Reinforcing Means TRIZ Cases

Grooved solid columnar support guides liquid to a porous body, suppressing evaporator dry-out and preventing steam backflow.

A brazed heat exchanger places port openings on a peninsula surrounded by overlapping skirts to increase force transfer area.

Ribbed cover reinforcement prevents deformation and leaks in motor vehicle heat exchangers subjected to thermal expansion.

Corner-only reinforcing elements on lower plates improve mechanical resistance while preserving elasticity and reducing interface stress.

Iron ore pellets replace molten salt to achieve 1200°C output while eliminating environmental risks.

Collector reinforcement plate increases rigidity to prevent cracks from thermal fluctuations.

A stamped connection flange with a reinforcing rib rests on a raised box edge to provide structural rigidity.

Cut and folded corner elements reinforce the lower plate, maintaining flexibility while reducing manufacturing complexity.

A phase-change chamber uses patterned surfaces to manage heat transfer in electronic devices.

A brazed heat exchanger incorporates a thermally decoupling element between the finishing-off plate and adjacent moldings to manage thermal expansion.

Segmented seal plates partition casing spaces in an insertable gas cooler, resolving assembly operability and sealing reliability trade-offs.

Brazed projections on the outer plate reinforce end plates, preventing high-pressure deformation around fluid openings.

Flat flow pipes with clamped heat exchange objects and protruding pipe parts featuring rigidity improving parts prevent deformation at connection points.

A plate heater uses structured inserts with spring bars to distribute pressure forces across thin walls.

Stiffening wall extends across header to increase bending stiffness, preventing thermal expansion deformation and leakage at tube junctions.

Localized outer plate thickening resolves the strength-weight trade-off while mitigating thermal fatigue from differential expansion.

Inclined joint beams in a loop heat pipe vapor pipe improve vapor flow rate and reduce thermal resistance for better heat transfer.

Integral stiffening elements brace partition joining regions against thermal expansion, preventing buckling and stress cracks.

Segmented radial extensions transfer pressure forces to terminal plates, preventing fluid circulation loss from thickened walls.

Localized reinforcement on heat exchanger tank peripheries reduces vibration and noise from refrigerant flow without increasing component count or weight.

Segmented metallic housing resolves volume constraints in integrated intake modules, enabling pressures over 3 bar and temperatures above 200 degrees Celsius.

Convex recesses and reinforcing beads on surface elements reduce material consumption while maintaining homogeneous temperature profiles.

A plate-like flange with a surrounding bolting region secures the tube block outlet directly to vehicle components.

Deformable protrusions lock brackets to reinforcement members, preventing tube damage and irregular braze temperatures during assembly.

A modular technopolymer manifold assembles interchangeable box-like elements to configure delivery and return chambers for heat transfer fluid circulation.

EDM slots in brazed primary fins reduce outer fiber strain by 50% and extend thermal cycle life sixfold.

Folded thin sheet walls resist thermal stresses while maintaining structural integrity in flat tube heat exchangers.

Thickened leading edges on additively manufactured fins protect against hail damage while maintaining efficient heat exchange properties.

Integrated stopping elements in the manifold housing prevent tube over-insertion, eliminating clogging risks while maintaining thermal permeability.

A vapor chamber uses recessed casing portions to anchor jointing material and improve thermal coupling with heating elements.

Corrugated ribs on high-stress zones reduce casing weight and eliminate stress concentrations from rectangular profiles.

Removable spacers ensure mechanical strength during brazing while allowing easy removal to maintain thermal efficiency.

Segmented flow channels guide vapor movement through a slim vapor chamber, resolving the trade-off between reduced thickness and decreased flow speed.

An integral pipe attachment eliminates protruding portions to reduce component count and improve assembly accuracy in stacked heat exchangers.

Layered side walls create a curved conduit to prevent air bypass, ensuring uniform fin distribution and eliminating heat exchange inefficiencies.

A plastic air distributor merges half-shells and a plate stack into one component to enhance mechanical strength.

A method restores degraded heat exchanger strength by dissolving and re-precipitating alloy precipitates using flowing molten salt.

Elastic protrusions between plates absorb vehicle shocks while allowing independent assembly access.

A reinforcing clip system distributes thermal stresses between fins and tubes to prevent structural damage during operation.

Die casting molten aluminum over an aluminum-skinned heat pipe eliminates interfacial gaps and resolves bonding strength limitations in conventional modules.

Semi-circular passages with external collars eliminate pocket areas to lower flow resistance and dead weight while maintaining soldering stability.

A heat exchanger collector uses a doubled wall brazed to tubes to reinforce the joining edge.

Immersion of the heat pipe condensation end into cooling fluid resolves rigid collision risks while maintaining reliable heat dissipation.

Inverted passages eliminate pocket areas that accumulate refrigerant, decreasing flow resistance and improving pressure stability.

A reinforcing piece positioned between tubes absorbs thermal energy and transfers it to adjacent colder tubes.

Interlocking legs on the erosion protection strip engage with plate recesses to eliminate weld seams and reduce assembly time.

Stamping single metal sheets forms reinforced cover plates, eliminating welding steps to reduce weight and manufacturing complexity.

Sheet metal stamping integrates support pillars into vapor chamber covers, eliminating manual placement steps while maintaining structural strength.

Segmented bending radii preserve wick integrity and contact area, preventing deformation that reduces heat dissipation efficiency.