As gamers and PC enthusiasts explore innovative ways to enhance performance, the concept of ice-cooled PCs is gaining traction. This unconventional cooling method leverages the thermal conductivity of ice to manage heat dissipation more effectively than traditional cooling systems. Ice cooling operates on the principle that ice absorbs heat when it melts, providing a unique solution for keeping central processing units (CPUs) and graphics processing units (GPUs) at optimal temperatures. Unlike air or liquid cooling methods, which rely heavily on fans and pumps, ice cooling utilizes the natural melting of ice to absorb excess heat, thus creating a more stable operating environment for high-performance computing tasks. Theoretical benefits of ice cooling are appealing, especially for gamers and overclocking enthusiasts. With lower temperatures, ice cooling can facilitate higher overclocking potential, allowing components to run faster without overheating. Additionally, this method offers a unique aesthetic appeal, as the visible ice setup can create an eye-catching display within a PC case. Moreover, ice cooling systems can be designed to operate more quietly than traditional cooling fans, reducing noise pollution during intense gaming sessions. However, while the advantages are enticing, several challenges and risks accompany the use of ice cooling. The primary concern is condensation, which can lead to moisture-related damage in electronic components. Maintaining an ice cooling setup requires regular monitoring and maintenance to prevent water buildup and potential damage. Additionally, the practicality of using ice for prolonged periods raises sustainability questions, as constantly replenishing ice may not be feasible for everyday users. As a result, while ice cooling presents a fascinating alternative, it necessitates careful consideration of its operational limitations and maintenance requirements.