Customer Story
Running a Forensic Lab & Honeypot Stack on VPS

I'm Gabriel Dungan, an independent IT consultant and a student majoring in Computer Information Systems with a focus on Digital Forensics. I set out to build a multi-role lab hosting environment that could support real-world cybersecurity simulations—from honeypot monitoring and malware capture to memory forensics and reverse engineering of multiplayer games.

To achieve this, I needed a stack hosting solution that offered full administrative control, low latency, and consistent performance without throttling or restrictions. After researching several options, I chose Database Mart for its affordable pricing, high-performance VPS, stable uptime, and full root access—all of which are critical when deploying complex forensic tooling and building secure honeypot cyber security environments. It’s a reliable platform for advanced honeypot security simulations and remote forensic operations.

*Submitted by user "gjd****@gmail.com"*

Application Scenario

My VPS serves as a multi-purpose forensic lab hosting environment, designed for malware behavior analysis, honeypot monitoring, and forensic evaluation of game anti-cheat systems. This flexible stack hosting setup typically supports 2 to 5 concurrent services, depending on the testing scenario.

I’ve installed and configured a variety of tools and isolated environments to cover different types of analysis. For honeypot security operations, I use Cowrie and Dionaea to simulate SSH and Telnet services and capture attacker behavior—key elements in honeypot cyber security research. For network-level analysis, tools like tcpdump, Wireshark, and Suricata are deployed to monitor and log traffic in real-time.

On the forensic side, I rely on Volatility3, auditd, and custom memory dump scripts for in-depth memory forensics and file integrity monitoring. To examine game security mechanisms, I run tools such as strace, Cheat Engine, objdump, and radare2 inside isolated containers and Wine-based environments.

In daily use, this lab hosting setup supports packet capture, sandboxed malware interactions, memory snapshots, and telemetry extraction from game engines. I also perform log parsing, binary analysis, and attacker fingerprinting as part of my ongoing honeypot and digital forensics workflow.

Server Specifications

Product Name: Basic Plus Linux VPS
CPU: 6 Core
RAM: 12 GB
Storage: 180GB SSD
Bandwidth: 200Mbps
Operating System: Ubuntu Server 24 LTS 64-bit

Deployment Process

1. Initial Security Hardening

As soon as I accessed the VPS, I focused on securing the lab hosting environment. I changed the default SSH port, enforced key-only authentication, and configured both fail2ban and the UFW firewall to block brute-force attempts. I also disabled unused system services to reduce the attack surface—an essential step in any honeypot cyber security setup.

2. Environment Provisioning

To begin stack hosting, I installed Docker and created isolated Python virtual environments to maintain clean dependency management. I then deployed Cowrie and Dionaea as containerized honeypot services, simulating SSH and Telnet traps for attacker interaction. Logs from these services were forwarded via rsyslog to a remote SIEM, enhancing visibility and supporting advanced honeypot security monitoring.

3. Specialized Tool Setup

For game forensics and advanced threat simulations, I built Wine-based testbeds and ran legacy multiplayer game servers to emulate real-world telemetry patterns. Tools like strace and inotify were added to trace syscalls and file activity. To ensure low latency and stable performance under concurrent workloads, I also tuned key sysctl parameters—crucial for responsive lab hosting and secure stack hosting operations.

The full forensic stack—including logging and honeypot interaction—was fully operational within 90 minutes of provisioning.

Performance Review

The server has been extremely stable, even under heavy lab hosting workloads involving live honeypot attacks and concurrent memory forensic operations. I’ve experienced no stuttering—whether capturing high-volume packet data or running intensive binary analysis tools. Even during high I/O stress, such as memory dumps or simultaneous log writes, the system remains smooth and responsive. This level of performance is critical for maintaining a reliable stack hosting setup and ensuring uninterrupted operation of my honeypot security and honeypot cyber security workflows.

Network Performance

Fast, stable connections with low latency during remote forensic sessions and simulated attacks.

Reliability Evaluation

My server has been running uninterrupted for over 70 days—no crashes, no downtime, and no manual restarts required. The honeypot services remain online 24/7, continuously logging and analyzing activity. Even if a container fails, Docker’s restart policies kick in automatically to ensure recovery without intervention. It's been a reliable and hands-off setup that I can trust to run around the clock.

Resource Utilization (Under Load)

Under typical operation, the server handles resource usage efficiently. CPU usage generally stays between 35% to 55%, only spiking up to 80% during intensive tasks like game sandbox simulations. RAM consumption hovers around 7 to 9.5 GB, especially when multiple forensic tools and honeypots are running concurrently. Network throughput is consistently stable, monitored through log analysis and telemetry data. Even during peak loads, the system stays responsive and doesn’t buckle under pressure.

Application Performance Evidence

To ensure everything is functioning properly within my lab hosting environment, I rely on both real-time and historical performance data. Using tools like htop and system monitors, I regularly track CPU and memory usage, which remains stable—even during high-demand forensic operations.

My GitLab CI/CD pipeline graphs provide a clear snapshot of deployment performance, ensuring consistency across builds in this multi-purpose stack hosting setup. Meanwhile, Nginx access logs confirm the server’s ability to handle low-latency requests during simultaneous honeypot interactions or game reverse engineering tasks.

For in-depth validation, I analyze PCAP files captured from honeypot security events. These full-session captures allow me to study real-world attack behaviors, proving the VPS’s capability to support advanced honeypot cyber security operations without data loss or performance dips.

Optimization Tips

• CPU Cap: Limited honeypots to 1 core using cpulimit & Docker settings
• Network Tweaks:tcp_tw_reuse=1, tcp_fin_timeout=10 for improved socket handling
• Disk Usage: Automated log rotation and PCAP backups using logrotate + rsync
• Reliability: Scheduled service reboots every 3 days for performance hygiene

Conclusion & Recommendations

Database Mart's VPS is a highly dependable choice for anyone involved in lab hosting, stack hosting, or advanced honeypot cyber security simulations. Whether you're a forensic analyst, red teamer, or cybersecurity student, the platform delivers consistent performance, responsive resource handling, and the flexibility needed for deploying specialized tools—without throttling or access restrictions.

If your work involves honeypot security, malware analysis, or reverse engineering within a virtualized environment, this VPS gives you the control, isolation, and stability you need. For serious cybersecurity testing and research, Database Mart just works—period.

Why DBM?

• Competitive pricing with no overage surprises
• Excellent support for technical deployment
• Instant provisioning & full root control
• Zero downtime over months of continuous use

I highly recommend DBM for its outstanding hosting service and technical support.

Notes & Troubleshooting

• Needed to disable cloud-init network overrides on first boot (fixed via netplan)
• UFW required manual port whitelisting for honeypots
• DNS caching enabled via Unbound to reduce latency during game testing
• No service-level issues encountered since initial deployment