Heat Exchanger Casings TRIZ Cases

See how a stacked-plate heat exchanger integrates chiller, internal heat exchanger, and expansi

See how internal air guide elements split and deflect incoming air into partial flows, achievin

See how two polymer carrier mats hold tubes in meander form, enabling roll-up transport and eli

See how a reflector and nanoporous polyethylene cover block solar radiation while maximizing in

See how separate high-pressure and low-pressure tubes wound together eliminate internal cores a

See how a telescopic base with compression spring and lock assemblies secures elongate tools ve

See how a 5-gallon bucket, ice, and backwards curved impeller deliver one ton of cooling capaci

See how a cavity along the connecting seam with accessible openings enables leak testing of int

See how a 5-gallon bucket, ice, and backwards curved impeller deliver one ton of cooling capaci

See how a telescopic base with compression spring loops secures elongate tools vertically, redu

See how magnetic impulse explosive welding seals aluminum accumulator caps without damaging pla

Stacked grooved plates inside the accumulator recover enthalpy while cutting exchanger space and piping in automotive refrigeration.

Placing the electric component unit around the bell mouth frees lower space for maintenance while airflow still cools the components.

Separate spiral tubes for high- and low-pressure CO2 simplify the exchanger core, cut head losses, and support efficient heat transfer.

Oblique trunk fins and segmented tooth areas balance side-to-middle motor temperatures, improving coil and iron core reliability.

A tuned Al-Si-Cu-Mn core alloy keeps brazing performance while raising post-braze strength and corrosion resistance in thinner heat exchanger sheet.

Support parts with pipe-shaped recesses keep server cooling hoses and couplers aligned, reducing entanglement, damage, and handling risk.

A second inclined opening edge cuts bevel width and weld heat input, protecting the core while maintaining header tank strength.

Pivoting cutting heads and fin-guided alignment produce symmetric spine-fin tube cuts with low deformation, reducing reaming before crimping.

Parallel-moving crimping teeth form tube connector crimps in tight heat exchanger layouts, enabling adjacent connections with less space and work.

A rotating manifold and front cam-handle enable blind hydraulic connection at the rack front, reducing rear-access damage during service.

Thick partition wall layers divide stacked flow path blocks to suppress thermal deformation and reduce fatigue-causing stress.

Through-cut plates and bonded blanking members form fluid flow paths in an energy exchanger core while reducing manufacturing time and cost.

Grooved layered plates and removable wedges let brazed heat exchangers embed temperature probes for accurate local measurement without disturbing flow.

A solid-of-revolution diffusion-bonded plate stack with tensioned cable winding cuts heat exchanger weight and volume while resisting high pressure.

Internal pressure forming and staged heating create accurate plate channels and stable solder bonds with shorter cycle time.

Nickel-enriched braze powder is cold-sprayed evenly onto a substrate, cutting manual labor while improving braze interface consistency and adhesion.

A telescoping sleeve-and-flange port connection simplifies plate heat exchanger installation while improving sealing durability and reducing leakage risk.

Two-stage heating with local internal pressure forms precise heat-exchanger channels, shortens cycle time, and preserves aluminum alloy strength.

Pressure forming reduces fin edge radius to improve solder coverage, kink resistance, and high-pressure strength in plate heat exchangers.

A non-monotonic transition with a bulbous region and inner-radius protrusion cuts flow separation, pressure loss, and outlet maldistribution.

Internal pressure forming and staged heating create accurate plate channels and stable solder bonds with shorter cycle time and alloy flexibility.

Discrete melting-depressant zones on pressed heat transfer plates localize melting at contact points, improving joint strength and application accuracy.

Rapid heating and pressure forming create precise plate heat exchanger channels while preserving strong brazed joints in high-strength aluminum alloys.

Controlled Al-Mn and Al2CuMg precipitation helps heat exchanger alloys keep strength, corrosion resistance, and brazability at 600°C.

Layered slot transitions and vanes distribute flow into heat exchanger channels with lower pressure drop, less stress, and compact packaging.

Precision-machined core bands isolate manifold welding heat from the interior, improving plate-fin heat exchanger durability and manufacturability.

Joining ferritic stainless steel plates to iron or carbon steel fins with nickel brazing improves wetting, cuts filler use, and avoids oil-path clogging.

Precision-machined closure bars and radiused corners help plate-fin heat exchanger cores withstand manifold welding with fewer defects.

A separate top-side connector keeps fluid passages off the thermal surface, enabling thinner, stackable cooling blocks with lower material use.

Stacked plates and flat pipes create separate fluid paths, simplifying heat exchanger assembly while improving strength and heat transfer.

Sensor-driven pump control and reservoir baffles keep coolant flow and pressure stable across changing cooling node counts while preventing cavitation.

Varying corrugation pitch across transverse fields shifts contact points away from transition bands, reducing bulging and lost plate-pack support.

Joined square heat-conducting tubes expand coolant channel volume, cutting CNC cost while improving water-cooling plate heat dissipation.

Soldered square tubes replace CNC machining to expand flow channels, improve heat dissipation, and lower water-cooling plate cost.

Corrugated plates and reinforcement furrows improve flow distribution and reduce pressure variation in plate-and-shell heat exchangers.

Rectilinear port sections and extended edge bars support heat-exchanger channels, reducing stress concentration and leakage.

A compartmented header and multi-cavity distribution tube reduce vapor-liquid separation in vertical microchannel heat exchangers.

Controlled multi-axis float lets liquid-cooling fittings self-align during blind mating, cutting insertion force and protecting seals.

A stacked plate and isolation-flow layout creates multi-pass heat exchange while keeping inlet and outlet on the same side for easier modular assembly.

A monolithic corrosion-resistant plastic housing replaces brazed metal connectors to cut heat exchanger assembly cost, weight, and corrosion.

Peripheral bypass flow lowers heat transfer in plate-and-shell exchangers; radial protrusions redirect the second fluid toward central plate regions.

A vapor-liquid distributor enables uniform two-phase flow in downward evaporating ducts, reducing maldistribution and improving heat exchange.

A single return passage orifice and annular edge structure improves fluid return and lowers pressure loss in stacked motor vehicle heat exchangers.

Interlocking manifold positioning members keep adjacent cold plates accurately spaced and aligned, improving connector fit, compression uniformity, and sealing.

Integrated plate heat-exchanger sections enable counter-current suction gas exchange, cutting refrigerant volume and reducing compressor droplet risk.

Projections at intersecting flow paths retain foreign matter, protecting gas purity and smoothing flow in semiconductor process components.

Guiding ribs and parallel fin channels improve medium distribution in plate heat exchangers, reducing turbulence and pressure drop.

Recesses and communication passages redirect refrigerant to prevent dead zones, cutting pressure loss and improving heat exchange.

Angled pipe connections and a dome-shaped junction cut flow-direction changes, reducing pressure loss in compact laminated heat exchangers.

Hoop-shaped wall portions split surface flow paths in a perforated plate to prevent edge concentration and improve uniform fluid dispersion.

Swirl generation, flow restriction, and segmented header cavities reduce vapor-liquid maldistribution in vertical microchannel heat exchangers.

Smooth concentric corrugation transitions around portholes cut flow disturbance and pressure drop while preserving heat exchange and fluid distribution.