Heat Exchange Apparatus TRIZ Cases

Optimized aluminum alloy fin composition balances thermal conductivity with sag resistance to resolve heat exchange performance trade-offs.

A variable delivery coolant pump supplies fluid through controlled branch passages to machine tool components.

Segmented primary forming punches distribute load across multiple pressable portions, reducing contact pressure and tilting moments that cause die wear.

Neodymium addition refines carbides in austenitic stainless steel, resolving phosphorus-induced weldability loss while boosting high-temperature creep strength.

A heat conductive sheet combines a trimellitate ester plasticizer with thioether antioxidants to maintain flexibility and thermal performance.

Tapered ribs on a sector plate enable parabolic deformation under actuation, minimizing radial seal leakage without complex multi-actuator systems.

A tapered thermal conduction section couples to a chassis mounting plate via interface pads to disperse heat from electronic components.

Sewn organic or metallic fibers join high-conductivity metal heatsinks to a composite plate, reducing housing mass while maintaining mechanical strength.

An extrudable aluminum alloy composition balances manganese, copper, and magnesium to enhance mechanical strength while maintaining extrudability.

Cooling coil assemblies mounted directly on server racks circulate air through sealed aisles to manage thermal loads.

Carbon-filled plastic covers with spaced ribs dissipate component heat, raising maximum output current while protecting circuit boards.

A carburization resistant metal material with optimized chromium, nickel, and copper content forms a stable oxide scale to protect against carbon ingress.

Woven graphite fiber sheets transfer heat through conduction and convection using thermally anisotropic carbon fiber materials.

Segmented balloon envelopes tear open under mechanical pressure to dispense viscous heat-conducting material, eliminating complex dispensing devices.