Laminated Elements TRIZ Cases

Segmented lances with angled walls boost heat transfer efficiency while maintaining structural rigidity and minimizing weight.

Fin projections fit into base plate through holes to eliminate gaps and improve heat dissipation performance.

Deformable preferred contact areas on plate undulations compensate for height deviations to ensure leakproof joints without complex equipment.

Alternating ridge and bridge plate indentations resolve the mechanical stability versus pressure drop trade-off in stacked heat exchangers.

A heat exchanger plate uses distinct corrugation patterns to create support points between adjacent plates.

An integrated communication module replaces physical cables to eliminate mounting time and protect sensors from aggressive cleaning damage.

Segmented counterflow heat exchanger plates with angled tent sections reduce pressure drop and volume by distributing flow across multiple parallel paths.

Staggered fin units in a stacked micro-channel structure reduce fluid pressure loss by 40% while increasing heat exchange area by 55%.

Asymmetric cross counter flow heat exchanger design with varying fin spacing and channel widths reduces thermal stress and extends service life.

Protruding ridges segment flow paths on heat exchanger plates, maintaining mechanical stability while extending cooling efficiency.

Continuous forming eliminates cyclical pressing noise and time delays while increasing convection channel density for better heat absorption.

Matrix dimple plate heat exchangers distribute pressure forces across discrete contact points.

Segmented compartments create inverse U-shaped flow paths that reduce plate length while maintaining high temperature fluid U-turn regions.

Integral exchanger element merges plate, ribs, and closure bars into a single piece to eliminate brazing defects and reduce ignition risk under high pressure.

Asymmetric spacer heights resolve the contradiction between air channel formation and heat exchange efficiency while reducing pressure loss.

Variable ridge heights in the distribution pattern compensate for flow channel length differences, eliminating uneven fluid distribution and leakage.

A heat exchanger design uses cassettes with constant perpendicular wall spacing to maintain uniform fluid flow velocity across the device width.

A plate heat exchanger uses a regulating member fitted into a recessed portion to support the gasket along the fitting groove.

Interlocking edge profiles prevent transverse displacement in narrow plates, ensuring reliable fluid circulation channels.

Wavy plate sections hold gaskets between stacked plates, distributing pressure forces over larger contact areas to prevent deformation in unsupported zones.

Non-radial hollow body dips improve heat exchange efficiency while resolving the contradiction between structural strength and productivity.

Partial-height fin packs bond to cast plates, resolving tolerance stackups that prevent full-height fins from fitting.