The goal of this assignment is to generate a $.$pcap file containing $12$ packets based on the given $.$pcap in given picture You must use Scapy in Python to

construct and append each packet, then write the full set of packets to a $.$pcap file that can be analyzed using TShark or Wireshark. The $.$pcap file that you

generate must contain the same number of packets in the same order with identical fields, identical values for each field $($including payloads where necessary$)$ and

identical timestamps for each packet as seen in the $.$pcap file that you were given in the picture And one of the

$9$

$$packets will be DNS

which is either TCP

$/$

UDP To be clear, you should NOT simply duplicate or copy packets from the existing pcap file. Your code must programmatically construct new packets, starting from the Ethernet layer and building up through TCP$/$UDP$/$DNS$...$ similar to the sample example shown in the provided document. This approach is required to demonstrate your understanding of how to build valid network packets. The following is a sample example of how to use Scapy to generate a $.$pcap file with a single packet.

# Import Scapy

from scapy.all import Ether, IPv$6,$ UDP, rdpcap, wrpcap

# Create a new packet stacked with Ether, IPv$6,$ UDP, and a payload

packet $=$ Ether$($src$=\text{'}...\text{'},$ dst$=\text{'}...\text{'})$

$/$IPv$6($src$=\text{'}...\text{'},$ dst$=\text{'}...\text{'})$

$/$UDP$($sport$=53,$ dport$=80)$

# Write the $.$pcap file

wrpcap$(\text{'}.$pcap', packet$)$

Use ls$()$ to list all the available layers and ls$($IP$)$ to list all the available fields for the IP layer. For instance:

# List available Scapy layers

ls$()$

# Sample output

Layer$2$ :: Ether, Dot$3,$ LLC$,$ SNAP

Layer$3$ :: IP$,$ IPerror, IPy, GRE

Transport :: TCP$,$ UDP

Packet :: Packet, bind$\_$layers code in python