Reinforcing Means TRIZ Cases

See how identical side plate structures with aligned flanges and mounting brackets prevent heat

See how multi-row drain slits positioned between louver groups balance condensate drainage capa

See how a nested distributing pipe with positioning groove and cover plate protects the vulnera

See how a clamping spacer with restricted movement prevents heat exchanger and bottom plate con

See how embossed stabilizing ribs in thin channel plates enable 200 bar pressure resistance for

See how recessed external plates create localized thermal pathways to reduce temperature gradie

See how outward curvature in manifold receptacles creates tensile stress to resist internal pre

See how segmented protrusions on partition walls prevent fluid mixing in cracked double-wall he

See how a skirt-formed chamber with varying gaps distributes fluid evenly and withstands high p

See how a reinforcement member supported by end plates prevents fin layered body deformation un

See how identical side plates with same-direction flanges prevent misassembly, simplify materia

See how aluminum heat exchangers use sacrificial layers and differentiated fin pitch to suppres

See how chamfered insertion ends and positioning wings enable tear-free assembly of multi-row c

See how a two-plate partition assembly solves sealing failures and flow resistance in condenser

See how opposite-inclined louver groups and segmented drain slits improve condensate drainage i

See how a wave-shaped header profile with multiple troughs and crests distributes thermal expan

See how a wave-trough header profile distributes thermal stress at tube joints, improving therm

See how asymmetric inner diameters in header collecting pipe curved portions reduce internal sp

See how asymmetric curved portions and intermediate partitioning reduce header volume and refri

See how hollow external plates facilitate heat conduction to limit temperature gradients and me

See how reinforcing elements connected to headers prevent buckling and warpage in flat heat tra

See how distributed support structures in parallel plate assemblies maintain channel geometry f

A single steel tube-bundle circuit cuts manual welding, lowers coolant use, and improves sealing and thermal control in gas-absorption heat pumps.

Parallel fibers and thermoconductive strips separate heat and sorbent transport to raise storage density while limiting melting and scaling.

See how a composite plastic housing with metal reinforcements simplifies condenser assembly, re

See how inverting protrusion placement at upstream and downstream tube ends shortens joint dist

See how a partitioned cavity design separates vacuum insulation from vapor-chamber cooling to p

See how integrated side arms and support frames stabilize the vapor-liquid separator horizontal

See how a partitioned folding-back header with ascending and descending spaces prevents refrige

See how a guide portion inserted into a backup member's side opening ensures precise orientatio

See how inclined fin ribs with extension and enlarged portions direct condensed water away from

See how a partitioned header with guide space and asymmetric ports minimizes uneven refrigerant

See how a bending assembly with pre-formed creases and through holes prevents fin deformation d

See how a peripheral flat gap channel fully encloses the combustion chamber to distribute heat

See how expanded graphite panels with embedded pipes enable thermal storage in existing concret

See how compartmented thermochemical modules with microporous fibers and thermoconductive strip

Grouping flat tubes by twisting direction distributes bending deformation, prevents protrusion interference, and simplifies bent heat exchanger assembly.

See how corrective members sandwich heat transfer tubes and fins to suppress warping caused by

See how paired corrugated sheets form gas ducts that transfer heat directly from flue gas to co

A closed hollow reaction chamber uses exothermic heating to bring exhaust catalysts to working temperature faster and cut cold-start emissions.

Turbulence-shaped membrane plate channels improve heat and humidity exchange between air flows even when temperature gradients are low.

Corrective members sandwich heat exchanger tubes, fins, or headers to suppress warping, maintain alignment, and protect heat transfer efficiency.

Internal stiffening supports dual fluid channels where loads peak, resisting pressure and heat strain while keeping radiator flow resistance low.

Curved header walls spread water pressure to limit flexural deformation and welded-joint stress without adding thickness, weight, or cost.

Bulk brazing multiple condenser tube units with fin members and retainers cuts assembly time while preventing unwanted boundary brazing.

Polymer tube registers cut radiator weight, corrosion risk, and processing energy while maintaining heat exchange and pressure resistance.

Planar double-sided heat sinks with multiple coolant channels reduce cell temperature differences, improve heat transfer, and raise module energy density.

Non-circular rib protrusions interference-fit adjoining plates to hold alignment during brazing while reducing deformation and thickness growth.

A SUS thermal panel filled with water uses phase change to boost electronics heat dissipation while avoiding refrigerant reactions and high material cost.

A refrigerant flow panel uses vaporization and condensation zones to improve heat dissipation while avoiding larger fin structures and aluminum limits.

Inclined independent liquid return paths and a vaporization zone improve panel heat dissipation while enabling water-based cooling at lower cost.

Separated vaporization and condensation flow paths let a housing panel use water refrigerant for stronger heat dissipation and lower manufacturing cost.

Planar heat sinks with double-sided cooling channels cut cell temperature and thermal-resistance differences while improving battery module energy density.

Independent liquid return paths and a vaporization zone improve thin-panel heat transfer, support water refrigerant use, and reduce thermal concentration.

A stainless thermal panel filled with water uses phase change to improve heat dissipation while avoiding restricted refrigerants and reaction risks.

A phase-change panel uses a gravity-linked flow path and reinforcement pattern to spread heat while limiting pressure, cost, and thermal concentration.

Reinforced liquid return paths and an adjacent vaporization zone improve phase-change heat transport while enabling water-based cooling and lower cost.

A flattened tubular base with branched heat exchangers cuts installation space while preserving uniform heat-medium flow and temperature.

Localized laser welding and thicker tube end walls seal triple-point gaps in battery coolers, preventing coolant leaks and overheating.

A flattened tubular base with branched heat exchangers saves installation space while preserving heat exchange and flexible component layout.

Staggered internal supports and a copper intermediary plate prevent vapor chamber ripples during thermal cycling while improving heat dissipation.

A copper plate between the vapor chamber and heatsink buffers thermal mismatch, preventing ripples and improving heat dissipation.

Branching coolant channels split battery plate flow into managed subgroups to improve thermal homogeneity and reduce pressure losses.

Segmented heat pipes and coupled wick structures spread chip heat faster across a 2D vapor chamber, improving fluid return and cooling.

Capillary wick layers and condensate transport structures speed working fluid return, improving heat spreading and cooling of electronic components.

Integrated heat pipe extensions and coupled wick structures speed working fluid return and improve heat spreading in thin electronic devices.

A 3D condensing surface with wick structures and heat pipes boosts heat dissipation and fluid return in thin electronic devices.

Reinforcement members support bent cooling passages in battery pack plates to prevent cracking, preserve flow shape, and sustain heat exchange.

Protective elements on heat exchange plate front surfaces smooth thermal cycling, reducing stress cracks while preserving charge air cooler efficiency.

Straight heat-dissipating pipe sections span stacked fin assemblies to boost contact area, add rigidity, and save space in compact electronics.

An integrated reinforcing assembly lets a vehicle radiator absorb and divert crash forces, reducing passenger-compartment penetration risk and mounting complexity.

Spring-force compliance keeps manifold ports sealed to chip microfins, reducing warpage gaps, bypass flow, and cooling pressure imbalance.

A symmetrical dual water-jacket structure improves drive motor oil-water heat exchange while reducing mold, assembly, and channel fusion complexity.

An oblique internal support lets a battery thermal management component compress with cell swelling while maintaining heat conduction and reducing stress damage.

A vacuum upper tier and liquid lower tier cut mobile device skin temperature while sustaining processor performance in thin stacks.

Integrated base channels and folded-film heat exchange bodies remove joint pipes, cutting assembly cost and process count.

An integrally forged base plate with built-in frame and support pillars strengthens the vapor chamber, cuts assembly time, and reduces leakage risk.

Controlled gyroid wick geometry improves capillary return flow, reduces pressure drop, and delivers more consistent heat dissipation.

Reinforcing ribs and passivation help a middle frame vapor chamber keep heat dissipation while improving strength and anti-aging reliability.

Restricted torsion bars and side-plate supports spread fastening loads to limit bottom plate warpage and protect microprocessor connections.

An integrally forged base plate with frame and support pillars helps a vapor chamber resist thermal deformation, stay flat, and cut manufacturing cost.

A reinforcement member between matching bent plate sections prevents passage deformation and cracking, preserving battery pack heat transfer.

A water-rich coolant with 1,4-dioxane or glyme lowers ice hardness, limiting flat heat pipe deformation in low temperatures.

Spring-force compliance keeps manifold ports aligned with chip microfins, reducing bypass flow gaps, warpage effects, and cooling losses.

Compressible corrugated header slits let fin tubes insert easily, then tighten gaps to improve brazing quality and reduce refrigerant leakage.

A tubular connection element restores butt-welded tube-to-tube sheet joints in shell-and-tube equipment using conventional welding tools.

A forged base plate with integral pillars and an injection-molded outer frame helps vapor chambers resist thermal deformation, stay flat, and protect the infusion tube.

A mixed I- and Z-shaped support cut layout absorbs thermal expansion, reducing tube joint stress without adding manufacturing cost.

A dual-section seam and second-wall deflection improve flat tube flexibility and leak resistance under high pressure and temperature.

Deformable sealed compartments absorb welding stress in a brazed plate heat exchanger, enabling even catalyst distribution without weakening the structure.

A nested reinforcing member in flat-tube openings prevents detachment during brazing, improving alignment, work efficiency, and yield.

Single-phase FK cooling with counter-flow flat-tube exchangers cuts pressure drop and leakage risk in high-density server rack cooling.

Radial screw spokes lock corrugated and flat heat-storage layers to the hub, reinforcing rotary heat exchanger joints under thermal and pressure stress.

Tapered transitions in cast plates moderate thermal expansions and contractions, reducing mechanical stresses from high temperature gradients.

Z-shaped convector plates with stiffening sections improve radiator stability while reducing material weight.