Please enable JavaScript.
Coggle requires JavaScript to display documents.
Decoys
(mechanisms used to deceive, mislead, and detect attackers by…
Decoys
(mechanisms used to deceive, mislead, and detect attackers by simulating vulnerable systems or data)
Honeypots (Honeypots are security mechanisms that lure attackers with simulated systems to monitor and analyze their activities.)
Shape Shifting honeypots
Shape-shifting honeypots are advanced tools that dynamically alter their attributes and behavior in real-time to adapt to different attacks and more effectively deceive cyber adversaries.
Features
Dynamic Configuration
(Regularly alter IP addresses, switch operating systems, and change service versions to simulate various devices, endpoints, and updates)
IP Address Changes
Dynamic IP Allocation (Use a pool of IP addresses that the honeypot can switch between.)
(By configuring DHCP servers to periodically assign new addresses.)
Software-Defined Networking (SDN) (Dynamically manage network resources, automate IP address changes, and reconfigure network paths for honeypots.)
Service Version Changes
Service Deployment Automation (Use automated deployment tools to manage and deploy various service versions and maintain a repository for on-demand deployment.)
Microservices Architecture (Implement services as microservices for individual updates and redeployments, and use service meshes to dynamically manage and route traffic to different versions.)
OS Changes
Virtualization (Deploy honeypots as VMs to swiftly switch operating systems using templates or snapshots.)
Containerization (Use containers (e.g., Docker) to rapidly switch between different OS environments by starting and stopping isolated images)
Automated Learning and Adaptation
Use reinforcement learning to optimize honeypot behavior based on attacker interactions.
Reinforcement Learning
Technique where an agent learns to make decisions by receiving rewards or penalties for its actions in an environment
Real-Time Adaptation
(Deploy the trained RL model to the live honeypot system for real-time adaptation, where it continuously monitors and makes decisions based on the learned policy.)
Decision Making (Use the RL model to decide and implement actions like changing IP addresses or modifying the OS based on the current environment state.)
Real-Time Monitoring(Collect real-time data on network traffic, system logs, and attacker interactions, and continuously update the state of the honeypot environment based on this data)
Reward Mechanism
(The reward mechanism in RL guides learning by providing feedback on the effectiveness of the honeypot’s actions.)
Reward Structure(Assign positive rewards for actions that successfully deceive attackers or enhance security, and negative rewards for actions that lead to detection or reduce effectiveness)
Reward Calculation(Provide immediate rewards based on direct outcomes of actions and consider delayed rewards by evaluating the cumulative impact over time.)
Training Phase
Training Data(Use historical attack data to train the RL model, including attack types and behaviors, and generate synthetic attack scenarios to expose the model to diverse attack patterns)
RL Algorithm(Choose an appropriate RL algorithm (e.g., Q-learning, DQN, PPO) based on environment complexity and state/action space, and train the honeypot by simulating interactions, taking actions, and updating the policy based on rewards.)
Environment Setup(Create a controlled simulation environment mimicking a real network with honeypots and attackers, define the state space for honeypot configurations and environment status, and define the action space for possible honeypot changes.)
Behavioral Adaptation
Simulate fake user activities and adapt responses based on attacker behavior to create a realistic environment and gather intelligence.
Simulated User Activity
(Simulated user activity makes the honeypot appear active and legitimate by mimicking logins, file accesses, network traffic, and application usage.)
Automated Scripts ( write custom scripts in Python, Bash, or PowerShell to automate behaviors like logging in or browsing)
User Activity Simulation Tools (Simulate user input such as mouse movements and keystrokes, and use software to emulate user actions for web and command-line interactions)
Network Traffic Simulation (Use tools (tcp replay) to replay captured network traffic or (ipref) generate traffic, that mimic legitimate user behavior)
Adaptive Responses
(Adaptive responses involve dynamically altering the honeypot’s behavior based on attacker interactions, such as modifying system responses, adding defenses, or escalating deception.)
Real-Time Monitoring and Detection(Deploy IDS tools like Snort or Suricata to monitor network traffic and detect suspicious activities, and continuously analyze system logs with tools like ELK Stack or Splunk to identify potential threats.)
Dynamic Response Mechanisms(Use automated scripts to respond to threats by changing firewall rules or deploying honeypots, and implement machine learning models to predict attacker behavior for adaptive responses)
Types
Morphing Honeypots (can change their network signatures, such as IP addresses and open ports, to resemble different types of devices and systems.)
AI-Powered Adaptive Honeypots (use AI algorithms to analyze attacker behavior and automatically adjust their characteristics to maintain deception)
Deceptive Virtual Machines (can alter their operating systems, running services, and network configurations dynamically to mislead attackers)
Intelligent Network Deception Systems (Integrated systems that use a combination of AI, ML, RL, and SDN to create a constantly changing network environment to confuse and trap attackers.)
-
-
Low-Interaction Honeypots
Simulate limited services and vulnerabilities to attract attackers with minimal interaction.
Honeywalls
Honeypots set up at network boundaries to capture and analyze malicious traffic before it reaches the real systems.
High-Interaction Honeypots
Fully functional systems designed to provide extensive interaction and gather detailed attacker behavior.
Deceptive Data
Fake data inserted into databases, files, or communications to mislead attackers and track their actions when they interact with it.
Honeytokens
Digital entities that are not meant to be accessed or used. These can be files, database entries, or even credentials. Any interaction with a honeytoken is a clear indication of malicious activity
Deceptive Applications
Applications that appear to be real but are set up to monitor and log attacker activities