Cooling/Ventilation/Heating Modifications TRIZ Cases

Nested housing and leak-proof conduit redirect leaked coolant to sensors, resolving low accuracy in liquid cooling device leakage detection.

An integrated finned heat sink reduces excessive thermal interface material usage while improving heat dissipation through increased surface area.

An isothermal cooling design balances heat distribution across a PCB assembly using a vapor chamber, preventing hot spots that cause thermal throttling.

A Venturi chamber directs ambient airflow across a heatsink to draw heated air through forced convection.

Flexible panel assemblies enclose hot aisles to prevent cool air mixing, reducing energy consumption and installation costs.

A cooling model adjusts ambient temperature and airflow values using measured inlet and exhaust air data to predict future thermal conditions.

A mobile condenser moves within a sealed container to service multiple IT enclosures, reducing fluid loss and hardware complexity in high-power data centers.

Merges tube support sheet and air handler casing to lower manufacturing costs while maintaining structural stability.

A power converter assembly mounts transistor modules directly to a liquid cooled heat transfer surface within the housing.

Submerging power electronics in fluorocarbon liquid removes heat via nucleated boiling, resolving thermal limitations at high power levels.

Segmented manifolds with active flow control resolve high heat flux rejection limits while maintaining manageable system complexity.

A socket cover integrates an air impeding structure to shield unpopulated processing unit sockets from physical damage during installation.

An elliptical immersion cooling tank assembly with a manifold system distributes liquid flow to condenser tubes.

A filtration system uses real-time sensor data to adjust pump speeds and valve settings for immersion cooling coolant.

A bypass air plenum directs isolated airflow to mix with inlet streams inside rack-mountable computer systems.

External condenser design maintains coolant levels without breaking the loop, enabling maintenance on high-density IT racks.

A hybrid cooling system uses an HVAC heat exchanger to cool information technology equipment fluid.

A garment integrates a UV-C LED array and sensor to automate hand disinfection.

A closed-loop refrigeration system uses a vertical evaporator to increase cooling capacity within standard cabinet dimensions.

Hexagonal tank geometry optimizes condenser tube capacity and simplifies maintenance access for heat-generating components.

A three-chamber liquid cooling system alternates pressure states to stabilize coolant flow, eliminating pipeline leakage risks caused by unstable transitions.

A composite material disperses thermally conductive particles within a metal matrix to maintain heat dissipation properties.

An integrated cooling assembly uses vertically arranged heat exchangers and a liquid distribution sub-system to manage thermal loads in high power density computer racks.

A vehicle head-up display cooling device uses a housing structure to dissipate heat through conduction and convection.

Vertical hybrid assemblies mounted on a heat sink reduce circuit board surface area and weight by utilizing the third dimension.

A refrigeration air wall apparatus integrates dehumidification and humidification units to regulate data center environmental conditions.

A magnet pump circulates fluorine-based insulating refrigerant, preventing leakage and erosion while maintaining flow rates.

A resin spacer electrically isolates the display from the conductive panel, suppressing static electricity influence and preventing liquid crystal cell burnout.

Segmented rack-level cooling manages high server density and heat while reducing energy consumption compared to centralized systems.

An exhaust duct redirects horizontal airflow to a vertical path within a modular fluid-handling system.

Bi-directional fluid conduits and high conductivity interface blocks enable effective cooling of high-power circuit modules while reducing production costs.

A low-pressure environmental control system uses gravity drainage to collect leaking fluid into a reservoir.

Segmented cooling units supply localized airflow to data center racks, reducing energy waste from uniform temperature control.

A Venturi air guide creates a pressure gradient to extract heated air from electronic device cages.

Housing features segmented air vents directing cold air intake and hot air discharge to dissipate heat from circuit boards.

A symmetrical cold plate design uses identical frames and mating surfaces to form fluid chambers.

A modular coolant liquid manifold distributes cooling fluid to multiple cold plates within an IT enclosure.

A fluid channel module directs cooling air through ducts and vortex formation members to enhance heat exchange efficiency.

A pressure-controlled vessel condenses dielectric vapor back into liquid, preventing component exposure and reducing energy consumption.

A heat dissipation device applies thermal paste only to circuit board heat source areas and uses cooling blades to guide conduction.

A passive internal return loop separates vapor and liquid coolant states to enable gravity-driven circulation without mechanical pumps.

Sealed enclosures use dielectric fluids and passive wall conduction to dissipate heat, eliminating active fans and cutting energy consumption by 50%.

Integrating light source substrates into the bottom chassis via a bonding member eliminates gaps that cause vibration and noise while improving heat radiation.

An integrated heat dissipation assembly simplifies installation by merging separate components into one unit, reducing PCB deformation risks.

A drain manifold connects to a component connector to remove coolant, enabling lighter handling and recycling of fluid during maintenance.

A fluid connection module uses a motor-operated blade to disengage connectors from rack cooling systems.