This design phase establishes the fundamental airflow dynamics within the chassis. The objective is to create a balanced pressure differential that drives cool air in and hot air out efficiently. Engineers must map intake locations relative to heat sinks and exhaust ports relative to thermal vents. Proper alignment prevents hot spots, reduces noise levels, and ensures consistent component temperatures under load conditions.
Define the primary intake and exhaust zones based on chassis geometry and component placement.
Calculate required fan RPM curves to achieve target air velocity across all airflow paths.
Validate thermal simulations against established CFD models to confirm uniform cooling distribution.
Map all existing intake and exhaust ports relative to major heat-generating components.
Select appropriate fan models that match the calculated airflow requirements for each zone.
Configure control logic to adjust fan speeds dynamically based on sensor feedback.
Execute thermal stress tests to validate that all components remain within safe operating temperatures.
Import chassis geometry into simulation software to visualize air paths and identify bottlenecks before physical prototyping.
Run computational fluid dynamics simulations to predict temperature gradients and verify design compliance with thermal standards.
Audit the placement of fans, radiators, and heat sinks to ensure unobstructed flow paths and optimal pressure differentials.