Liquefaction TRIZ Cases

See how a single-layer metallic filter with controlled porosity simplifies catalyst retention,

See how staggered sinusoidal corrugated tube bundles stabilize liquid film and improve heat tra

See how dual annular channels at different heights separate and distribute refrigerant phases,

See how a brazed plate-fin titanium heat exchanger uses corrugated structures to achieve high t

See how dual-section hardway fins with varied hole pitch and diameter maintain minimum liquid l

See how helically wound pipes with nozzles at different heights and adjustable valves counterac

See how forcibly engaged assembly members eliminate clearance gaps between corrugated fins to e

See how two-section hardway fins with varied hole geometry maintain liquid level and uniform di

See how forcibly engaged assembly members between wave corrugations eliminate clearance during

See how varying opening cross-sections along flow direction compensates for pressure drop, ensu

See how internally cooled plates with rotating scrapers and flow-through openings enable cryoge

See how segmented distribution arms with separate containers enable continuous radial refrigera

See how superposed spacer elements with angled channels and pre-textured surfaces preserve braz

See how segmented distributor arms and zone-specific refrigerant loading counteract maldistribu

See how a vertical tube heat exchanger uses nested chambers and gravity-driven liquid films to

See how liquid pumping and vaporization replace gas compressors in hydrogen fueling, cutting ve

See how integrated inlet and outlet metallic filters retain catalyst particles while simplifyin

See how welded formed parts between cuboidal modules prevent movement and improve thermal conta

See how a helically wound single-pass heat exchanger integrates feedstock heating and effluent

See how microstructure elements in primary channels use capillary action to ensure even liquid

See how solder-coated supports connect heat exchanger blocks to reduce stress concentration and

See how total degassing with oxyfuel combustion extracts Lake Kivu's CO₂ and biomethane for eff

See how solder-coated carriers replace edge welds to connect heat exchanger blocks, reducing st

See how a collecting channel with vertical discharge positioning controls liquid velocity and p

See how variable-length channels with changing cross-sections achieve uniform fluid distributio

A dedicated collecting channel withdraws liquid from the heat exchanger jacket, limiting flow disruption and gas carryover.

See how a flexible storage tank, variable-speed compressor, and catalytic oxygen reduction subs

See how radially segmented helical tube sections with independent inlets maintain distribution

Controllable valves and an added liquid stream improve shell-side distribution and heating-surface use under changing conditions.

See how tapered orifices with varying cross-sections compensate for flow velocity drop to achie

See how shell-and-tube heat exchangers condense pressurized LPG vapor back to liquid, enabling

A sensor wall detects thermal stress fatigue before partition-wall failure, preventing external leaks without adding weight or reducing heat transfer.

Internal baffles and packing limit shell-side fluid slosh between heat exchanger cores, improving cryogenic stability and thermal efficiency.

A central pipe with lateral openings feeds a pre-distributor container to improve liquid-gas separation without increasing heat exchanger height.

Settled black-water solids are reused as filter precoat to cut gasification water treatment cost and meet deep well injection quality.

Adaptive jacket-side liquid control corrects falling film maldistribution, improving heating surface use and heat transfer under changing loads.

A core tube with side openings feeds pre-distribution containers to separate gas-liquid flow without increasing heat exchanger size.

A liquid solvent carrier stores natural gas at moderate pressure and temperature, cutting LNG/CNG energy demand and enabling solvent reuse.

Porous aerogel insulation in a pipe-in-pipe LNG line avoids vacuum systems and expansion bellows while handling thermal contraction and enabling fiber-optic monitoring.

Residual effluent is transferred, depressurized, and recycled upstream to recover propylene during oxygenate removal unit regeneration.