Server Projects

 

 

Advanced VPN Server with Ad-Blocking, Intrusion Detection, and Honeypot System

Overview: One of my recent projects involved setting up a highly secure and private VPN server designed to protect both personal and external network traffic. This server does more than just provide a secure tunnel for internet traffic; it also enhances privacy by integrating ad-blocking capabilities and significantly increases security through multiple layers of defense against cyber threats.

Key Features:

  1. Ad-Blocking Service:
    • Integrated DNS-based ad-blocking service.
    • Automatically filters out intrusive ads, trackers, and malicious domains.
    • Enhances browsing speed and privacy by reducing unwanted network traffic.
  2. Intrusion Detection System (IDS):
    • Real-time monitoring and analysis of network traffic.
    • Capable of detecting suspicious activities and potential attacks.
    • Provides detailed logs and alerts for further investigation.
  3. Fail2ban Protection:
    • Automated defense against brute-force attacks.
    • Monitors failed login attempts and bans IP addresses showing malicious intent.
    • Reduces the risk of unauthorized access by preventing repeated hacking attempts.
  4. Honeypot for Attack Detection:
    • Deployed a honeypot to lure and monitor potential attackers.
    • Collects valuable data on intrusion attempts, techniques, and tools used by hackers.
    • Enhances overall security by understanding and mitigating emerging threats.

Technical Insights:

  • VPN Setup: The server is configured to encrypt all traffic using industry-standard protocols like OpenVPN or WireGuard. It supports multiple devices, ensuring secure access from anywhere.
  • Ad-Blocking DNS: A custom DNS server filters requests, blocking known ad domains, and unwanted content. The system is designed to update frequently, ensuring it adapts to new threats and ad networks.
  • IDS Integration: Using tools like Snort or Suricata, the IDS is finely tuned to analyze traffic patterns and flag suspicious behavior. This setup ensures a balance between comprehensive monitoring and system performance.
  • Fail2ban Configuration: Fail2ban is configured to protect multiple services (SSH, web servers, etc.), with custom rules tailored to the specific environment. It dynamically adjusts to the threat landscape, blocking malicious IPs while minimizing false positives.
  • Honeypot Design: The honeypot mimics vulnerable services, attracting attackers. The data gathered provides insights into attack vectors, helping to fortify the network against future threats. It operates with minimal resources, ensuring the primary server’s performance is unaffected.

Benefits:

  • Enhanced Privacy: By routing all traffic through the VPN, users enjoy a secure, encrypted connection that shields their online activity from prying eyes.
  • Reduced Intrusions: The combination of IDS, fail2ban, and the honeypot significantly reduces the risk of successful cyber attacks, ensuring robust network security.
  • Optimized User Experience: The ad-blocking service not only boosts privacy but also improves the browsing experience by eliminating distractions and speeding up page load times.
  • Proactive Security: The honeypot and IDS provide proactive measures against cyber threats, allowing for early detection and prevention of potential breaches.

Conclusion: This project reflects my commitment to building secure, user-friendly, and highly functional network solutions. The combination of these advanced features ensures that users of this VPN server experience not only enhanced privacy but also top-tier protection against the ever-evolving landscape of cyber threats.

 

Secure Minecraft Server with Enterprise-Level Protection

Overview: This Minecraft server is designed for global accessibility, allowing players to connect from anywhere with minimal latency. Beyond providing an exceptional gaming experience, the server is fortified with enterprise-level security systems to ensure a safe and secure environment for all users.

Key Features:

  1. Global Accessibility:
    • Connect and play from anywhere with optimized, low-latency connections.
    • Reliable performance ensures a smooth and immersive gameplay experience.
  2. Enterprise-Level Security:
    • Leveraging the same advanced protection systems used in my VPN server, including intrusion detection, fail2ban, and a honeypot.
    • These systems safeguard the server against unauthorized access, brute-force attacks, and other cyber threats.
  3. Ad-Blocking and DNS Security:
    • Integrated DNS-based ad-blocking ensures a distraction-free gaming experience.
    • Protects players from malicious sites and unwanted content.

Benefits:

  • Safe Gaming Environment: The server’s security measures provide robust protection against cyber threats, ensuring players’ data and gameplay are secure.
  • Uninterrupted Gameplay: The combination of high-performance hosting and advanced security systems results in a seamless and secure gaming experience.
  • Enterprise-Grade Protection: By applying enterprise-level cybersecurity techniques, the server remains resilient against various threats, offering peace of mind to all players.

Conclusion: This Minecraft server combines global accessibility with top-tier security, making it a safe and enjoyable place for players to connect, explore, and create.

 

Custom Magic Mirror with Real-Time Updates and Network Integration

Overview: My Magic Mirror project is a personalized smart mirror that provides real-time information, including weather updates, news, calendar events, and system statuses. This project showcases my skills in integrating various technologies and APIs, creating a seamless, interactive experience using a blend of programming languages and tools.

Key Features:

  1. Weather and News Integration:
    • Displays current weather conditions and forecasts, retrieved through API integrations.
    • Real-time news updates from selected sources, ensuring you’re always informed.
  2. System Status Monitoring:
    • The mirror provides real-time updates on the status of systems running on my network.
    • Custom scripts and API calls allow for dynamic reporting, such as server uptime, network performance, and security alerts.
  3. Calendar and To-Do List:
    • Integrated calendar that syncs with personal events and appointments, displaying them directly on the mirror.
    • To-do list management, allowing for easy tracking of daily tasks and priorities.

Technical Insights:

  • Languages Used:
    • The front-end is built using HTML/CSS for design and JavaScript for dynamic content and interactivity.
    • Node.js powers the backend, enabling efficient handling of API requests and real-time updates.
    • Custom scripts written in Python manage system monitoring tasks and data parsing.
  • API Integrations:
    • Weather data is fetched using APIs from services like OpenWeatherMap, ensuring accurate and up-to-date information.
    • News is pulled from RSS feeds or news APIs, with the ability to customize sources based on preference.
    • Calendar events are synced using Google Calendar’s API, enabling seamless integration with personal schedules.
  • Network Communication:
    • The mirror interacts with other devices and services on the network through RESTful APIs and WebSocket connections, allowing it to display real-time system statuses and updates.
    • Secure communication protocols are used to ensure data privacy and integrity.

Benefits:

  • Centralized Information Hub: The Magic Mirror serves as a one-stop source for essential daily information, from weather and news to personal schedules and network statuses.
  • Real-Time Updates: Thanks to efficient API integrations and network communication, the mirror provides up-to-the-minute information, keeping you informed at all times.
  • Customizable and Expandable: Built with modularity in mind, the mirror can easily be extended with new features or data sources as needed.

Conclusion: This Magic Mirror project is a testament to my ability to integrate multiple technologies and APIs into a cohesive, functional system. It’s more than just a mirror—it’s a powerful tool that keeps me connected and informed, tailored to meet my specific needs.

 

Fine-Tuned LLM for Automotive Repair Assistance

Overview: I am currently developing a specialized Language Learning Model (LLM) using the Llama 3.1 architecture, fine-tuned exclusively with automotive repair data. This project aims to enhance the efficiency and accuracy of information retrieval for automotive technicians, working alongside systems like Mitchell1 to streamline the repair and diagnostic process.

Key Features:

  1. Automotive-Specific Fine-Tuning:
    • The model is trained on a vast dataset composed of repair manuals, technical bulletins, and various automotive repair sources.
    • Focused exclusively on automotive repair, ensuring the model provides highly relevant and precise information for technicians.
  2. Enhanced Information Retrieval:
    • Designed to work in tandem with existing systems like Mitchell1, the model speeds up the process of finding repair instructions, wiring diagrams, and diagnostic procedures.
    • Offers quick, context-aware responses, reducing the time technicians spend searching for information.
  3. Secure Local Deployment:
    • One of the key advantages of this model is its ability to operate entirely within a local system, eliminating the need for external data connections.
    • Enhanced security features ensure that the model and the data it processes are protected from outside interference, keeping proprietary information secure.
  4. Comprehensive Data Coverage:
    • Incorporates data from multiple manufacturers and vehicle types, making it a versatile tool for a wide range of automotive repair scenarios.
    • Includes both common repair issues and more complex, less frequently encountered problems.

Technical Insights:

  • Model Architecture:
    • Built on Llama 3.1, a state-of-the-art model known for its robust language understanding and generation capabilities.
    • Fine-tuned using a combination of supervised learning and reinforcement learning from human feedback (RLHF) to optimize performance specifically for automotive repair.
  • Data Sources:
    • The training data includes proprietary repair manuals, public automotive repair forums, and databases from trusted industry sources.
    • Extensive preprocessing ensures that the data is accurate, up-to-date, and relevant to the needs of automotive professionals.
  • Use Case Integration:
    • The model is designed to integrate smoothly with existing automotive software platforms, acting as an intelligent assistant that can interpret complex queries and provide actionable information.
    • It can be deployed entirely on local servers, ensuring no reliance on external networks, which enhances both security and control over proprietary information.

Benefits:

  • Improved Efficiency: By providing technicians with fast, accurate answers, the model helps reduce downtime and increases productivity in the repair shop.
  • Enhanced Security: The model’s ability to operate on a local system ensures that sensitive information remains secure, free from external threats or unauthorized access.
  • Expert-Level Assistance: The fine-tuned LLM can assist even less experienced technicians by offering insights and guidance typically found in extensive repair manuals, reducing the learning curve.
  • Cost-Effective Solution: With its ability to streamline information retrieval, the model can reduce the need for expensive subscriptions to multiple information services.

Conclusion: This LLM project represents a significant advancement in the automotive repair field, offering a specialized tool that enhances the capabilities of technicians by providing quick, precise, and contextually relevant information. With its ability to be securely deployed on local systems, this model not only improves efficiency but also ensures that proprietary information remains protected from external threats.