Cooling/Ventilation/Heating Modifications TRIZ Cases

An air shroud uses channels and deflectors to direct airflow over processor heat sinks.

A face plate blocks heated exhaust from mixing with the cold aisle, preventing server temperature rise and reducing power consumption.

A sealing member fills capacitor housing spaces to transmit heat directly to the metal case.

A cross-flow heat exchanger transfers thermal energy between circulating and ambient gas streams to cool electronic displays.

Compressed air cooling systems remove waste heat from data centers by expanding stored air through nozzles, reducing acoustic noise and system complexity.

Hinged bracket relocates components to lateral positions, resolving cable management complexity.

Segmenting the outer case into two members with an insulating layer prevents circuit board heat from degrading the display element temperature.

Expandable MEMS chambers and directional valves control working fluid flow through micro-channels, resolving size constraints in compact electronic devices.

A hollow fluid blocking member fills unused tank volume in immersion cooling systems to stabilize coolant distribution.

A movable pump assembly with a stopper mechanism slides through a housing opening for direct component access.

An aperture baffle with inward-facing flanges creates a funnel to guide exhaust air away from IT gear, preventing hot air recirculation into the cold aisle.

A rack design positions electric and fluid connectors at different horizontal locations to prevent liquid contact.

Sliding server enclosures enable top access for servicing while liquid immersion cooling maintains thermal stability in dense rack configurations.

A 3D printed manifold directs immersion cooling fluid flow between computing components and a heat exchanger.

A jet impingement cooling system directs dielectric fluid jets at electrical conductors to enhance heat transfer.

Gas circulation pipes deliver combustion products to a detector that triggers a power breaker, preventing undetected burning in immersion cooling systems.

Differential channel geometries match local flow resistance to heat generation, eliminating dead-water regions and optimizing thermal management.

Flow guiding structure directs air from intake to exhaust vents, maintaining total volume while improving heat dissipation in vacant slots.

Segmented evaporator and condenser units with thermal shields contain hot air to improve cooling efficiency in co-location facilities.

Directed airflow maintains mercury amalgam temperature within the 80-140°C range, preventing melting and ensuring stable UV output in air disinfection.

Dual circuits cool equipment and ambient air in valve halls, reducing complexity and power consumption.

A symmetrical dual fluid distribution unit integrates redundant pumps and universal connectors to manage liquid coolant flow.

Segmented supply and circulation ducts utilize pressure differences to drive airflow, eliminating hotspots without adding power-consuming fans.

Standardized mounting arrangements enable interchangeable modular heatsinks that prevent thermal interface material damage during insertion.

An adjustable inlet module uses a positioning plate to reduce airflow area through a secondary passage.

A cooling bracket positions a heat-exchange device and air-ducting unit below server cabinets to deliver cold air directly to the equipment.

Segmented liquid cooling valves isolate detected leaks, preventing coolant accumulation and maintaining server rack efficiency.

An enclosure features an integrated conducting plate exposed to inner and outer surfaces to transfer heat from electronics.

A flexible conductor joins a pressfit diode lead to a terminal connector within an automotive rectifier assembly.

Intelligent refrigerant distribution unit uses phase change cooling to remove heat without high flow rates that cause erosion and corrosion.

A movable panel separates cold air in data center corridors from hot air above, reducing leaks and improving cooling efficiency.

Movable front connectors decouple serviceability from rack complexity, enabling blind mating without manual alignment.

An angled card cage reorients circuit cards to optimize front-to-back cooling airflow paths.

A handle rotates the fan assembly to reverse airflow direction, eliminating time lost removing and reinstalling modules.

Dual gas pathways cool display components while preventing dust contamination and reducing noise emissions through integrated heat exchangers.

A combined power and cooling rack consolidates bulk power assemblies and heat exchange units to supply energy and remove thermal loads from electronics racks.

An adapter couples liquid cooling loops to rack manifolds using integrated flow control devices.

A subsea data vessel immerses server boards in dielectric fluid to extract heat through thermal conduction.

Asymmetric air guiding apparatus redirects hot air from faulty fans, preventing recirculation and maintaining heat dissipation reliability.

A heat dissipating system for data centers uses an air processing unit with adjustable airflow channels and dampers to manage cooling.

A differential pressure relief mechanism opens an air passage in a data center air barrier to equalize airflow between cold and hot aisles.

A liquid manifold fits into standard air mover bays to fluidically couple with external cooling systems.

Air conditioning unit for data rooms uses variable-speed centrifugal compressors and outdoor heat exchangers.

Injection plates accelerate coolant fluid to specific chip hot spots, resolving insufficient localized cooling in immersion environments.

An immersion cooling system circulates fluid through modular IT compartments to manage thermal loads in high-density data centers.

Variable speed pumping units share refrigerant flow to maintain sufficient fluid circulation during unit failures.

An integrated heat dissipating structure guides cooling air through a housing, preventing dust interference and electromagnetic compatibility issues.

Additive manufacturing creates a sealed monolithic heat sink, resolving sealing errors and compactness limits of conventional joined parts.

Magnetic blocking tiles cover unused perforated floor areas, directing cooling air to installed equipment and eliminating localized heating.

Integrating a thermoelectric cooler controller inside the main enclosure eliminates separate housing and hardwired harnesses, reducing system complexity.