Cooling/Ventilation/Heating Modifications TRIZ Cases

Profile element liquid heat exchanger reduces thermal resistance and weight by merging fluid channels directly into the protective housing.

Nickel plating on copper cold plates prevents oxidation and tarnishing, maintaining thermal conductivity while extending system lifespan.

A server heat dissipating assembly uses a second cooling fin set to redirect airflow for efficient thermal management.

A constricted convection cooling system directs airflow through a channel behind an electronic display to remove heat from the posterior surface.

A housing with projecting portions of varying heights contacts a substrate via a heat dissipation member to manage thermal energy.

Fluorinated olefin refrigerants cool electronics through immersion, balancing low GWP with high thermal stability for compact devices.

Pivoted wind deflectors with snap engagement adjust airflow direction to improve cooling efficiency across different device sizes.

A display device places a heat sink between backplanes to radiate heat, reducing internal temperatures and extending service life.

Rotatable cooling fans reposition to maintain airflow in electronics enclosures, preventing noise and power spikes when a primary unit fails.

Rail-guided press-on elements compensate for module warpage, ensuring consistent pressure and reliable heat dissipation.

Dynamic control of pumps and fans minimizes energy use while maintaining temperature reliability across varying thermal loads.

Segmented airflow zones direct cooling air to server components, resolving heat load bottlenecks without increasing fan power or noise.

Hold-down member segments force application to prevent bare die damage while ensuring uniform thermal contact.

A single-phase immersion liquid cooling system uses a flow regulation unit with pressure detection to adjust coolant distribution across parallel cabinets.

Flexible fluid reservoir device captures residual liquid runoff during computing system disconnection from rack manifolds.

Metal sleeve seals dielectric plates, preventing electrical shorting while maintaining thermal conduction.

Direct mechanical connections eliminate external conduits, maximizing housing volume and heat dissipation capacity.

Segmented air ducts prevent heat transfer between front and rear main boards, reducing thermal accumulation and improving device reliability.

A tilted fan directs airflow through an air-leading duct to cool electronic components, resolving size and noise trade-offs.

Dual-loop cooling system separates internal circulation from ambient exchange via a heat exchanger, resolving radiative heat and contaminant risks.

A perimeter seal holds an optically clear fluid in the gap between a display cover and panel, matching refractive indices to eliminate parasitic reflections.

A thermally conductive housing with a sealed cavity supports hashboards for direct immersion cooling.

Segmented cooling ducts with universal interfaces allow independent power module exchange without losing coolant or disrupting thermal management.

Press-formed AL1050 heat sinks reduce head-up display weight and cost while maintaining thermal conductivity.

A buffering unit stores cooling fluid during low demand and discharges it via gas pressure to balance heat loads without pumps.

Integrating cooling ducts into the cabinet plinth maintains structural stability while reducing the overall footprint compared to side-mounted systems.

A heat sink fin uses controlled hydraulic diameter to drive gas-liquid plug flow for enhanced thermal exchange.

An air handling unit preheat damper mixes warm exhaust air with cold ambient air to prevent ice accumulation on the mist eliminator.

Segmented cooling plates with self-mating connectors enable independent card-level servicing.

A thermal ducting rail guides cooling air from the front face to the external side of a rack device.

A printed wiring board hermetically seals liquid coolant within an immersion cooling housing while enabling electrical connections.

A leak segregation chassis guides cooling fluid into a dedicated detection channel, preventing liquid contact with sensitive electronic components.

A hybrid coolant distribution unit circulates fluid through internal heat exchangers in each node bay.

A water-cooling system targets high-heat hosts using cooling plates and injector heads to evaporate liquid directly on server surfaces.

A cooling assessment system processes temperature and capture index data to visualize airflow effectiveness across IT equipment units.

A hermetic sealed enclosure integrates a closed loop liquid circuit and spring clips to manage thermal energy in power electronics.

A heat exchange circuit redirects waste heat from rack computers to maintain temperature and humidity in isolated tape library environments.

A detachable temperature regulating module integrates a regulator and exhaust fan to manage internal cabinet heat.

A single-phase immersion cooling system integrates a circulation pipeline and driving mechanism within a partitioned cabinet for closed-loop thermal management.

U-shaped air flow channels route air across components to resolve the trade-off between operating velocity and heat removal efficiency.

A sealed coolant passage design uses a recessed web structure with multi-stage ring seals to contain cooling fluid within an electronic control unit.

Replacing motor-driven pumps with a linear actuator reduces noise and vibration while maintaining efficient thermal management in autonomous vehicles.

A volume compensator absorbs thermal expansion and pressure spikes in accidental closed loops, protecting connectors from failure during disconnection.

Segmented horizontal and vertical cooling modules scale capacity to match IT load, reducing costs and deployment time in partially populated facilities.

A modular cooling bracket positions a heat exchanger and blower below server cabinets to direct cold air upward through dedicated ducting plates.

Segmenting heat dissipation between liquid cooling for CPU/GPU chips and air conditioning for other components improves overall refrigeration efficiency.

A heat-conductive panel mechanically attaches a circuit board and conducts thermal energy to the exterior, eliminating forced convection complexity.

Liquid immersion cooling tanks replace noisy air systems by submerging modular server blades in dielectric fluid to eliminate noise and dust exposure.