gp_return, 12))
code.add(lbl2)
prgm.add(code)
#prgm.print_code(pro = True, epi = True, hex = True)
ret = proc.execute(prgm, mode = 'int')
print "ret", ret
assert(ret == 12)
prgm.reset()
code.reset()
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.jne(28))
code.add(x86.ud2())
code.add(x86.ud2())
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.je(37))
code.add(x86.add(prgm.gp_return, 12))
prgm.add(code)
prgm.print_code(hex = True, pro = True, epi = True)
ret = proc.execute(prgm)
print "ret", ret
assert(ret == 12)
prgm.reset()
code.reset()
call_lbl = prgm.get_label("call_fn")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.call(call_lbl))
code.add(x86.jmp(prgm.lbl_epilogue))
code.add(x86.mov(prgm.gp_return, 75))
code.add(x86.mov(prgm.gp_return, 42))
code.add(call_lbl)
code.add(x86.mov(prgm.gp_return, 15))
code.add(x86.ret())
prgm.add(code)
prgm.print_code()
ret = proc.execute(prgm, mode = 'int')
print "ret", ret
assert(ret == 15)
prgm.reset()
code.reset()
fwd_lbl = prgm.get_label("FORWARD")
bck_lbl = prgm.get_label("BACKWARD")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(bck_lbl)
code.add(x86.cmp(prgm.gp_return, 1))
code.add(x86.jne(fwd_lbl))
r_foo = prgm.acquire_register()
for i in xrange(0, 65):
code.add(x86.pop(r_foo))
prgm.release_register(r_foo)
code.add(fwd_lbl)
prgm.add(code)
ret = proc.execute(prgm, mode = 'int')
print "ret", ret
assert(ret == 0)
prgm.reset()
code.reset()
loop_lbl = prgm.get_label("LOOP")
out_lbl = prgm.get_label("OUT")
skip_lbl = prgm.get_label("SKIP")
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(loop_lbl)
r_foo = prgm.acquire_register()
for i in range(0, 1):
for i in xrange(0, 24):
code.add(x86.add(r_foo, MemRef(rsp, 4)))
code.add(x86.add(prgm.gp_return, 4))
code.add(x86.cmp(prgm.gp_return, 20))
code.add(x86.je(out_lbl))
for i in xrange(0, 24):
code.add(x86.add(r_foo, MemRef(rsp, 4)))
code.add(x86.cmp(prgm.gp_return, 32))
code.add(x86.jne(loop_lbl))
code.add(out_lbl)
code.add(x86.jmp(skip_lbl))
for i in xrange(0, 2):
code.add(x86.add(r_foo, MemRef(rsp, 4)))
code.add(skip_lbl)
prgm.release_register(r_foo)
prgm.add(code)
ret = proc.execute(prgm, mode = 'int')
print "ret", ret
assert(ret == 20)
prgm.reset()
code.reset()
r_tmp = prgm.acquire_registers(2)
loop_lbl = prgm.get_label("LOOP")
else_lbl = prgm.get_label("ELSE")
finish_lbl = prgm.get_label("finish")
code.add(x86.mov(prgm.gp_return, 0))
code.add(x86.mov(r_tmp[0], 0))
code.add(loop_lbl)
code.add(x86.add(prgm.gp_return, 1))
code.add(x86.cmp(prgm.gp_return, 16))
code.add(x86.jge(finish_lbl))
code.add(x86.add(r_tmp[0], prgm.gp_return))
code.add(x86.mov(r_tmp[1], r_tmp[0]))
code.add(x86.and_(r_tmp[1], 0x1))
code.add(x86.jnz(else_lbl))
code.add(x86.add(r_tmp[0], 1))
code.add(x86.jmp(loop_lbl))
code.add(else_lbl)
code.add(x86.add(r_tmp[0], r_tmp[1]))
code.add(x86.jmp(loop_lbl))
code.add(finish_lbl)
code.add(x86.mov(prgm.gp_return, r_tmp[0]))
prgm.release_registers(r_tmp)
prgm.add(code)
ret = proc.execute(prgm, mode = 'int')
print "ret", ret
assert(ret == 135)
prgm.reset()
code.reset()
loop_lbl = prgm.get_label("LOOP")
r_one = prgm.acquire_register()
code.add(x86.xor(prgm.gp_return, prgm.gp_return))
code.add(x86.xor(rcx, rcx))
code.add(x86.mov(r_one, 1))
code.add(loop_lbl)
code.add(x86.inc(prgm.gp_return))
code.add(x86.cmp(prgm.gp_return, 7))
code.add(x86.cmove(rcx, r_one))
code.add(x86.jrcxz(loop_lbl))
prgm.release_register(r_one)
prgm.add(code)
prgm.print_code(hex = True)
ret = proc.execute(prgm, mode = 'int')
print "ret", ret
assert(ret == 7)
prgm.reset()
code.reset()
r_tmp = prgm.acquire_register()
code.add(x86.mov(prgm.gp_return, rdi))
code.add(x86.xor(r_tmp, r_tmp))
code.add(x86.mov(r_tmp, -1))
code.add(x86.mov(cl, 1))
code.add(x86.shld(prgm.gp_return, r_tmp, cl))
prgm.release_register(r_tmp)
prgm.add(code)
ret = proc.execute(prgm, params = params, mode = 'int')
print "ret", ret
assert(ret == 7)
prgm.reset()
code.reset()
code.add(x86.add(eax, 200))
code.add(x86.xor(eax, eax))
code.add(x86.add(al, 32))
code.add(x86.add(bl, 32))
code.add(x86.xor(bl, bl))
code.add(x86.mov(dil, al))
code.add(x86.add(rdi, 0))
code.add(x86.mov(eax, edi))
code.add(x86.mov(al, dil))
code.add(x86.imul(ax, ax, 4))
code.add(x86.imul(eax, ebx, 10))
code.add(x86.mov(cx, 1232))
code.add(x86.sub(ax, cx))
code.add(x86.xor(eax,eax))
code.add(x86.mov(eax,ebx))
code.add(x86.clc())
code.add(x86.rcl(eax, 1))
code.add(x86.rcr(eax, 1))
prgm.add(code)
#ret = proc.execute(prgm, debug = True, params = params)
id1 = proc.execute(prgm, params = params, mode = 'int', async = True)
id2 = proc.execute(prgm, params = params, mode = 'int', async = True)
ret = proc.execute(prgm, params = params, mode = 'int')
print "Return main thread: %d" % (ret)
assert(ret == 1280)
ret = proc.join(id1)
print "Return thread 1: %d" % (ret)
assert(ret == 1280)
ret = proc.join(id2)
print "Return thread 2: %d" % (ret)
assert(ret == 1280)
prgm.reset()
code.reset()
code.add(x86.fldpi())
code.add(x86.pxor(xmm0, xmm0))
code.add(x86.fld1())
code.add(x86.fadd(st0, st0))
code.add(x86.fmulp())
code.add(x86.fsin())
code.add(x86.fcos())
code.add(x86.fld1())
code.add(x86.fyl2xp1())
# x86_64 now uses xmm0 to return floats, not st0. So here, just make room
# on the stack, convert the FP result to an int and store it on the stack,
# then pop it into rax, the int return register.
code.add(x86.push(prgm.gp_return))
code.add(x86.fistp(MemRef(rsp)))
code.add(x86.pop(prgm.gp_return))
prgm.add(code)
prgm.print_code(hex = True)
ret = proc.execute(prgm, params = params, mode = 'int')
assert(ret == 1)
print "Return main thread: %d" % (ret)
prgm.reset()
code.reset()
lbl_ok = prgm.get_label("OK")
code.add(x86.emms())
code.add(x86.movd(xmm0, edi))
code.add(x86.mov(ebx, edi))
code.add(x86.cmp(ebx, 3))
code.add(x86.je(lbl_ok))
code.add(x86.movd(eax, xmm0))
code.add(x86.cmp(eax, 3))
code.add(x86.je(lbl_ok))
code.add(x86.ud2())
code.add(lbl_ok)
code.add(x86.xor(eax, eax))
code.add(x86.movd(xmm1, ebx))
code.add(x86.paddq(xmm0, xmm1))
code.add(x86.pextrw(ecx, xmm0, 0))
code.add(x86.pxor(mm1, mm1))
code.add(x86.pinsrw(mm1, ecx, 0))
code.add(x86.movq2dq(xmm0, mm1))
code.add(x86.movdq2q(mm2, xmm0))
code.add(x86.movd(edx,mm2))
code.add(x86.movd(xmm5,edx))
code.add(x86.movd(ecx, xmm5))
code.add(x86.pxor(xmm6, xmm6))
code.add(x86.pinsrw(xmm6, ecx, 0))
code.add(x86.movd(eax, xmm6))
prgm.add(code)
prgm.print_code(hex = True)
ret = proc.execute(prgm, params = params, mode = 'int')
print "Return main thread: %d" % (ret)
assert(ret == 6)
prgm.reset()
code.reset()
code.add(x86.mov(edx, 0x1234))
code.add(x86.mov(eax, 0xFFFF))
code.add(x86.xchg(edx, eax))
prgm.add(code)
prgm.print_code(hex = True)
ret = proc.execute(prgm, params = params)
print "ret:", ret
assert(ret == 0x1234)
prgm.reset()
code.reset()
code.add(x86.mov(prgm.gp_return, rsp))
code.add(x86.pushfq())
code.add(x86.sub(prgm.gp_return, rsp))
code.add(x86.add(rsp, prgm.gp_return))
prgm.add(code)
prgm.print_code(hex = True)
ret = proc.execute(prgm, params = params)
print "ret:", ret
assert(ret == 8)
prgm.reset()
code.reset()
data = extarray.extarray('H', xrange(0, 16))
r_128 = prgm.acquire_register(reg_type = XMMRegister)
regs = prgm.acquire_registers(4)
code.add(x86.mov(regs[0], data.buffer_info()[0]))
code.add(x86.movaps(r_128, MemRef(regs[0], data_size = 128)))
code.add(x86.pextrw(prgm.gp_return, r_128, 0))
code.add(x86.pextrw(regs[1], r_128, 1))
code.add(x86.pextrw(regs[2], r_128, 2))
code.add(x86.pextrw(regs[3], r_128, 3))
code.add(x86.shl(regs[1], 16))
code.add(x86.shl(regs[2], 32))
code.add(x86.shl(regs[3], 48))
code.add(x86.or_(prgm.gp_return, regs[1]))
code.add(x86.or_(prgm.gp_return, regs[2]))
code.add(x86.or_(prgm.gp_return, regs[3]))
prgm.release_register(r_128)
prgm.release_registers(regs)
prgm.add(code)
prgm.print_code()
ret = proc.execute(prgm, mode = 'int')
print "ret %x" % ret
assert(ret == 0x0003000200010000)
prgm.reset()
code.reset()
util.load_float(code, xmm0, 3.14159)
prgm.add(code)
ret = proc.execute(prgm, mode = 'fp')
print "ret", ret
assert(ret - 3.14159 < 0.00001)
return
