Reinforcing Means TRIZ Cases

Curved beads on lateral walls distribute pulsating pressure stress, preventing housing cracking and extending service life.

A collector box cover features recesses to house seal grasping projections, positioning the seal without compressing it against exterior tubes.

Stiffening means penetrate retaining elements to enhance foil rigidity, preventing abrasive contact between hoses and acoustic foils.

Segmented ring-shaped flange protrusions reinforce plate heat exchanger plates, resolving insufficient strength and warping issues while stabilizing assembly.

A heat exchanger design uses overlapping sealing portions at perpendicular housing connection points to ensure fluid-tight brazed joints.

A manifold connects fluid passages to a stacked-plate heat exchanger housing, enabling flexible fitting placement while minimizing pressure drop.

A heat exchanger tube uses segmented reinforcement portions on inner fins to boost structural integrity at curved sections.

Angled center manifold plates alter static pressure profiles to distribute flow uniformly across adjacent heat exchange channels.

A heat exchanger design uses pre-formed fixing sections on reinforcing plates to align the core part accurately during assembly.

Soldering a U-shaped reinforcement strip to the second curved face of an aluminum radiator tube resolves thermal expansion stress and prevents leakage breaches.

Discontinuous brazing material bonds the cover plate without obstructing fluid flow channels, reducing pressure drops in two-phase cooling systems.

A flat heat pipe incorporates a collector channel to store excess working fluid generated during thermal expansion.

Integrating grooved channels into a single metal bar cover eliminates complex assembly operations while maintaining pressure resistance.

Placing the injection gate on one side of the tank foot eliminates weld lines and reduces stress concentrations in the ceiling area.

Notch-mounted protection element prevents pipe collision and vacuum leakage without increasing manufacturing complexity.

Deflection limiter beams manage thermal expansion in air-cooled condenser tube bundles to prevent out-of-plane bowing.

Flexible support members with curved surfaces eliminate saw tooth ridges that damage capillary structures and impede fluid flow in flat heat pipes.

Opposing rib convexities on the manifold plate resolve strength versus material trade-offs while guiding tube insertion.

Segmented S-shaped tabs prevent frame soldering and crack formation while maintaining side part stiffness.

An inner shell surrounds a plate pack to create flow channels with baffle plates, eliminating separate flexible guides that increase device complexity.

A vapor chamber uses a composite wick structure to transport working fluid via capillary action for rapid heat dissipation.

Convex collector box ribs resist operating pressure while minimizing heat exchanger size and sealing complexity.

Positioning portions on supporting columns prevent displacement during assembly, increasing vapor chamber yield rates.

Segmented headers with selective brazing allow independent movement, preventing cracks caused by differential thermal expansion.

Stress-absorption zones in heat exchanger frames withstand mechanical loads from high pressure refrigerant fluids, preventing structural failure.

Molten fusible metal impregnates a three-dimensional metallic structure to form an integrated heat exchanger module.

Corner portion crimped to header tank shoulder creates gap absorbing pressure cycle stress preventing crack initiation.

Dented port surfaces with interlocking ridges and grooves join plates to withstand high internal pressures.

Protrusion members on plate edges mate to reinforce manifold regions, preventing distortion under fluid pressure and reducing manufacturing costs.

A thicker reinforcement plate bonded to outermost heat transfer plates strengthens the stack structure.

Segmented mounting plates with decreasing thickness distribute stress to reduce weight and prevent fatigue failure in vibrating environments.

Centered connectors define row isolating openings that isolate row planes from differential forces, reducing torque and thermal strain.

Shallow corrugated plates with closely spaced ridges maximize braze joining areas to resolve the contradiction between high design pressure and plate strength.

A projecting rim on the heat exchange bundle engages a housing groove to prevent pendular movement under vibration.

Convex casing surfaces absorb boost pressure stress, allowing thinner walls to reduce manufacturing costs.

Integrating a reinforcing plate at the header plate corner resolves mechanical fatigue risks caused by fluctuating coolant pressures.

A spiral heat exchanger uses a case member and bracket to hold thin metal plates, reducing weight while preventing deformation from external impacts.

Bent reinforcement stiffens crimping slot narrow sides to withstand stress peaks and extend charge air cooler lifespan.

Diagonal reinforcement bars mechanically connect inlet and outlet armatures to increase structural rigidity against aircraft vibration shear forces.

Dual emissivity radiator bodies reduce film thickness non-uniformity by minimizing heat loss differentials between pedestal sides during deposition.

Segmented partial sheets reinforce cross-flow heat exchanger cores against thermal stress while maintaining clear fluid flow paths.

Exterior surface reinforcement strengthens tubes near collector plates, resolving the trade-off between structural fatigue resistance and fluid pressure losses.

Interlocking male and female stampings join thin heat exchanger plates, preventing deformation under mechanical stress.

Slope portions in the header tube insertion holes disperse thermal stress concentration at the tube nose, minimizing damage and cracks.

A heat exchanger partition incorporates a deformation in the joining region to absorb temperature-induced length changes.

A contoured branch fitting with specific radius ratios reduces stress concentrations in piping systems.

Inverted flared collars on a rounded collector facilitate tube insertion and reduce fluid pressure drops.

Merging housing parts and fittings reduces component count and pressure loss while maintaining thermal capacity.

An inner ring reinforces a heat pipe body to prevent deformation, resolving the trade-off between structural strength and thermoconducting efficiency.

Segmented reinforcing ribs in plate headers resist manifold distortion under fluid pressure, eliminating washers to boost durability.