For my discovery project, I decided to build a comprehensive system monitoring dashboard using my Raspberry Pi 5. This ambitious undertaking required learning multiple new technologies and overcoming significant networking challenges. The project provides real-time system health monitoring including CPU load, memory usage, and temperature tracking through an intuitive web-based interface hosted locally on the Raspberry Pi. This hands-on experience taught me essential skills in Linux system administration, network configuration, web development with Next.js, and embedded systems deployment.
Development setup showing command line programming environment with Raspberry Pi 5
Continuously tracks CPU load, memory usage, system temperatures, and refreshes every 2 seconds
Built with Next.js and TypeScript for server-side rendered performance monitoring interface
UI components using modern CSS and component libraries for viewing across all devices
Provides historical data trends and performance insights to optimize Raspberry Pi deployment and prevent issues
This discovery project required mastering numerous technologies from scratch. Key learning areas included: SSH configuration and remote access to the Raspberry Pi, Linux system administration for network setup and service management, bash scripting for automated system monitoring, Next.js framework for building the web dashboard, IP address management and network troubleshooting, Git version control for project management, and local web hosting on embedded systems. The project provided hands-on experience with the complete development stack from hardware configuration to web application deployment.
The monitoring system follows a client-server architecture where the Next.js application runs on the Raspberry Pi itself, reading system metrics directly from the Linux kernel interfaces. Key implementation details include:
I was unable to connect Raspberry Pi to WiFi due to GTother network firewall restrictions. Solved by configuring ethernet connection and understanding network security protocols.
I failed to establish SSH connection due to incorrect IP address configuration. Resolved through systematic network diagnostics and DHCP lease table analysis.
Raspberry Pi cooling fan appeared non-functional initially. Discovered the fan only activates after reaching specific CPU temperature thresholds.
Implemented efficient data polling mechanisms to prevent overwhelming the Pi's limited resources while maintaining real-time monitoring capabilities.
This project presented numerous real-world challenges that required systematic problem-solving and research. The network configuration issues taught me about enterprise firewall restrictions and alternative connectivity solutions. SSH troubleshooting deepened my understanding of IP addressing and network diagnostics. Hardware integration challenges provided insights into thermal management and embedded system behavior. These obstacles transformed into valuable learning experiences that enhanced my technical problem-solving abilities and system administration skills.
Interactive system dashboard showing real-time monitoring capabilities
Live demonstration: CPU monitoring during stress test by opening multiple browser tabs
The monitoring dashboard successfully provides comprehensive real-time visibility into Raspberry Pi system performance through local web hosting. This discovery project dramatically expanded my technical skillset, providing hands-on experience with Linux system administration, network configuration, modern web development, and embedded systems programming. The project demonstrates proficiency in full-stack development from hardware setup to web application deployment.