def CALL_METHOD(decompiler, argc):
pop = decompiler.stack.pop
args = []
for i in range(argc):
args.append(pop())
args.reverse()
method = pop()
return ast.CallFunc(method, args)
def _call_function(decompiler, args, star=None, star2=None):
tos = decompiler.stack.pop()
if isinstance(tos, ast.GenExpr):
assert len(args) == 1 and star is None and star2 is None
genexpr = tos
qual = genexpr.code.quals[0]
assert isinstance(qual.iter, ast.Name)
assert qual.iter.name in ('.0', '[outmost-iterable]')
qual.iter = args[0]
return genexpr
else: return ast.CallFunc(tos, args, star, star2)
def CALL_METHOD(decompiler, argc):
pop = decompiler.stack.pop
args = []
if argc >= 256:
kwargc = argc // 256
argc = argc % 256
for i in range(kwargc):
v = pop()
k = pop()
assert isinstance(k, ast.Const)
k = k.value # ast.Name(k.value)
args.append(ast.Keyword(k, v))
for i in range(argc):
args.append(pop())
args.reverse()
method = pop()
return ast.CallFunc(method, args)
def CALL_FUNCTION(decompiler, argc, star=None, star2=None):
pop = decompiler.stack.pop
kwarg, posarg = divmod(argc, 256)
args = []
for i in xrange(kwarg):
arg = pop()
key = pop().value
args.append(ast.Keyword(key, arg))
for i in xrange(posarg): args.append(pop())
args.reverse()
tos = pop()
if isinstance(tos, ast.GenExpr):
assert len(args) == 1 and star is None and star2 is None
genexpr = tos
qual = genexpr.code.quals[0]
assert isinstance(qual.iter, ast.Name)
assert qual.iter.name in ('.0', '[outmost-iterable]')
qual.iter = args[0]
return genexpr
else: return ast.CallFunc(tos, args, star, star2)
