Cooling/Ventilation/Heating Modifications TRIZ Cases

Segmented drycooler and chiller modules share water, power, and signal interfaces to scale capacity without adding hydraulic infrastructure.

Offset stacked fan modules deliver high airflow to manage thermal output without complex raised floor infrastructure.

Insertion-direction heat transfer lowers thermal resistance in exchangeable electronics assemblies by aligning cooling paths with mechanical fastening.

A dedicated secondary condensing system manages vapor from IT containers, preventing coolant loss and ensuring reliability in hyper-scale deployments.

Retractable conductive springs eliminate metal wiring cables, reducing parasitic inductances and thermal fatigue for reliable power module operation.

A design system calculates cooling-airflow-supply and return effectiveness metrics for IT equipment using computational fluid dynamics.

Segmented cooling modules with integrated chillers prevent coolant temperature rise during transport through long server rack fluid circuits.

Segmented airflow paths eliminate large plenums, maximizing electronics volume while maintaining cooling performance.

Compressing vapor from electronic component cooling recovers thermal energy, reducing waste and improving efficiency.

Embedded fluid channels in the component carrier remove heat directly, eliminating external heat sinks and resolving thermal management complexity.

A cooling assembly for electronic displays uses circulating gas and external air to manage heat.

An inlet orifice in the cooling circuit draws leaked heat transfer fluid back into the system, preventing corrosion and extending operational lifetime.

A hybrid liquid and air cooling system circulates airflow through a sealed housing using internal liquid cooled heat exchangers.

A thermodynamic driver converts heat into mechanical force to power refrigerant circulation.

An immersion cold plate uses an impingement plate to distribute cooling liquid across parallel fins before contact.

Heat sink fins and baffles circulate air along vertical channels to enhance thermal exchange in base stations lacking wind.

Dielectric fluid absorbs waste heat from image sensors, reducing thermal throttling during high-speed autofocus operations.

Conductive thermal plates bridge the image assembly and housing to dissipate solar heat, maintaining brightness without contaminant ingress.

A box chassis heat dissipation system circulates heated air to prevent vapor condensation on internal circuit boards.

An integrated thermal management system combines air-to-air, liquid-to-air, and direct expansion cooling loops for efficient data center heat removal.

Adjustable intake coupling with vanes directs hot air exhaust through dedicated ducts to recirculation points.

A fan module uses a traction structure to pull the bracket from inside the case.

A specialized tool with a shaped portion and handle engages wire-spring heatsink torsion springs.

A hybrid liquid cooling system circulates channelized fluid through a serpentine convection coil to thermally condition dielectric immersion cooling liquid.

An economizer with internal and external heat exchangers manages thermal transfer in edge containers.

A configurable double-sided manifold micro-channel cold plate uses a single insert to distribute coolant fluid across modular heat sinks.

A partitioning wall plate creates separate internal spaces to guide airflow from a fan toward thermal conductors.

Independent louver positioning redirects cooling air to specific IT racks, resolving overheating risks when loads exceed initial design capacities.

A flexible retention ring contains liquid thermal interface material within a defined reservoir structure on electronic components.

A server rack spray cooling system delivers fine dielectric coolant droplets to electronic components for direct heat absorption and vaporization.

Segmented thermal shields prevent hot and cold air mixing in data centers, maintaining temperature purity while elevated wiring avoids heat interference.

Segmented thermal module plates customize heat transfer structures to resolve pressure drop and versatility contradictions.

A dedicated thermal link transfers heat from cell capacitors to a forced convection boiling cooling system.

A power conversion device casing features a segmented refrigerant flow passage groove to enhance cooling capacity for mounted electrical components.

Above-platform ball valves enable rapid isolation of rack manifolds, eliminating the need to remove floor tiles and reducing maintenance downtime.

Hollow tubes deliver cold air directly to servers, eliminating raised floor plenum systems and reducing fan power consumption.

Segmented cooling modules and adjustable partitions manage heat loads while reducing construction time for scalable data center deployments.

A converter housing uses integrated cooling channels to transfer heat from power semiconductors directly to circulating lubricating oil.

Serialized liquid cooling arrangement reduces global flow rates, enabling smaller pumps and piping while maintaining effective heat dissipation in datacenters.

A movable adjustment plate segments the liquid inlet space to balance heat dissipation across servers and reduce pump power consumption.

A sensing unit detects environmental parameters to adjust heat dissipating parameters for optimal thermal management.

Heat pipes conduct heat from server chips to external cooler elements, eliminating internal water cooling risks.

An exhaust channel circulates air through a display enclosure to dissipate heat without active refrigeration components.

A cooling unit with a duct and fan cools imaging and control substrates along the optical axis.

A rotatable immersion tank circulates secondary refrigerant to cool electronic devices.

An orthogonal cold plate directs coolant parallel to the base before turning between fins.

A cooling circuit uses adhesive bonding and rivets to secure the cover.

Segmented thermal loops eliminate single-point failures in data center racks, ensuring continuous operation during primary loop faults.