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% Regression tests for Scapy regarding fields
############
############
+ Tests on basic fields
#= Field class
#~ core field
#Field("foo", None, fmt="H").i2m(None,0xabcdef)
#assert( _ == b"\xcd\xef" )
#Field("foo", None, fmt="<I").i2m(None,0x12cdef)
#assert( _ == b"\xef\xcd\x12\x00" )
#Field("foo", None, fmt="B").addfield(None, "FOO", 0x12)
#assert( _ == b"FOO\x12" )
#Field("foo", None, fmt="I").getfield(None, b"\x12\x34\x56\x78ABCD")
#assert( _ == ("ABCD",0x12345678) )
#
#= ConditionnalField class
#~ core field
#False
= Simple tests
assert LELongField("test", None).addfield(None, b"", 0x44434241) == b'ABCD\x00\x00\x00\x00'
= MACField class
~ core field
m = MACField("foo", None)
m.i2m(None, None)
assert( _ == b"\x00\x00\x00\x00\x00\x00" )
m.getfield(None, b"\xc0\x01\xbe\xef\xba\xbeABCD")
assert( _ == (b"ABCD","c0:01:be:ef:ba:be") )
m.addfield(None, b"FOO", "c0:01:be:ef:ba:be")
assert( _ == b"FOO\xc0\x01\xbe\xef\xba\xbe" )
= SourceMACField, ARPSourceMACField
conf.route.add(net="1.2.3.4/32", dev=conf.iface)
p = Ether() / ARP(pdst="1.2.3.4")
assert p.src == p.hwsrc == p[ARP].hwsrc == get_if_hwaddr(conf.iface)
conf.route.delt(net="1.2.3.4/32")
= IPField class
~ core field
if WINDOWS:
route_add_loopback()
i = IPField("foo", None)
i.i2m(None, "1.2.3.4")
assert( _ == b"\x01\x02\x03\x04" )
i.i2m(None, "255.255.255.255")
assert( _ == b"\xff\xff\xff\xff" )
i.m2i(None, b"\x01\x02\x03\x04")
assert( _ == "1.2.3.4" )
i.getfield(None, b"\x01\x02\x03\x04ABCD")
assert( _ == (b"ABCD","1.2.3.4") )
i.addfield(None, b"FOO", "1.2.3.4")
assert( _ == b"FOO\x01\x02\x03\x04" )
= SourceIPField
~ core field
defaddr = conf.route.route('0.0.0.0')[1]
class Test(Packet): fields_desc = [SourceIPField("sourceip", None)]
assert Test().sourceip == defaddr
assert Test(raw(Test())).sourceip == defaddr
assert IP(dst="0.0.0.0").src == defaddr
assert IP(raw(IP(dst="0.0.0.0"))).src == defaddr
assert IP(dst="0.0.0.0/31").src == defaddr
assert IP(raw(IP(dst="0.0.0.0/31"))).src == defaddr
#= ByteField
#~ core field
#b = ByteField("foo", None)
#b.i2m("
#b.getfield
############
############
+ Tests on ActionField
= Creation of a layer with ActionField
~ field actionfield
from __future__ import print_function
class TestAction(Packet):
__slots__ = ["_val", "_fld", "_priv1", "_priv2"]
name = "TestAction"
fields_desc = [ ActionField(ByteField("tst", 3), "my_action", priv1=1, priv2=2) ]
def __init__(self, *args, **kargs):
self._val, self._fld, self._priv1, self._priv2 = None, None, None, None
super(TestAction, self).__init__(*args, **kargs)
def my_action(self, val, fld, priv1, priv2):
print("Action (%i)!" % val)
self._val, self._fld, self._priv1, self._priv2 = val, fld, priv1, priv2
= Triggering action
~ field actionfield
t = TestAction()
assert(t._val == t._fld == t._priv1 == t._priv2 == None)
t.tst=42
assert(t._priv1 == 1)
assert(t._priv2 == 2)
assert(t._val == 42)
############
############
+ Tests on FieldLenField
= Creation of a layer with FieldLenField
~ field
class TestFLenF(Packet):
fields_desc = [ FieldLenField("len", None, length_of="str", fmt="B", adjust=lambda pkt,x:x+1),
StrLenField("str", "default", length_from=lambda pkt:pkt.len-1,) ]
= Assembly of an empty packet
~ field
TestFLenF()
raw(_)
_ == b"\x08default"
= Assembly of non empty packet
~ field
TestFLenF(str="123")
raw(_)
_ == b"\x04123"
= Disassembly
~ field
TestFLenF(b"\x04ABCDEFGHIJKL")
_
_.len == 4 and _.str == b"ABC" and Raw in _
= BitFieldLenField test
~ field
class TestBFLenF(Packet):
fields_desc = [ BitFieldLenField("len", None, 4, length_of="str" , adjust=lambda pkt,x:x+1),
BitField("nothing",0xfff, 12),
StrLenField("str", "default", length_from=lambda pkt:pkt.len-1, ) ]
a=TestBFLenF()
raw(a)
assert( _ == b"\x8f\xffdefault" )
a.str=""
raw(a)
assert( _ == b"\x1f\xff" )
TestBFLenF(b"\x1f\xff@@")
assert( _.len == 1 and _.str == b"" and Raw in _ and _[Raw].load == b"@@" )
TestBFLenF(b"\x6f\xffabcdeFGH")
assert( _.len == 6 and _.str == b"abcde" and Raw in _ and _[Raw].load == b"FGH" )
############
############
+ Tests on FieldListField
= Creation of a layer
~ field
class TestFLF(Packet):
name="test"
fields_desc = [ FieldLenField("len", None, count_of="lst", fmt="B"),
FieldListField("lst", None, IntField("elt",0), count_from=lambda pkt:pkt.len)
]
= Assembly of an empty packet
~ field
a = TestFLF()
raw(a)
= Assembly of a non-empty packet
~ field
a = TestFLF()
a.lst = [7,65539]
ls(a)
raw(a)
import struct
_ == struct.pack("!BII", 2,7,65539)
= Disassemble
~ field
import struct
TestFLF(b"\x00\x11\x12")
assert(_.len == 0 and Raw in _ and _[Raw].load == b"\x11\x12")
TestFLF(struct.pack("!BIII",3,1234,2345,12345678))
assert(_.len == 3 and _.lst == [1234,2345,12345678])
= Manipulate
~ field
a = TestFLF(lst=[4])
raw(a)
assert(_ == b"\x01\x00\x00\x00\x04")
a.lst.append(1234)
TestFLF(raw(a))
a.show2()
a.len=7
raw(a)
assert(_ == b"\x07\x00\x00\x00\x04\x00\x00\x04\xd2")
a.len=2
a.lst=[1,2,3,4,5]
TestFLF(raw(a))
assert(Raw in _ and _[Raw].load == b'\x00\x00\x00\x03\x00\x00\x00\x04\x00\x00\x00\x05')
############
############
+ PacketListField
= Create a layer
~ field lengthfield
class TestPLF(Packet):
name="test"
fields_desc=[ FieldLenField("len", None, count_of="plist"),
PacketListField("plist", None, IP, count_from=lambda pkt:pkt.len,) ]
= Test the PacketListField assembly
~ field lengthfield
x=TestPLF()
raw(x)
_ == b"\x00\x00"
= Test the PacketListField assembly 2
~ field lengthfield
x=TestPLF()
x.plist=[IP()/TCP(), IP()/UDP()]
raw(x)
_.startswith(b'\x00\x02E')
= Test disassembly
~ field lengthfield
x=TestPLF(plist=[IP()/TCP(seq=1234567), IP()/UDP()])
TestPLF(raw(x))
_.show()
IP in _ and TCP in _ and UDP in _ and _[TCP].seq == 1234567
= Nested PacketListField
~ field lengthfield
y=IP()/TCP(seq=111111)/TestPLF(plist=[IP()/TCP(seq=222222),IP()/UDP()])
TestPLF(plist=[y,IP()/TCP(seq=333333)])
_.show()
IP in _ and TCP in _ and UDP in _ and _[TCP].seq == 111111 and _[TCP:2].seq==222222 and _[TCP:3].seq == 333333
############
############
+ PacketListField tests
= Create a layer
~ field lengthfield
class TestPLF(Packet):
name="test"
fields_desc=[ FieldLenField("len", None, count_of="plist"),
PacketListField("plist", None, IP, count_from=lambda pkt:pkt.len) ]
= Test the PacketListField assembly
~ field lengthfield
x=TestPLF()
raw(x)
_ == b"\x00\x00"
= Test the PacketListField assembly 2
~ field lengthfield
x=TestPLF()
x.plist=[IP()/TCP(), IP()/UDP()]
raw(x)
_.startswith(b'\x00\x02E')
= Test disassembly
~ field lengthfield
x=TestPLF(plist=[IP()/TCP(seq=1234567), IP()/UDP()])
TestPLF(raw(x))
_.show()
IP in _ and TCP in _ and UDP in _ and _[TCP].seq == 1234567
= Nested PacketListField
~ field lengthfield
y=IP()/TCP(seq=111111)/TestPLF(plist=[IP()/TCP(seq=222222),IP()/UDP()])
TestPLF(plist=[y,IP()/TCP(seq=333333)])
_.show()
IP in _ and TCP in _ and UDP in _ and _[TCP].seq == 111111 and _[TCP:2].seq==222222 and _[TCP:3].seq == 333333
= Complex packet
~ field lengthfield ccc
class TestPkt(Packet):
fields_desc = [ ByteField("f1",65),
ShortField("f2",0x4244) ]
def extract_padding(self, p):
return "", p
class TestPLF2(Packet):
fields_desc = [ FieldLenField("len1", None, count_of="plist", fmt="H",
adjust=lambda pkt, x: x + 2),
FieldLenField("len2", None, length_of="plist", fmt="I",
adjust=lambda pkt, x: (x + 1) // 2),
PacketListField("plist", None, TestPkt,
length_from=lambda x: (x.len2 * 2) // 3 * 3) ]
a=TestPLF2()
raw(a)
assert( _ == b"\x00\x02\x00\x00\x00\x00" )
a.plist=[TestPkt(),TestPkt(f1=100)]
raw(a)
assert(_ == b'\x00\x04\x00\x00\x00\x03ABDdBD')
a /= "123456"
b = TestPLF2(raw(a))
b.show()
assert(b.len1 == 4 and b.len2 == 3)
assert(b[TestPkt].f1 == 65 and b[TestPkt].f2 == 0x4244)
assert(b[TestPkt:2].f1 == 100)
assert(Raw in b and b[Raw].load == b"123456")
a.plist.append(TestPkt(f1=200))
b = TestPLF2(raw(a))
b.show()
assert(b.len1 == 5 and b.len2 == 5)
assert(b[TestPkt].f1 == 65 and b[TestPkt].f2 == 0x4244)
assert(b[TestPkt:2].f1 == 100)
assert(b[TestPkt:3].f1 == 200)
assert(b.getlayer(TestPkt,4) is None)
assert(Raw in b and b[Raw].load == b"123456")
hexdiff(a,b)
assert( raw(a) == raw(b) )
############
############
+ Tests on TCPOptionsField
= Test calls on TCPOptionsField.getfield
assert TCPOptionsField("test", "").getfield(TCP(dataofs=0), "") == ('', [])
############
############
+ PacketListField tests
= Create a layer
~ field lengthfield
class TestPLF(Packet):
name="test"
fields_desc=[ FieldLenField("len", None, count_of="plist"),
PacketListField("plist", None, IP, count_from=lambda pkt:pkt.len) ]
= Test the PacketListField assembly
~ field lengthfield
x=TestPLF()
raw(x)
_ == b"\x00\x00"
= Test the PacketListField assembly 2
~ field lengthfield
x=TestPLF()
x.plist=[IP()/TCP(), IP()/UDP()]
raw(x)
_.startswith(b'\x00\x02E')
= Test disassembly
~ field lengthfield
x=TestPLF(plist=[IP()/TCP(seq=1234567), IP()/UDP()])
TestPLF(raw(x))
_.show()
IP in _ and TCP in _ and UDP in _ and _[TCP].seq == 1234567
= Nested PacketListField
~ field lengthfield
y=IP()/TCP(seq=111111)/TestPLF(plist=[IP()/TCP(seq=222222),IP()/UDP()])
TestPLF(plist=[y,IP()/TCP(seq=333333)])
_.show()
IP in _ and TCP in _ and UDP in _ and _[TCP].seq == 111111 and _[TCP:2].seq==222222 and _[TCP:3].seq == 333333
= Complex packet
~ field lengthfield ccc
class TestPkt(Packet):
fields_desc = [ ByteField("f1",65),
ShortField("f2",0x4244) ]
def extract_padding(self, p):
return "", p
class TestPLF2(Packet):
fields_desc = [ FieldLenField("len1", None, count_of="plist",fmt="H",
adjust=lambda pkt,x: x + 2),
FieldLenField("len2", None, length_of="plist", fmt="I",
adjust=lambda pkt, x: (x + 1) // 2),
PacketListField("plist", None, TestPkt,
length_from=lambda x: (x.len2 * 2) // 3 *3) ]
a=TestPLF2()
raw(a)
assert( _ == b"\x00\x02\x00\x00\x00\x00" )
a.plist=[TestPkt(),TestPkt(f1=100)]
raw(a)
assert(_ == b'\x00\x04\x00\x00\x00\x03ABDdBD')
a /= "123456"
b = TestPLF2(raw(a))
b.show()
assert(b.len1 == 4 and b.len2 == 3)
assert(b[TestPkt].f1 == 65 and b[TestPkt].f2 == 0x4244)
assert(b[TestPkt:2].f1 == 100)
assert(Raw in b and b[Raw].load == b"123456")
a.plist.append(TestPkt(f1=200))
b = TestPLF2(raw(a))
b.show()
assert(b.len1 == 5 and b.len2 == 5)
assert(b[TestPkt].f1 == 65 and b[TestPkt].f2 == 0x4244)
assert(b[TestPkt:2].f1 == 100)
assert(b[TestPkt:3].f1 == 200)
assert(b.getlayer(TestPkt,4) is None)
assert(Raw in b and b[Raw].load == b"123456")
hexdiff(a,b)
assert( raw(a) == raw(b) )
= Create layers for heterogeneous PacketListField
~ field lengthfield
TestPLFH1 = type('TestPLFH1', (Packet,), {
'name': 'test1',
'fields_desc': [ByteField('data', 0)],
'guess_payload_class': lambda self, p: conf.padding_layer,
}
)
TestPLFH2 = type('TestPLFH2', (Packet,), {
'name': 'test2',
'fields_desc': [ShortField('data', 0)],
'guess_payload_class': lambda self, p: conf.padding_layer,
}
)
class TestPLFH3(Packet):
name = 'test3'
fields_desc = [
PacketListField(
'data', [],
next_cls_cb=lambda pkt, lst, p, remain: pkt.detect_next_packet(lst, p, remain)
)
]
def detect_next_packet(self, lst, p, remain):
if len(remain) < 3:
return None
if isinstance(p, type(None)):
return TestPLFH1
if p.data & 3 == 1:
return TestPLFH1
if p.data & 3 == 2:
return TestPLFH2
return None
= Test heterogeneous PacketListField
~ field lengthfield
p = TestPLFH3(b'\x02\x01\x01\xc1\x02\x80\x04toto')
assert(isinstance(p.data[0], TestPLFH1))
assert(p.data[0].data == 0x2)
assert(isinstance(p.data[1], TestPLFH2))
assert(p.data[1].data == 0x101)
assert(isinstance(p.data[2], TestPLFH1))
assert(p.data[2].data == 0xc1)
assert(isinstance(p.data[3], TestPLFH1))
assert(p.data[3].data == 0x2)
assert(isinstance(p.data[4], TestPLFH2))
assert(p.data[4].data == 0x8004)
assert(isinstance(p.payload, conf.raw_layer))
assert(p.payload.load == b'toto')
p = TestPLFH3(b'\x02\x01\x01\xc1\x02\x80\x02to')
assert(isinstance(p.data[0], TestPLFH1))
assert(p.data[0].data == 0x2)
assert(isinstance(p.data[1], TestPLFH2))
assert(p.data[1].data == 0x101)
assert(isinstance(p.data[2], TestPLFH1))
assert(p.data[2].data == 0xc1)
assert(isinstance(p.data[3], TestPLFH1))
assert(p.data[3].data == 0x2)
assert(isinstance(p.data[4], TestPLFH2))
assert(p.data[4].data == 0x8002)
assert(isinstance(p.payload, conf.raw_layer))
assert(p.payload.load == b'to')
= Create layers for heterogeneous PacketListField with memory
~ field lengthfield
TestPLFH4 = type('TestPLFH4', (Packet,), {
'name': 'test4',
'fields_desc': [ByteField('data', 0)],
'guess_payload_class': lambda self, p: conf.padding_layer,
}
)
TestPLFH5 = type('TestPLFH5', (Packet,), {
'name': 'test5',
'fields_desc': [ShortField('data', 0)],
'guess_payload_class': lambda self, p: conf.padding_layer,
}
)
class TestPLFH6(Packet):
__slots__ = ['_memory']
name = 'test6'
fields_desc = [
PacketListField(
'data', [],
next_cls_cb=lambda pkt, lst, p, remain: pkt.detect_next_packet(lst, p, remain)
)
]
def detect_next_packet(self, lst, p, remain):
if isinstance(p, type(None)):
self._memory = [TestPLFH4] * 3 + [TestPLFH5]
try:
return self._memory.pop(0)
except IndexError:
return None
= Test heterogeneous PacketListField with memory
~ field lengthfield
p = TestPLFH6(b'\x01\x02\x03\xc1\x02toto')
assert(isinstance(p.data[0], TestPLFH4))
assert(p.data[0].data == 0x1)
assert(isinstance(p.data[1], TestPLFH4))
assert(p.data[1].data == 0x2)
assert(isinstance(p.data[2], TestPLFH4))
assert(p.data[2].data == 0x3)
assert(isinstance(p.data[3], TestPLFH5))
assert(p.data[3].data == 0xc102)
assert(isinstance(p.payload, conf.raw_layer))
assert(p.payload.load == b'toto')
############
############
+ Tests on MultiFlagsField
= Test calls on MultiFlagsField.any2i
~ multiflagsfield
import collections
MockPacket = collections.namedtuple('MockPacket', ['type'])
f = MultiFlagsField('flags', set(), 3, {
0: {
0: MultiFlagsEntry('A', 'OptionA'),
1: MultiFlagsEntry('B', 'OptionB'),
},
1: {
0: MultiFlagsEntry('+', 'Plus'),
1: MultiFlagsEntry('*', 'Star'),
},
},
depends_on=lambda x: x.type
)
mp = MockPacket(0)
x = f.any2i(mp, set())
assert(isinstance(x, set))
assert(len(x) == 0)
x = f.any2i(mp, {'A'})
assert(isinstance(x, set))
assert(len(x) == 1)
assert('A' in x)
assert('B' not in x)
assert('+' not in x)
x = f.any2i(mp, {'A', 'B'})
assert(isinstance(x, set))
assert(len(x) == 2)
assert('A' in x)
assert('B' in x)
assert('+' not in x)
assert('*' not in x)
x = f.any2i(mp, 3)
assert(isinstance(x, set))
assert(len(x) == 2)
assert('A' in x)
assert('B' in x)
assert('+' not in x)
assert('*' not in x)
x = f.any2i(mp, 7)
assert(isinstance(x, set))
assert(len(x) == 3)
assert('A' in x)
assert('B' in x)
assert('bit 2' in x)
assert('+' not in x)
assert('*' not in x)
mp = MockPacket(1)
x = f.any2i(mp, {'+', '*'})
assert(isinstance(x, set))
assert(len(x) == 2)
assert('+' in x)
assert('*' in x)
assert('A' not in x)
assert('B' not in x)
try:
x = f.any2i(mp, {'A'})
ret = False
except AssertionError:
ret = True
assert(ret)
#Following test demonstrate a non-sensical yet acceptable usage :(
x = f.any2i(None, {'Toto'})
assert('Toto' in x)
= Test calls on MultiFlagsField.i2m
~ multiflagsfield
import collections
MockPacket = collections.namedtuple('MockPacket', ['type'])
f = MultiFlagsField('flags', set(), 3, {
0: {
0: MultiFlagsEntry('A', 'OptionA'),
1: MultiFlagsEntry('B', 'OptionB'),
},
1: {
0: MultiFlagsEntry('+', 'Plus'),
1: MultiFlagsEntry('*', 'Star'),
},
},
depends_on=lambda x: x.type
)
mp = MockPacket(0)
x = f.i2m(mp, set())
assert(isinstance(x, six.integer_types))
assert(x == 0)
x = f.i2m(mp, {'A'})
assert(isinstance(x, six.integer_types))
assert(x == 1)
x = f.i2m(mp, {'A', 'B'})
assert(isinstance(x, six.integer_types))
assert(x == 3)
x = f.i2m(mp, {'A', 'B', 'bit 2'})
assert(isinstance(x, six.integer_types))
assert(x == 7)
try:
x = f.i2m(mp, {'+'})
ret = False
except:
ret = True
assert(ret)
= Test calls on MultiFlagsField.m2i
~ multiflagsfield
import collections
MockPacket = collections.namedtuple('MockPacket', ['type'])
f = MultiFlagsField('flags', set(), 3, {
0: {
0: MultiFlagsEntry('A', 'OptionA'),
1: MultiFlagsEntry('B', 'OptionB'),
},
1: {
0: MultiFlagsEntry('+', 'Plus'),
1: MultiFlagsEntry('*', 'Star'),
},
},
depends_on=lambda x: x.type
)
mp = MockPacket(0)
x = f.m2i(mp, 2)
assert(isinstance(x, set))
assert(len(x) == 1)
assert('B' in x)
assert('A' not in x)
assert('*' not in x)
x = f.m2i(mp, 7)
assert(isinstance(x, set))
assert('B' in x)
assert('A' in x)
assert('bit 2' in x)
assert('*' not in x)
assert('+' not in x)
x = f.m2i(mp, 0)
assert(len(x) == 0)
mp = MockPacket(1)
x = f.m2i(mp, 2)
assert(isinstance(x, set))
assert(len(x) == 1)
assert('*' in x)
assert('+' not in x)
assert('B' not in x)
= Test calls on MultiFlagsField.i2repr
~ multiflagsfield
import collections, re
MockPacket = collections.namedtuple('MockPacket', ['type'])
f = MultiFlagsField('flags', set(), 3, {
0: {
0: MultiFlagsEntry('A', 'OptionA'),
1: MultiFlagsEntry('B', 'OptionB'),
},
1: {
0: MultiFlagsEntry('+', 'Plus'),
1: MultiFlagsEntry('*', 'Star'),
},
},
depends_on=lambda x: x.type
)
mp = MockPacket(0)
x = f.i2repr(mp, {'A', 'B'})
assert(re.match(r'^.*OptionA \(A\).*$', x) is not None)
assert(re.match(r'^.*OptionB \(B\).*$', x) is not None)
mp = MockPacket(1)
x = f.i2repr(mp, {'*', '+', 'bit 2'})
assert(re.match(r'^.*Star \(\*\).*$', x) is not None)
assert(re.match(r'^.*Plus \(\+\).*$', x) is not None)
assert(re.match(r'^.*bit 2.*$', x) is not None)
############
############
+ EnumField tests
= EnumField tests initialization
# Basic EnumField
f = EnumField('test', 0, {0: 'Foo', 1: 'Bar'})
# Reverse i2s/s2i
rf = EnumField('test', 0, {'Foo': 0, 'Bar': 1})
# EnumField initialized with a list
lf = EnumField('test', 0, ['Foo', 'Bar'])
# EnumField with i2s_cb/s2i_cb
fcb = EnumField('test', 0, (
lambda x: 'Foo' if x == 0 else 'Bar' if 1 <= x <= 10 else repr(x),
lambda x: 0 if x == 'Foo' else 1 if x == 'Bar' else int(x),
)
)
def expect_exception(e, c):
try:
eval(c)
return False
except e:
return True
= EnumField.any2i_one
~ field enumfield
assert(f.any2i_one(None, 'Foo') == 0)
assert(f.any2i_one(None, 'Bar') == 1)
assert(f.any2i_one(None, 2) == 2)
expect_exception(KeyError, 'f.any2i_one(None, "Baz")')
assert(rf.any2i_one(None, 'Foo') == 0)
assert(rf.any2i_one(None, 'Bar') == 1)
assert(rf.any2i_one(None, 2) == 2)
expect_exception(KeyError, 'rf.any2i_one(None, "Baz")')
assert(lf.any2i_one(None, 'Foo') == 0)
assert(lf.any2i_one(None, 'Bar') == 1)
assert(lf.any2i_one(None, 2) == 2)
expect_exception(KeyError, 'lf.any2i_one(None, "Baz")')
assert(fcb.any2i_one(None, 'Foo') == 0)
assert(fcb.any2i_one(None, 'Bar') == 1)
assert(fcb.any2i_one(None, 5) == 5)
expect_exception(ValueError, 'fcb.any2i_one(None, "Baz")')
True
= EnumField.any2i
~ field enumfield
assert(f.any2i(None, 'Foo') == 0)
assert(f.any2i(None, 'Bar') == 1)
assert(f.any2i(None, 2) == 2)
expect_exception(KeyError, 'f.any2i(None, "Baz")')
assert(f.any2i(None, ['Foo', 'Bar', 2]) == [0, 1, 2])
assert(rf.any2i(None, 'Foo') == 0)
assert(rf.any2i(None, 'Bar') == 1)
assert(rf.any2i(None, 2) == 2)
expect_exception(KeyError, 'rf.any2i(None, "Baz")')
assert(rf.any2i(None, ['Foo', 'Bar', 2]) == [0, 1, 2])
assert(lf.any2i(None, 'Foo') == 0)
assert(lf.any2i(None, 'Bar') == 1)
assert(lf.any2i(None, 2) == 2)
expect_exception(KeyError, 'lf.any2i(None, "Baz")')
assert(lf.any2i(None, ['Foo', 'Bar', 2]) == [0, 1, 2])
assert(fcb.any2i(None, 'Foo') == 0)
assert(fcb.any2i(None, 'Bar') == 1)
assert(fcb.any2i(None, 5) == 5)
expect_exception(ValueError, 'fcb.any2i(None, "Baz")')
assert(f.any2i(None, ['Foo', 'Bar', 5]) == [0, 1, 5])
True
= EnumField.i2repr_one
~ field enumfield
assert(f.i2repr_one(None, 0) == 'Foo')
assert(f.i2repr_one(None, 1) == 'Bar')
expect_exception(KeyError, 'f.i2repr_one(None, 2)')
assert(rf.i2repr_one(None, 0) == 'Foo')
assert(rf.i2repr_one(None, 1) == 'Bar')
expect_exception(KeyError, 'rf.i2repr_one(None, 2)')
assert(lf.i2repr_one(None, 0) == 'Foo')
assert(lf.i2repr_one(None, 1) == 'Bar')
expect_exception(KeyError, 'lf.i2repr_one(None, 2)')
assert(fcb.i2repr_one(None, 0) == 'Foo')
assert(fcb.i2repr_one(None, 1) == 'Bar')
assert(fcb.i2repr_one(None, 5) == 'Bar')
assert(fcb.i2repr_one(None, 11) == repr(11))
conf.noenum.add(f, rf, lf, fcb)
assert(f.i2repr_one(None, 0) == repr(0))
assert(f.i2repr_one(None, 1) == repr(1))
assert(f.i2repr_one(None, 2) == repr(2))
assert(rf.i2repr_one(None, 0) == repr(0))
assert(rf.i2repr_one(None, 1) == repr(1))
assert(rf.i2repr_one(None, 2) == repr(2))
assert(lf.i2repr_one(None, 0) == repr(0))
assert(lf.i2repr_one(None, 1) == repr(1))
assert(lf.i2repr_one(None, 2) == repr(2))
assert(fcb.i2repr_one(None, 0) == repr(0))
assert(fcb.i2repr_one(None, 1) == repr(1))
assert(fcb.i2repr_one(None, 5) == repr(5))
assert(fcb.i2repr_one(None, 11) == repr(11))
conf.noenum.remove(f, rf, lf, fcb)
assert(f.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
assert(rf.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
assert(lf.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
assert(fcb.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
True
= EnumField.i2repr
~ field enumfield
assert(f.i2repr(None, 0) == 'Foo')
assert(f.i2repr(None, 1) == 'Bar')
expect_exception(KeyError, 'f.i2repr(None, 2)')
assert(f.i2repr(None, [0, 1]) == ['Foo', 'Bar'])
assert(rf.i2repr(None, 0) == 'Foo')
assert(rf.i2repr(None, 1) == 'Bar')
expect_exception(KeyError, 'rf.i2repr(None, 2)')
assert(rf.i2repr(None, [0, 1]) == ['Foo', 'Bar'])
assert(lf.i2repr(None, 0) == 'Foo')
assert(lf.i2repr(None, 1) == 'Bar')
expect_exception(KeyError, 'lf.i2repr(None, 2)')
assert(lf.i2repr(None, [0, 1]) == ['Foo', 'Bar'])
assert(fcb.i2repr(None, 0) == 'Foo')
assert(fcb.i2repr(None, 1) == 'Bar')
assert(fcb.i2repr(None, 5) == 'Bar')
assert(fcb.i2repr(None, 11) == repr(11))
assert(fcb.i2repr(None, [0, 1, 5, 11]) == ['Foo', 'Bar', 'Bar', repr(11)])
conf.noenum.add(f, rf, lf, fcb)
assert(f.i2repr(None, 0) == repr(0))
assert(f.i2repr(None, 1) == repr(1))
assert(f.i2repr(None, 2) == repr(2))
assert(f.i2repr(None, [0, 1, 2]) == [repr(0), repr(1), repr(2)])
assert(rf.i2repr(None, 0) == repr(0))
assert(rf.i2repr(None, 1) == repr(1))
assert(rf.i2repr(None, 2) == repr(2))
assert(rf.i2repr(None, [0, 1, 2]) == [repr(0), repr(1), repr(2)])
assert(lf.i2repr(None, 0) == repr(0))
assert(lf.i2repr(None, 1) == repr(1))
assert(lf.i2repr(None, 2) == repr(2))
assert(lf.i2repr(None, [0, 1, 2]) == [repr(0), repr(1), repr(2)])
assert(fcb.i2repr(None, 0) == repr(0))
assert(fcb.i2repr(None, 1) == repr(1))
assert(fcb.i2repr(None, 5) == repr(5))
assert(fcb.i2repr(None, 11) == repr(11))
assert(fcb.i2repr(None, [0, 1, 5, 11]) == [repr(0), repr(1), repr(5), repr(11)])
conf.noenum.remove(f, rf, lf, fcb)
assert(f.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
assert(rf.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
assert(lf.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
assert(fcb.i2repr_one(None, RandNum(0, 10)) == '<RandNum>')
True
############
############
+ CharEnumField tests
= Building expect_exception handler
~ field charenumfield
def expect_exception(e, c):
try:
eval(c)
return False
except e:
return True
= CharEnumField tests initialization
~ field charenumfield
fc = CharEnumField('test', 'f', {'f': 'Foo', 'b': 'Bar'})
fcb = CharEnumField('test', 'a', (
lambda x: 'Foo' if x == 'a' else 'Bar' if x == 'b' else 'Baz',
lambda x: 'a' if x == 'Foo' else 'b' if x == 'Bar' else ''
))
True
= CharEnumField.any2i_one
~ field charenumfield
assert(fc.any2i_one(None, 'Foo') == 'f')
assert(fc.any2i_one(None, 'Bar') == 'b')
expect_exception(KeyError, 'fc.any2i_one(None, "Baz")')
assert(fcb.any2i_one(None, 'Foo') == 'a')
assert(fcb.any2i_one(None, 'Bar') == 'b')
assert(fcb.any2i_one(None, 'Baz') == '')
True
############
############
+ XShortEnumField tests
= Building expect_exception handler
~ field xshortenumfield
def expect_exception(e, c):
try:
eval(c)
return False
except e:
return True
= XShortEnumField tests initialization
~ field xshortenumfield
f = XShortEnumField('test', 0, {0: 'Foo', 1: 'Bar'})
fcb = XShortEnumField('test', 0, (
lambda x: 'Foo' if x == 0 else 'Bar' if x == 1 else lhex(x),
lambda x: x
))
True
= XShortEnumField.i2repr_one
~ field xshortenumfield
assert(f.i2repr_one(None, 0) == 'Foo')
assert(f.i2repr_one(None, 1) == 'Bar')
assert(f.i2repr_one(None, 0xff) == '0xff')
assert(f.i2repr_one(None, 0) == 'Foo')
assert(f.i2repr_one(None, 1) == 'Bar')
assert(f.i2repr_one(None, 0xff) == '0xff')
True
############
############
+ DNSStrField tests
= Raise exception - test data
dnsf = DNSStrField("test", "")
assert(dnsf.getfield("", b"\x01x\x00") == (b"", b"x."))
try:
dnsf.getfield("", b"\xff")
assert(False)
except (Scapy_Exception, IndexError):
pass