Cooling/Ventilation/Heating Modifications TRIZ Cases

One motor drives multiple fans via a linkage, reducing noise and energy consumption while maintaining cooling efficiency.

A relay circuit board directs cooling air to multiple units, reducing pressure loss and enhancing scalability.

Vertical micropins on a pin plate spray cooling fluid to generate turbulent flow, improving heat dissipation without complex nozzle systems.

A radiographic apparatus uses a heat transfer member to move thermal energy from electronic components to the casing.

Crosslinked polymer foam structures accommodate high filler loading to boost thermal conductivity while preventing cracking and shrinkage during manufacturing.

A talc-filled polypropylene housing connects to an aluminum heat sink via an elastomer layer that absorbs thermal expansion, preventing structural damage.

Offset shelf positions and angled hardware direct exhaust heat into a hot aisle, reducing energy consumption while preventing hot spots.

Segmented circuits maintain safe component temperatures while raising oil temperature for domestic hot water recovery.

Additive manufacturing merges the chassis and embedded cooling channels into a single unit, eliminating fasteners to reduce lead times and costs.

A vehicle controller cooling module uses a horizontal heat pipe and dual fans to transfer thermal energy from internal components.

A re-entrant cold plate design channels coolant fluid directly against electronic components to enhance heat transfer efficiency.

A chimney heat exchanger pre-cools heated air using a phase-changing working fluid to enhance thermal transfer efficiency.

Automated airflow balancing system adjusts fan speeds using real-time sensor data to maintain optimal cooling conditions.

Injection ducts deliver pressurized airflow to thermally challenged rear components, resolving inadequate cooling in densely packed server racks.