Abstract This paper examines designing and implementing a Magisk module to enable safe CPU/GPU overclocking on Android devices. It covers background on overclocking and Android kernel interfaces, module architecture, methods for adjusting clock frequencies and voltages, user-space controls, safety features, testing methodology, performance and power trade-offs, security and compatibility considerations, and recommendations for responsible use. 1. Introduction Overclocking boosts processor clock frequencies beyond stock settings to improve performance. On Android, kernel-level controls expose CPU clock (freqs, governors), voltage control (if available), and thermal/power limits. Magisk modules provide a systemless way to modify runtime behavior without changing the system partition, making them suitable for injecting overclocking functionality. 2. Background

Overclocking Magisk Module Better

Abstract This paper examines designing and implementing a Magisk module to enable safe CPU/GPU overclocking on Android devices. It covers background on overclocking and Android kernel interfaces, module architecture, methods for adjusting clock frequencies and voltages, user-space controls, safety features, testing methodology, performance and power trade-offs, security and compatibility considerations, and recommendations for responsible use. 1. Introduction Overclocking boosts processor clock frequencies beyond stock settings to improve performance. On Android, kernel-level controls expose CPU clock (freqs, governors), voltage control (if available), and thermal/power limits. Magisk modules provide a systemless way to modify runtime behavior without changing the system partition, making them suitable for injecting overclocking functionality. 2. Background