High-performance gaming CPUs experience rapid thermal spikes during demanding gaming sessions, causing thermal throttling, reduced frame rates, and shortened component lifespan. Traditional liquid cooling systems often struggle with instantaneous heat loads due to their reliance on steady-state cooling mechanisms.
Develop an innovative hybrid liquid cooling solution with an integrated phase-change heat spreader that dynamically responds to instantaneous CPU heat spikes, significantly improving temperature control, enhancing gaming performance, and prolonging CPU life.
Integrates a small volume of phase-change material (PCM) directly above the CPU Integrated Heat Spreader (IHS).
PCM quickly absorbs instantaneous heat spikes during heavy gaming loads, reducing peak CPU temperatures.
A microcontroller-driven pump system dynamically adjusts coolant flow rate based on real-time CPU temperature readings.
Optimizes energy efficiency and reduces noise at lower loads while maximizing cooling during peak gaming moments.
Custom-designed microchannels using metal additive manufacturing (e.g., aluminum or copper alloys) for optimized thermal conductivity and efficient heat transfer.
Microchannel geometry optimized through CFD simulations to maximize fluid surface interaction and minimize pressure drop.
Embedded temperature sensors in strategic locations within the cooling loop and CPU cooling block.
Real-time sensor data used in a closed-loop control algorithm (implemented via Arduino or similar microcontroller), adjusting flow rates and fan speeds instantly.
SolidWorks
SolidWorks Visualize (alternative to KeyShot)
Notion
Component and system design
3D CAD modeling and prototyping
Thermal simulation and performance validation
Design for manufacturability and assembly (DFMA)
Documentation and portfolio presentation
4 months
Designing a sealed PCM cavity that seamlessly integrates into the CPU cooling block without adding significant height or complexity.
Ensuring consistent thermal cycling without degradation through FEA and thermal fatigue analysis.
Mechanical analysis (FEA) to ensure cooling block withstands thermal expansion cycles over extended usage periods without leakage or failure.
Project in progress - More plots and results coming soon