Stationary Conduit Assemblies TRIZ Cases

Local quality shapes header edges against baffles to seal brazing gaps, preventing heat exchanging medium leakage.

Expandable tube-contacting parts prevent deformation and maintain insert tube length during heat exchanger enlargement.

A hybrid thermal transfer panel couples a radiating plate and insulating plate to form fluid channels.

Variable cross-sectional tube runs balance internal pressure drop against external drag to enhance heat transfer coefficients.

Segmented cooling chambers with nested tube arrangements reduce display depth while resolving thermal management complexity.

An evaporator manages liquid and gas phases using internal and surface refrigerant supply to maintain stable circulation.

Asymmetric gas-liquid plate heat exchanger channels optimize flow areas, enabling efficient energy recovery from hot waste gases.

A heat exchanger header tank uses a separation wall to divide flow paths and create longitudinal spaces for condensate water discharge.

Asymmetric first seam in folded tube section accommodates thermal expansion, preventing deformation and leakage.

A plate heat exchanger conversion set replaces tube bundles with thin-walled plates and a tension cage structure.

A heat exchanger tube body uses an inner intermediate wall with greater thickness than outer walls to improve mechanical stability.

A heat exchanger shroud mount secures the assembly using a molded polymer bead that compresses against the mounting surface.

Flat tubes with rectangular passages reduce weight and pressure loss while maintaining corrosion resistance through specific Ac/At and P/L ratios.

Partition walls segment the head space while varying hole sizes compensate for gravity, ensuring uniform refrigerant distribution into flat tubes.

A cooling flow channel module uses parallel intake and discharge channels connected by welded copper pipes to cool power conversion heating elements.

Segmented louvered fins with varying widths reduce pressure drop by 15% while maximizing heat transfer rates.

Dual-scale plate patterns increase design pressure while reducing pressure drop for carbon dioxide refrigerants.

Removable header components enable quick tube insertion and secure sealing, eliminating lengthy manufacturing time from complex welding processes.

A heat exchanger terminal piece features a segmented duct structure with optimized web geometry for coolant distribution.

Interconnected driving and guiding modules apply uniform radial pressure to an annular gasket, preventing structural deformation during cover rotation.

Segmented headers reduce wall stresses and weight by distributing flow through tapered channels instead of thick-walled chambers.

Distinct cladding layers resolve the trade-off between sacrificial corrosion protection and controlled brazing flow in heat exchanger sheets.

Spiral eyebrow coil jacket increases reactor heat control area by 20% compared to half pipe designs.

A coupling device connects heat exchangers via bracket openings, eliminating misalignment issues and reducing assembly time.

Segmented baffles in the collecting pipe create separate cavities that ensure uniform refrigerant distribution across multiple heat exchange tubes.

Partition beads merge inlet and outlet zones to guide refrigerant flow, eliminating surface temperature differences caused by uneven distribution.

Punctiform side plate deformations caulk header pipes, preventing slippage from thermal expansion and vibration while maintaining structural simplicity.

Parameter optimization of header wall thickness and fin arc radius prevents tearing and deformation while reducing mounting space requirements.

Segmented single-layer components link via a nested connecting member to resolve bending precision issues and reduce refrigerant flow resistance.

Nested small channels form larger parallel paths, resolving volume constraints while maintaining high heat transfer efficiency.

Perpendicular guide plates direct fluid downward through openings to resolve uniform distribution bottlenecks in block-in-tank heat exchangers.

Partition portions segment the header flow passage to prevent directional flow, reducing pressure loss while maintaining uniform refrigerant distribution.

Segmentation and mediator principles isolate liquid coolant in a primary chamber, preventing leakage and corrosion risks while maintaining thermal efficiency.

Optimizing tube pitch to 5-8 mm balances thermal performance against fluid pressure drops, keeping pump operation within its maximum efficiency zone.

Interlaced cooling channels with varying depths reduce pressure drop while managing high heat flux from power electronics.

Non-condensable gas and exothermal side protrusions reduce thermal conduction efficiency, preventing operation at low temperatures.

A parallel-flow heat exchanger divides flat multi-hole pipes into groups with varying counts to manage coolant flow distribution.

A liquid-cooling heat dissipation apparatus uses a circuitous flow path to increase water travel distance and improve cooling performance.

Non-coplanar bent tubes eliminate dead zones and increase effective fan-swept area for better heat transfer.

Medial aperture alignment eliminates corner tubing constraints, increasing stacked plate area and reducing air side pressure drop.

Flat tube heat exchanger with parallel walls and inner fins resists debris impacts through structural folds, preventing fluid leaks.

A heat exchanger frame uses a hinged arm to encircle the unit, enabling pivotable movement for service access.

A rotating hollow connecting element secures misaligned condenser cores, eliminating the need for multiple specialized bracket designs.