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AIIPot: A Smart Honeypot for IoT Security

AIIPot enhances IoT security by engaging attackers through interactive machine learning.

― 7 min read


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Table of Contents

The Internet of Things (IoT) has become a big part of our lives, with devices like smart home gadgets, healthcare tools, and even autonomous vehicles. While this technology helps to make our lives easier, it also raises questions about Security. As more devices connect to the internet, ensuring their safety from cyber threats becomes essential.

A key problem is that many IoT devices have weak security measures, making them easy targets for Attackers. To fight back, researchers and security experts use strategies to trick attackers into revealing their methods and weaknesses. One popular method is called a honeypot. This is a system designed to look like a real device but is actually set up to catch or distract attackers.

Creating effective Honeypots for IoT devices, however, is not an easy task because of the large number and variety of devices. Manually setting them up can be too time-consuming and expensive. Because of this, researchers are looking for smarter, automated ways to create these honeypots.

Problem Overview

IoT devices often use simple passwords or have fixed settings that can be easily guessed. This makes them vulnerable to attacks. Attackers often start by scanning for weaknesses in the network, identifying open ports, and gathering information about the devices before launching their attacks. This preparation phase is crucial for attackers, and if a honeypot isn’t good at engaging with attackers in this phase, it might fail to capture their actions.

To effectively catch attacks targeting IoT devices, honeypots need to be able to interact in a realistic way during this pre-check phase. A traditional honeypot that offers little interaction is likely to be easily recognized by attackers, leaving them free to attack real devices.

Our Approach

We propose a new type of honeypot designed to automatically engage with attackers using Machine Learning techniques. This system, which we call AIIPot, behaves like a chatbot that learns from its interactions with attackers. By using advanced methods like reinforcement learning, AIIPot can adapt its responses based on the attacker's actions, allowing it to collect more data and better understand attacker behavior.

Key Features of AIIPot

  1. Automatic Learning: AIIPot uses machine learning to understand how attackers interact with IoT devices. This allows it to respond in ways that a real device might, keeping attackers engaged longer.

  2. Response Database: The honeypot keeps a database of possible requests and expected responses. When an attacker sends a request, AIIPot checks this database to find an appropriate response.

  3. Request Evaluation: Before responding to a new request, AIIPot evaluates whether it is safe or potentially harmful. If a request is deemed safe, it is processed normally; if it is harmful, it is redirected appropriately.

  4. Longer Engagement: By effectively responding to attackers, AIIPot extends the interaction time, thereby increasing the chances to capture their tactics and techniques.

  5. Data Collection: The system collects valuable data about attack patterns, which can be used to improve future defenses for IoT devices.

Background on IoT Devices

IoT is a vast network made up of various physical devices that communicate with each other through the internet. These devices include everything from smart light bulbs to medical sensors. While they offer great convenience, many devices are not built with strong security. They can have flaws that attackers can easily exploit.

Because of the many different types of devices and how they communicate, vulnerability can vary significantly. Each manufacturer may use different codes, protocols, and security measures. Those differences can lead to security gaps that attackers can take advantage of.

Machine Learning for Security

Machine learning is a technology that allows systems to learn from data and make decisions based on it. In the context of cybersecurity, it can help in various ways, such as identifying suspicious activities or predicting potential threats.

By training models on large datasets of attack patterns and normal activities, machine learning can help to create systems that identify threats in real-time. For our honeypot, machine learning assists in generating realistic responses to attacker requests, making it harder for them to recognize that they are interacting with a honeypot.

Honeypots in Cybersecurity

A honeypot can be anywhere from a simple emulated service to a fully functional system that attackers can engage with. There are different levels of interaction:

  • Low-Interaction Honeypots: These mimic only a limited number of services and provide little interaction. They are easy to set up but can be easily detected by experienced attackers.

  • High-Interaction Honeypots: These are real operating systems set up for attackers to interact with freely. They can gather in-depth information about attacks but are more complex and resource-intensive to maintain.

  • Intelligent-Interaction Honeypots: These aim to maximize the chances of capturing attacks by dynamically adjusting responses based on actions taken by the attacker. They are the focus of our research.

The AIIPot Architecture

AIIPot is built with the following components:

  1. Honey-Chatbot: This module interacts with attackers, responding to their requests based on data from the response database.

  2. Req/Res Database: This database stores requests made by attackers and the corresponding responses that an IoT device could give. If a request isn’t previously recorded, it’s flagged for evaluation.

  3. Request Evaluator: This module assesses whether incoming requests are trustworthy. If found safe, a request is processed, if not, it is handled differently.

How AIIPot Works

When an attacker sends a request to AIIPot, the honey-chatbot checks the req/res database for a suitable response. If the request is new, the request evaluator assesses it to determine if it is safe. Upon approval, the request can be passed to the local IoT network.

Through continuous interactions, AIIPot learns from its conversations, allowing it to refine its responses over time. By using machine learning principles, including a special technique called reinforcement learning, it can select responses that are most likely to keep the attacker engaged.

Evaluation of AIIPot

To evaluate how well AIIPot works, we set it up on a cloud platform and monitored the interactions it had over a given period. Here’s what we discovered:

  1. Capturing Requests: AIIPot was able to capture numerous requests from many different IP addresses, showing that it effectively attracted attackers.

  2. Session Length: The time spent engaged with attackers was longer than with traditional honeypots. This indicates that attackers were more likely to think they were dealing with a real device.

  3. Volume of Information: As the session length increased, so did the amount of information sent by attackers. More engagement resulted in higher amounts of data being collected.

  4. Types of Attacks Captured: AIIPot successfully identified various types of attacks, including attempts to gain unauthorized access and denial of service attacks.

Conclusion

The diversity and large number of IoT devices make it hard to establish effective defenses against attacks. With attackers increasingly performing detailed checks before launching an assault, honeypots need to engage in realistic interactions during this assessment phase.

Our proposed AIIPot system uses machine learning to automatically interact with attackers, leading to longer session lengths and greater data capture. This tool presents a significant advancement in understanding how attackers work and how to protect IoT devices more effectively. The data gathered through these interactions is essential for building better defenses in the future, addressing the ongoing challenges in IoT security.

The findings of this work highlight the importance of automation in cybersecurity and how machine learning can enhance defense mechanisms in the ever-changing landscape of technology.

Original Source

Title: AIIPot: Adaptive Intelligent-Interaction Honeypot for IoT Devices

Abstract: The proliferation of the Internet of Things (IoT) has raised concerns about the security of connected devices. There is a need to develop suitable and cost-efficient methods to identify vulnerabilities in IoT devices in order to address them before attackers seize opportunities to compromise them. The deception technique is a prominent approach to improving the security posture of IoT systems. Honeypot is a popular deception technique that mimics interaction in real fashion and encourages unauthorised users (attackers) to launch attacks. Due to the large number and the heterogeneity of IoT devices, manually crafting the low and high-interaction honeypots is not affordable. This has forced researchers to seek innovative ways to build honeypots for IoT devices. In this paper, we propose a honeypot for IoT devices that uses machine learning techniques to learn and interact with attackers automatically. The evaluation of the proposed model indicates that our system can improve the session length with attackers and capture more attacks on the IoT network.

Authors: Volviane Saphir Mfogo, Alain Zemkoho, Laurent Njilla, Marcellin Nkenlifack, Charles Kamhoua

Last Update: 2023-03-22 00:00:00

Language: English

Source URL: https://arxiv.org/abs/2303.12367

Source PDF: https://arxiv.org/pdf/2303.12367

Licence: https://creativecommons.org/licenses/by/4.0/

Changes: This summary was created with assistance from AI and may have inaccuracies. For accurate information, please refer to the original source documents linked here.

Thank you to arxiv for use of its open access interoperability.

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