Heat Exhanger Conduits TRIZ Cases

See how a partitioning member with communication holes stabilizes refrigerant flow across stack

See how a concave fin profile with varying refrigerant pipe spacing matches non-uniform air flo

See how profiled stacked plates convey supercritical helium to achieve high cooling power and t

See how segmented refrigerant paths with a pressure loss part divert flow to prevent frosting o

See how asymmetric plate patterns with different ridge angles and channel volumes balance refri

See how a partitioning member with positioned communication holes distributes refrigerant unifo

See how asymmetric flow path lengths in a branching tube balance refrigerant flow rates without

See how varying microchannel tube widths and angles increases heat transfer surface area while

See how overflow-connected liquid chambers enable sequential refrigerant accumulation and perip

See how an obtuse trapezoidal hole matrix and collar design enhance condensate drainage in evap

See how variable gap spacing between flat pipe joints in a gas header reduces refrigerant press

See how a heat exchange tube with variable interior port height reduces material usage while ma

See how an obtuse trapezoidal hole matrix in louvered evaporator fins enhances condensate drain

See how fluidly connected liquid chambers accumulate refrigerant sequentially to reduce compres

See how asymmetric flow path lengths in a branching tube balance refrigerant distribution acros

See how reversible refrigerant flow paths through windward and leeward flat tubes enable effici

See how a flow guide device with receiving and guiding portions redirects condensed liquid to r

See how folded micro-channel panels with inclined surfaces increase convective heat transfer an

See how inclined flat tubes with plate fins improve heat exchange efficiency while reducing eva

See how offset low- and high-temperature coolant inflow portions create a temperature gradient

See how a double-row bent heat exchanger with segmented headers and dual bending axes reduces b

See how graduated flow channel areas across four tube portions balance windward-leeward tempera

See how multi-bend heat exchanger tubes with angles ≤90° and straight sections reduce airflow p

See how a nonlinear coolant tube with variable thermal resistance reduces frosting rates and ex

See how eccentric tube positioning in a refrigerator heat exchanger aligns with faster airflow

See how a Tesla valve gas passage structure increases condensation contact area to prevent phot

A lower heating unit circulates hot fluid through unequal-length heat pipes to improve front-side evaporator defrosting and reduce energy use.

See how a two-zone tube configuration uses smooth tubes for initial fume cooling to protect fin

See how dual-side refrigerant branch pipes with three-way joints enable flexible routing withou

See how segmented flat tubes with twisted sections and dual headers reduce bending radius and e

See how expanding baffles with segmented radiating extensions retrofit into fryer heat exchange

See how cross-sectional constriction elements and longitudinal ribs maintain flow velocity and

Integrated fans and flow channels around Peltier heat exchangers improve cabinet heating or cooling while keeping the module compact and scalable.

A narrowed outlet section and ribbed insert keep exhaust gas velocity and turbulence high, improving condensing boiler heat transfer.

Selectable branch pipes let AC heat exchangers route refrigerant lines from either side without pipe bending or rear clearance.

A resilient omega-shaped metal holder snaps pipes into trapezoidal grooves to improve floor heating contact, heat transfer, and installation ease.

Preformed grooves in the insulating layer integrate pipes and headers, cutting installation time, plaster dust, and thermal bridges.

Integrated rear headers preserve the full radiant front surface while simplifying panel manufacture, connection, and installation.

Variable-height corrugations form a truss-like wall that resists cooling shrinkage and inward deflection in non-circular corrugated pipe.

Non-circular flow channels deform under battery cell expansion to preserve coolant volume, maintain cooling efficiency, and avoid overflow tanks.

Parallel cooling units with series pipes shorten flow paths, cut joint count, and improve battery pack temperature consistency.

Multi-stage flow-dividing channels raise coolant distribution density in battery heat exchange plates to improve temperature uniformity and pack life.

Varying inner-pipe protrusions by section cuts pressure loss at bends while preserving strong heat exchange in straight double-pipe runs.

Sidewall projections keep liquid cooling channels open under battery pack deformation while improving sealing to prevent leakage.

A single heat exchange plate uses separate flow channels to cool battery cells and electronics, cutting space, cost, and system complexity.

Segmented first and second flow channels balance battery edge and center temperatures, improving pack stability and service life.

Switching coolant flow direction in a battery heat exchange plate helps avoid uneven cell temperatures during both cooling and heating.

Helically offset protrusions with region-specific tube geometry sustain heat transfer while limiting passage narrowing and bend pressure loss.

Different hole geometries calibrate coolant flow between a standard manifold and cooling plate to improve battery temperature uniformity.

Parallel cooling units with series-connected pipes cut joint count and cooling path length, improving battery pack safety and temperature consistency.

Non-circular asymmetric tube profiles improve the balance between hydraulic resistance, heat transfer, and pressure strength in cross-flow exchangers.

A concentric cylindrical core with diverging and converging channels improves heat transfer while reducing pressure loss and size.

Offset-angle composite elements and undulating shaft sections deliver bending flexibility while preserving torsional stiffness and reducing coupling weight.

Helically offset protrusions split the annular flow path into tuned channels that raise refrigerant velocity while limiting pressure drop.

A curved coalescing tube bundle condenses aircraft water vapor and works with swirl vanes to collect liquid without a separate condenser.

A smoothly varying U-bend cross-section cuts pressure drop and erosion in fluid networks while limiting fouling and operating cost.

A smooth, continuously varying U-bend cross-section cuts pressure drop and erosion while limiting fouling in fluid networks.

A trapezoidal plate-fin layout fills non-square compartments, cutting dead space and improving heat transfer in aircraft ECS packaging.

Spiral fluid pathways made by additive manufacturing boost heat transfer per unit axial length while enabling compact exchanger geometry.

Angled bottom-surface tubular ports increase weld area, fluid flow capacity, and installation flexibility in Roll-bond plate heat exchangers.

Concentric walls and diverging-converging channels improve heat transfer while cutting pressure loss, size, and weight.

Drilling one bonded plate and adding angled tubular connectors improves heat exchanger connection stability, flow capacity, and installation flexibility.

Spiral fluid pathways increase heat exchange per unit length, enabling a compact heat exchanger with complex geometries made feasible by additive manufacturing.

Radial alternating channels and tapered walls improve counter-flow heat transfer while reducing exchanger size, weight, and pressure loss.

Wavy fins and hollow radial vanes improve counter-flow heat transfer while cutting pressure loss, size, and weight in compact cores.

Variable-helix spiral flow passages improve heat transfer per axial length while enabling compact heat exchanger geometry via additive manufacturing.

Curved, isolated flow circuits in a checkerboard layout improve heat transfer, lower pressure loss, and shrink high-temperature heat exchangers.

A copper-alloyed austenitic stainless pipe lowers strength and hardness to enable bent forming while retaining corrosion and pressure resistance.

Concentric diverging and converging channels improve heat transfer while reducing pressure loss, size, and weight in compact heat exchangers.

Integrated headers and alternating channel plates cut dead space, simplify welding, and improve compact high-pressure heat exchange.

Three spiral flow passages between concentric tubes raise heat transfer, limit gas retention, and simplify cleaning and coating.

Oscillating heat pipes spread beam-generated heat for near-instant, high-resolution profiling of high-energy beams with lower size and power demand.

Varying tube diameters and spacing breaks vortex shedding coherence in tube bundle heat exchangers, cutting noise, resonance, and fatigue.

A grid of independently tuned heat-transfer modules raises heat exchange capacity while keeping corner thermal stress within limits.

A fractal radial manifold equalizes channel lengths to cut thermal stress, pressure drop, and internal supports in additive manufacturing.

Different pressure-loss regions and turn-tank flow control help uniformize discharged air temperature while limiting refrigerant pressure loss.

Different pressure-loss regions and communication holes balance refrigerant flow to make outlet air temperature more uniform.

Spiral outer and inner burner channels connected by folded passages deliver uniform cooling while keeping pressure loss low with one-side inlet and outlet.

Angled flow diverters inside plate-fin channels redistribute single- and two-phase flow to improve heat transfer without changing external ports.