def test_instantiate_with_unreasonable_attr():
# It is possible to have in real code the instantiate() function for
# a class be dont-look-inside. This is caused by the code that
# initialize the instance attributes: if one attribute has a strange
# type, the whole function is disabled. Check that it still works.
class MyFakePolicy:
def look_inside_graph(self, graph):
name = graph.name
return not (name.startswith('instantiate_') and
name.endswith('A2'))
class A1:
pass
class A2(A1):
pass
classes = [A1, A2]
def f(n):
x = classes[n]
x()
rtyper = support.annotate(f, [1])
maingraph = rtyper.annotator.translator.graphs[0]
cw = CodeWriter(FakeCPU(rtyper), [FakeJitDriverSD(maingraph)])
cw.find_all_graphs(MyFakePolicy())
cw.make_jitcodes(verbose=True)
#
names = [jitcode.name for jitcode in cw.assembler.indirectcalltargets]
assert len(names) == 1
assert names[0].startswith('instantiate_') and names[0].endswith('A1')
def test_instantiate_with_unreasonable_attr():
# It is possible to have in real code the instantiate() function for
# a class be dont-look-inside. This is caused by the code that
# initialize the instance attributes: if one attribute has a strange
# type, the whole function is disabled. Check that it still works.
class MyFakePolicy:
def look_inside_graph(self, graph):
name = graph.name
return not (name.startswith('instantiate_') and
name.endswith('A2'))
class A1:
pass
class A2(A1):
pass
classes = [A1, A2]
def f(n):
x = classes[n]
x()
rtyper = support.annotate(f, [1])
maingraph = rtyper.annotator.translator.graphs[0]
cw = CodeWriter(FakeCPU(rtyper), [FakeJitDriverSD(maingraph)])
cw.find_all_graphs(MyFakePolicy())
cw.make_jitcodes(verbose=True)
#
names = [jitcode.name for jitcode in cw.assembler.indirectcalltargets]
assert len(names) == 1
assert names[0].startswith('instantiate_') and names[0].endswith('A1')
def test_int_abs():
def f(n):
return abs(n)
rtyper = support.annotate(f, [35])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
#
s = jitdriver_sd.mainjitcode.dump()
assert "inline_call_ir_i <JitCode '_ll_1_int_abs__Signed'>" in s
def test_int_abs():
def f(n):
return abs(n)
rtyper = support.annotate(f, [35])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
#
s = jitdriver_sd.mainjitcode.dump()
assert "inline_call_ir_i <JitCode '_ll_1_int_abs__Signed'>" in s
def test_newlist_negativ():
def f(n):
l = [0] * n
return len(l)
rtyper = support.annotate(f, [-1])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
graphs = cw.find_all_graphs(FakePolicy())
backend_optimizations(rtyper.annotator.translator, graphs=graphs)
cw.make_jitcodes(verbose=True)
s = jitdriver_sd.mainjitcode.dump()
assert 'int_force_ge_zero' in s
assert 'new_array' in s
def test_call():
def ggg(x):
return x * 2
def fff(a, b):
return ggg(b) - ggg(a)
rtyper = support.annotate(fff, [35, 42])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
jitcode = jitdriver_sd.mainjitcode
print jitcode.dump()
[jitcode2] = cw.assembler.descrs
print jitcode2.dump()
assert jitcode is not jitcode2
assert jitcode.name == 'fff'
assert jitcode2.name == 'ggg'
assert 'ggg' in jitcode.dump()
assert lltype.typeOf(jitcode2.fnaddr) == llmemory.Address
assert isinstance(jitcode2.calldescr, FakeCallDescr)
def test_call():
def ggg(x):
return x * 2
def fff(a, b):
return ggg(b) - ggg(a)
rtyper = support.annotate(fff, [35, 42])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
jitcode = jitdriver_sd.mainjitcode
print jitcode.dump()
[jitcode2] = cw.assembler.descrs
print jitcode2.dump()
assert jitcode is not jitcode2
assert jitcode.name == 'fff'
assert jitcode2.name == 'ggg'
assert 'ggg' in jitcode.dump()
assert lltype.typeOf(jitcode2.fnaddr) == llmemory.Address
assert isinstance(jitcode2.calldescr, FakeCallDescr)
def test_instantiate():
class A1:
id = 651
class A2(A1):
id = 652
class B1:
id = 661
class B2(B1):
id = 662
def dont_look(n):
return n + 1
classes = [
(A1, B1),
(A2, B2)
]
def f(n):
x, y = classes[n]
return x().id + y().id + dont_look(n)
rtyper = support.annotate(f, [0])
maingraph = rtyper.annotator.translator.graphs[0]
cw = CodeWriter(FakeCPU(rtyper), [FakeJitDriverSD(maingraph)])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
#
assert len(cw.assembler.indirectcalltargets) == 4
names = [jitcode.name for jitcode in cw.assembler.indirectcalltargets]
for expected in ['A1', 'A2', 'B1', 'B2']:
for name in names:
if name.startswith('instantiate_') and name.endswith(expected):
break
else:
assert 0, "missing instantiate_*_%s in:\n%r" % (expected,
names)
names = set([value for key, value in cw.assembler.list_of_addr2name])
assert 'dont_look' in names
def test_instantiate():
class A1:
id = 651
class A2(A1):
id = 652
class B1:
id = 661
class B2(B1):
id = 662
def dont_look(n):
return n + 1
classes = [
(A1, B1),
(A2, B2)
]
def f(n):
x, y = classes[n]
return x().id + y().id + dont_look(n)
rtyper = support.annotate(f, [0])
maingraph = rtyper.annotator.translator.graphs[0]
cw = CodeWriter(FakeCPU(rtyper), [FakeJitDriverSD(maingraph)])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
#
assert len(cw.assembler.indirectcalltargets) == 4
names = [jitcode.name for jitcode in cw.assembler.indirectcalltargets]
for expected in ['A1', 'A2', 'B1', 'B2']:
for name in names:
if name.startswith('instantiate_') and name.endswith(expected):
break
else:
assert 0, "missing instantiate_*_%s in:\n%r" % (expected,
names)
names = set([value for key, value in cw.assembler.list_of_addr2name])
assert 'dont_look' in names
def test_raw_malloc_and_access():
TP = rffi.CArray(lltype.Signed)
def f(n):
a = lltype.malloc(TP, n, flavor='raw')
a[0] = n
res = a[0]
lltype.free(a, flavor='raw')
return res
rtyper = support.annotate(f, [35])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
#
s = jitdriver_sd.mainjitcode.dump()
assert 'residual_call_ir_i $<* fn _ll_1_raw_malloc_varsize__Signed>' in s
assert 'setarrayitem_raw_i' in s
assert 'getarrayitem_raw_i' in s
assert 'residual_call_ir_v $<* fn _ll_1_raw_free__arrayPtr>' in s
def test_raw_malloc_and_access():
TP = rffi.CArray(lltype.Signed)
def f(n):
a = lltype.malloc(TP, n, flavor='raw')
a[0] = n
res = a[0]
lltype.free(a, flavor='raw')
return res
rtyper = support.annotate(f, [35])
jitdriver_sd = FakeJitDriverSD(rtyper.annotator.translator.graphs[0])
cw = CodeWriter(FakeCPU(rtyper), [jitdriver_sd])
cw.find_all_graphs(FakePolicy())
cw.make_jitcodes(verbose=True)
#
s = jitdriver_sd.mainjitcode.dump()
assert 'residual_call_ir_i $<* fn _ll_1_raw_malloc_varsize__Signed>' in s
assert 'setarrayitem_raw_i' in s
assert 'getarrayitem_raw_i' in s
assert 'residual_call_ir_v $<* fn _ll_1_raw_free__arrayPtr>' in s