Smart Factory Monitoring: A Complete IoT Solution by GoodGuySoft

Technologies Used

  • C++ (libcurl, boost::asio) – Developed a high-performance TCP/IP server for real-time sensor communication.
  • MySQL Server – Used for structured data storage, historical retrieval, and real-time queries.
  • PHP (Custom Web Interface) – Built a user-friendly dashboard for live monitoring, reporting, and role-based access control.
  • Raspberry Pi – Deployed as IoT sensors to collect machine performance data, power usage, and access logs.
  • TCP/IP Communication – Ensured low-latency and secure data transmission between factory equipment and the monitoring server.
  • Cross-Platform Support – The C++ backend was designed to run on both Linux and Windows environments.

At GoodGuySoft, we specialize in developing cutting-edge industrial automation solutions. One of our recent projects involved creating a factory equipment monitoring system that provides real-time insights into machine performance, power consumption, and access control. This project combined IoT hardware, high-performance C++ networking, data storage, and a web-based dashboard to offer a comprehensive monitoring solution.

System Architecture

The solution was designed to be scalable, portable, and reliable, integrating the following components:

1. Raspberry Pi-Based IoT Sensors

We deployed Raspberry Pi-based sensors across the factory floor to collect vital equipment data, including:

  • Electricity consumption – Real-time power usage monitoring.
  • Productivity tracking – Measuring machine uptime and efficiency.
  • Access control – Logging operator interactions with factory equipment.
  • Additional parameters – Other critical factory metrics based on client requirements.

These sensors continuously transmitted data to a centralized server via TCP/IP.

2. High-Performance C++ Server

To efficiently process and manage the data flow from the sensors, we developed a custom C++ TCP/IP server using boost.asio. Key features of this server include:

  • Cross-platform support – Runs on both Linux and Windows.
  • Real-time data processing – Aggregating and filtering sensor inputs before storage.
  • Optimized networking – Ensuring low latency and reliable communication with hundreds of devices.
  • Secure communication – Encrypted data transmission to prevent unauthorized access.

3. MySQL Database for Data Storage

After preprocessing, the data was stored in a MySQL database. This structured storage allowed for:

  • Efficient historical data retrieval for long-term analysis.
  • Real-time query execution to power the web interface.
  • Data integrity and redundancy to prevent loss of critical information.

4. PHP-Based Web Dashboard

The final component was a user-friendly web interface developed in PHP. This dashboard provided:

  • Live and historical data visualization.
  • Customizable reports and alerts.
  • Role-based access control for different user levels.

Below is a screenshot of the web interface:

Impact and Results

This IoT-driven monitoring system provided factory operators with a real-time overview of their equipment, enabling:

  • Improved operational efficiency through detailed performance insights.
  • Reduced energy consumption by identifying power-hungry machines.
  • Enhanced security and access control with logging mechanisms.
  • Predictive maintenance planning based on equipment usage trends.

Conclusion

This project demonstrated GoodGuySoft’s ability to merge IoT hardware, high-performance networking, and web-based visualization into a robust industrial monitoring solution. By combining Raspberry Pi sensors, a scalable C++ backend, a MySQL database, and an interactive PHP front end, we delivered a fully integrated factory automation system.

For more innovative industrial automation solutions, stay connected with GoodGuySoft!