Stationary Conduit Assemblies TRIZ Cases

A cooling apparatus uses vertically assembled headers to connect tube main bodies and attach double-sided chip modules via heat-radiating adhesion.

Passage screen aperture distributes refrigerant-oil mixture across flat tubes in a heat exchanger.

A graphitic heat spreader element conducts thermal energy from battery cells to a cooling mechanism.

A heat exchanger central pipe functions as a degassing chimney to remove gas bubbles from liquid before distribution.

Varied louver configurations on corrugated fins distribute frost to prevent air passage closure and maintain airflow.

A bypass damper routes airflow through a dry heat exchanger to abate plumes while avoiding static pressure drop and energy waste.

An integrated heat transfer device eliminates vapor chamber cooling fin set heat accumulation by using a working fluid for continuous phase change conduction.

A heat transfer device induces elastic turbulence in flowing fluids to boost thermal exchange rates.

Continuous collar plugs seal manifold process holes, preventing individual plug loss during welding to improve processing efficiency.

Undulated strips form virtual channels that boost surface area while avoiding fouling and pressure drop from traditional fins.

A collector plate groove with an interior wall connects the bottom to an intermediate portion, providing mechanical support for sealing means.

An aluminum alloy with controlled Fe, Cu, Mn, Zr, Ti, and Cr content enables extrudability for microporous hollow shapes.

Transverse channels link longitudinal flow paths within integrated headers, resolving soldering complexity and refrigerant volume constraints.

A header plate with beads deforming the planar surface to reduce thermal stresses at tube joints.

Segmenting the core into sacrificial and protected zones allows compact installation while maintaining thermal performance and preventing air pressure drops.

Segmented thin planar members with etched micro-channels increase heat transfer surface area while simplifying manufacturing of complex geometries.

Segmented connector body with L-shaped channel enables horizontal orientation changes in tight installation spaces.

Offset corrugated heat transfer surface creates turbulent fluid flow paths while minimizing pressure drop across the exchanger channels.

Airflow guiding device forces gaseous heat dissipation medium to condensing structure, preventing liquid escape and boosting condensation efficiency.

Local wall deformations in a heat exchanger tube enhance fluid mixing while controlling pressure drops across the circulation channel.

Segmented spacers maintain fin intervals while preventing air passage clogging and frost buildup during defrosting cycles.

A flow diverter redirects inlet fluid to distribute volume evenly across multiple tubes in a heat exchanger tank.

Partition walls divide the tank into regions with varying resistance, balancing temperature gradients and preventing cracks in integrated heat exchangers.

Optimized fin spacing and elliptical tube geometry increase heat exchange capacity while maintaining low air pressure drop.

Removing the header inner flange reduces stress concentrations by up to forty percent while maintaining a fluid-tight seal.

Guide walls segment wavy fins to direct heat medium flow, reducing separation and pressure loss while maintaining thermal performance.

A segmented header tank design featuring a partition wall with main and auxiliary communication holes to optimize refrigerant flow distribution.

An integral baffle seals the distribution device open end, eliminating separate components and reducing manufacturing time.

An integrated heat exchanger merges evaporation and condensing sections into a single structure to reduce manufacturing complexity.

A bent heat exchanger flat tube uses a twisted connecting section to reduce overall height and facilitate installation.

Segmenting the seal into open longitudinal grooves removes complex tooling requirements for different dimensions while maintaining tightness.

A porous metal heat dissipation structure with a super-wetting layer enhances thermal connection between the interface material and the spreader.

A method for manufacturing B-shaped condenser tubes using pre-formed apertures to guide severing operations along a continuous metal strip.

A bent heat exchange device uses a grid-type partition to maintain structural integrity while achieving high thermal efficiency.

External frame portions grasp the outer periphery of stacked flat tubes to resolve positioning difficulties during header-less core assembly.

Localized side plate contacts bond to headers, allowing relative movement during thermal expansion to prevent tube header fractures.

A V-shaped heat exchanger uses segmented core units to expand surface area and improve thermal transfer efficiency.

Support fluid maintains inner and outer tube contact during helical bending, preventing cavity formation and improving heat conduction.

A pipe heat exchanger uses adjacent sections spaced closer than the pipe diameter to combine radiant and convective heating mechanisms.

Segmented flux layers form a deep Zn-diffusion layer while reducing total coating thickness to maintain dimensional accuracy.

Looped core plate sealing surfaces evenly clamp seals to prevent tube cracking during assembly while maintaining brazing quality.

A radiator module uses a flow restrictor plate in the inlet tank to regulate coolant distribution between parallel cores.

Automated seam welding joins radial-flow plate heat exchanger sheets, eliminating manual labor costs while maintaining connection reliability.

A multi-row heat exchanger coil mounting assembly secures adjacent coil rows using integrated connection members and L-shaped barrier sheets.

Segmenting the connection device into an extruded socket and thin stamped plate cuts material usage while maintaining structural integrity.

A dual heat exchanger system distributes fluid flow through parallel pipes to maintain cooling capacity.

Segmented microchannels with radial flow reduce pumping power while stabilizing coolant distribution for electronic cooling.

Offset tube ends allow alternating insertion into header boxes with constant pitch holes, simplifying assembly of modular heat exchangers.

End flange extensions widen the brazing surface area to resolve defects in thin heat exchangers while maintaining aerodynamic rim functionality.

A header tank foot portion includes a controlled groove that retains the sealing member during assembly.