Integration of VLSI with Traditional PID Controller for Temperature Control in Electronic Devices

This research paper focuses on the integration of Very Large Scale Integration (VLSI) technology with traditional Proportional-Integral-Derivative (PID) controllers to improve temperature control in electronic devices. Temperature regulation is critical in many applications, especially in satellite, space, and rocket systems, where maintaining stable thermal conditions is essential for the safe operation of electronic components. The main objective of this work is to combine the advantages of VLSI technology—such as compact size, high processing speed, and low power consumption— with the reliability and simplicity of PID controllers to create an efficient and effective temperature control system. VLSI-based PID controllers allow for more precise control of temperature in electronic devices by enabling faster computation and more accurate responses to changes in thermal conditions. The research outlines the design process of this integration, highlighting improvements in system stability, temperature regulation accuracy, and overall power efficiency. Experimental results indicate that the integrated system can significantly reduce temperature fluctuations, ensuring that electronic components operate within safe limits, which is vital in space missions where overheating or temperature variations can lead to system failures. In satellite and space applications, where environmental conditions are extreme and unpredictable, efficient thermal management is crucial. The integration of VLSI with PID controllers provides a reliable solution to maintain stable temperatures, ensuring the longevity and proper functioning of critical systems in space and rocket technology. The findings of this research demonstrate the potential of this integrated approach to advance temperature control techniques in aerospace, leading to more robust and reliable systems in satellite and space missions.