Heat Transfer Modification TRIZ Cases

See how a throttle portion with reduced cross-section increases flow velocity through the heat

See how a ceramic emission boosting layer enhances IR selectivity within 8-13 μm to improve day

Multiple heat-transfer fluid flow paths and counter-flow zones shape substrate temperature profiles and reduce max-min temperature differences.

Blocking regions and local turbulence redirect coolant through the active channel section, reducing bypass flow and improving heat dissipation.

Alternating 180° plate stacks with unequal turbulising elements boost heat transfer at high pressure while cutting heat exchanger size and weight.

Machined plates with interlocking ribs and diffusion bonding replace casting to create thinner, lighter heat exchangers with precise flow passages.

Machined plates with interlocking ribs replace slow cast structures, enabling thin bonded heat exchanger cores with lower weight and faster production.

Electrostatic pad deflection switches heat flow in MEMS thermal control, enabling passive cooling while preserving heating efficiency.

A layered non-cylindrical TPG tube directs heat along chosen paths, raising transport capacity while limiting unwanted heat transfer.

A movable inlet manifold element adjusts active channels by inflow momentum to reduce low-flow maldistribution and improve heat transfer.

A near-wall static auger boosts pipe turbulence and heat transfer, reducing heater complexity, cost, and maintenance burden.