• Platform
    Spring '24 Software Release! Check out our new deep image-based detection, GWS capabilities, and more. Explore the new additions
  • Solutions
  • Learn
    New Report! Osterman Research releases their 2024 findings on Image-based/QR Code Attacks. Read the report
  • Partner
  • Pricing

What is a Honeypot?

In cybersecurity, a honeypot is a network-attached system set up as a trap to attract attackers, gather data on their techniques, and divert their attention from real systems, helping organizations enhance their threat intelligence and defensive strategies.

Honeypot Explained

A honeypot is a cybersecurity technique that involves setting up a network-attached system with the purpose of luring cyber attackers. It acts as a decoy or trap designed to detect, divert, and study hacking attempts. The primary objective of a honeypot is to gather information about attackers' techniques, tools, and motives, while also providing an early warning system for intrusion detection.

How Honeypots Work

Honeypots are designed to appear as attractive targets to attackers. They are often deployed in a network's demilitarized zone (DMZ) or placed outside the external firewall, making them easily accessible to potential attackers. Honeypots mimic the behavior of real systems or assets that would be valuable to attackers, such as servers, databases, or IoT devices.

When attackers interact with a honeypot, their activities are closely monitored and logged. This includes capturing network traffic, analyzing command inputs, tracking file modifications, and observing the attacker's behavior. By studying these activities, security professionals can gain insights into the methods and tactics used by attackers, as well as identify vulnerabilities in their systems.

Types of Honeypots

Honeypots can be categorized based on their purpose, level of interaction, and deployment:

Research Honeypots

Research honeypots are primarily used for studying attacker behavior, developing countermeasures, and gaining a deeper understanding of the threat landscape. These honeypots are often highly customized and collect extensive data to aid in research and analysis.

Production Honeypots

Production honeypots are deployed alongside real production systems within an organization's network. They act as decoys, diverting attackers away from critical assets and providing an additional layer of defense. Production honeypots are designed to closely resemble real systems, containing information and services that attract attackers.

Pure Honeypots

Pure honeypots are complete and fully functional systems that closely mimic real production environments. They require significant effort to set up and maintain but offer a high level of realism to attackers. Pure honeypots are capable of capturing detailed information about an attacker's activities.

High-Interaction Honeypots

High-interaction honeypots simulate the activities of real systems and allow attackers to gain full access. These honeypots provide extensive monitoring capabilities, capturing all actions and commands executed by the attacker. While they offer valuable insights, high-interaction honeypots require additional resources and expertise to manage.

Low-Interaction Honeypots

Low-interaction honeypots simulate specific services or attack vectors commonly targeted by attackers. They offer a simplified and less resource-intensive approach compared to high-interaction honeypots. Although they may be less realistic, low-interaction honeypots are still effective at capturing basic information about attacker behavior.


Benefits and Risks of Honeypots

Honeypots offer several benefits and advantages in the realm of cybersecurity, but they also come with certain risks and limitations:

Benefits of Honeypots

  • Real Data Collection: Honeypots provide a rich source of real-world data on attacker techniques, allowing security professionals to gain insights into emerging threats.
  • Reduced False Positives: By design, honeypots have no legitimate users, reducing the number of false positive alerts typically generated by traditional security systems.
  • Cost-Effectiveness: Honeypots focus only on malicious activity, which helps optimize resource usage and reduces the need for high-performance hardware.
  • Encryption Circumvention: Honeypots capture malicious activity, even when attackers employ encryption to conceal their actions.

Risks and Limitations of Honeypots

  • LimitedData Collection: Honeypots only collect data when attackers interact with them, so they may not capture all types of attacks. Zero attempts to access the honeypot mean there is no data to analyze.
  • Isolated Network: Honeypots are isolated from the production network to prevent attackers from moving laterally into critical systems. However, if attackers suspect a network is a honeypot, they may avoid it, limiting the effectiveness of the trap.
  • Attackers Turning the Tables: There is a risk that attackers could discover and compromise a honeypot, potentially using it against the organization deploying it. This can lead to a breach of sensitive information or even enable attackers to launch attacks on other systems from within the honeypot.
  • Maintenance and Expertise: Honeypots require ongoing maintenance and specialized skills to set up, monitor, and analyze the captured data. Organizations must invest resources in managing and updating honeypots to ensure their effectiveness.

Use Cases of Honeypots

Honeypots serve various purposes and find applications in different scenarios:

  • Threat Intelligence: Honeypots provide valuable insights into the techniques, tools, and motives of attackers, allowing organizations to enhance their threat intelligence capabilities.
  • Early Warning System: By diverting attackers to honeypots, organizations can detect and respond to attacks at an early stage, minimizing potential damage.
  • Attack Analysis: Honeypots offer a controlled environment to analyze attack patterns, gather malware samples, and understand attacker behavior in depth.
  • Vulnerability Identification: Honeypots can help identify vulnerabilities in production systems by attracting attackers to specific services or attack vectors.
  • Deception and Misinformation: Honeypots can be used strategically to mislead attackers, gather information about their capabilities, and even spread misinformation or decoy data.


Honeypots play a significant role in cybersecurity by acting as decoys and gathering information about attackers. They provide organizations with valuable insights into emerging threats, attacker techniques, and vulnerabilities. By analyzing the data collected from honeypots, security professionals can enhance their defensive strategies, develop effective countermeasures, and improve incident response capabilities. However, organizations should carefully consider the risks and limitations associated with honeypots and invest in proper maintenance and expertise to ensure their successful deployment.

Explore Our Platform Tour

Immediately jump into an interactive journey through our AI email security platform.

Featured Content

AI in Email Security

This comprehensive Osterman Research study explores the evolving landscape of AI-driven threats and innovative solutions implemented to stay ahead.

Gartner® Email Security Market Guide

This guide gives email security experts an exclusive access to Gartner® research to ensure their existing solution remains appropriate for the evolving landscape.

Defending the Enterprise from BEC

Data shows organizations deploy defense-in-depth approaches ineffective at addressing BEC attacks. Discover truly effective strategies in this report.

Schedule a Demo

Request a demo to see what IRONSCALES AI-powered email security can do for you.