Vessel Mounting Details TRIZ Cases

This case uses vented stems, adhesive plugs, and bulkhead retention to prevent end fitting disengagement under pressure.

A switching valve selects parallel hydrogen flow passages to control filling rate without a costly, leakage-prone adjusting valve.

A removable coupling body lets technicians detach the manifold valve while preserving the gas manifold connection for maintenance.

This case combines LH2, CcH2, GH2, and LN2 at one hydrant to limit evaporation and contamination during aircraft refueling.

A damping block and controlled axial movement relieve boss-to-overwrap stress in Type IV hydrogen cylinder frames.

Two anti-leak connectors separate inlet and outlet paths, speeding liquid access and simplifying diaphragm cleaning.

Unconnected tank layers resist hydrogen embrittlement in ship-based gas transport.

Pressure-balanced gas exchange and centrifugal pumping transfer liquid hydrogen with subcooling to reduce heat buildup and venting.

A pressure feedback sensor detects periodic signal disturbances to estimate cryogenic fluid remaining during treatment.

Dual-channel oxygen delivery supports unobstructed breathing during vigorous activity.

Dynamic outlet control and flow deflection maintain gas mixing as density changes during high-flow reservoir filling.

Radial guide elements help align CO2 cartridges after angled insertion, making fluid-line connection easier, quicker, and more reliable.

Heat pipes, PCMs, and gas recirculation reduce thermal gradients during rapid tank filling.

An opened cover layer routes pre-connected harnesses through the underframe cavity while preserving structural integrity.

A controller returns hydrogen to low-pressure vessels, preserving compressor inlet pressure and reducing charging recovery time.

A third membrane and flexible duct vent hydrogen losses externally, limiting accumulation in the pressurization chamber.

Compacted metal hydride wafers use graphite rings and conductive disks to manage stress and heat during hydrogen storage.

This case combines composite tank fabrication, integrated ports, and a hydrogen barrier layer to reduce leakage and boil-off.

This case shows how a facing control member redirects and disperses hydrogen released by a heated fusible plug.

Controlled atmospheric and hydrogen heating forms a protective layer that limits hydrogen penetration, oxidation, and seal loss.

A chromium-containing steel container uses multilayer surface treatment and sealing to preserve airtightness and resist hydrogen embrittlement.

A pocket extending into the inner vessel houses heat exchangers and valves, preserving storage volume while enabling vacuum-space access.

A bypass circuit pre-cools and stores heat-transfer fluid cold energy, improving gas cooling efficiency during tank filling.

Suspended tanks use axial clearance to absorb expansion and simplify maintenance.

An interlocking groove and rib join dissimilar materials, simplifying sealing while containing high-pressure gas.

Eddy-current heating quickly gasifies liquefied gas, while pressure and temperature monitoring enables remote control and safer supply.

This case combines a sealed nutrient-substrate vessel, pressure regulation, and interruptible outflow for stable aquarium CO2 dosing.

A vision-guided manipulator couples valves and gas pipes, improving replacement accuracy and efficiency in semiconductor lines.

A thermal bridge links filling and removal lines to limit evaporation and enable fast-fill vehicle cryogenic refuelling.

A dark joint portion absorbs laser energy while the translucent dome body enables non-destructive foreign matter inspection.

Rigid reinforcement bars rest on pressurized cylinders to distribute vertical force and absorb impact energy.

Extracting the pumping member outside the mast perimeter reduces mechanical stress on the tank wall while improving operator accessibility.

A two-stage regulator assembly reduces high cylinder pressure to an intermediate level before final outlet control.

Offset corrugated metal plates secure thermal insulation blocks via mechanical coupling members, reducing stress concentrations that complicate welding.

A bypass line with a non-return valve isolates buffer filling from cylinder filling, eliminating simultaneous wait times.

Tapering the connecting line cross-section reduces force transmission during handling, resolving safety risks in high-pressure hydrogen storage.

A multi-port fuel tank fitting consolidates fluid communication paths to reduce component count in compressed natural gas systems.

A guide mechanism with links and a constant load spring guides heavy high-pressure filling nozzles to vehicle fuel tank ports, reducing user physical load.

A mobile hydrogen refueling station uses multiple gas sources at different pressures to enable simultaneous vehicle refueling.

A flow control valve uses a piston to adjust gas flow rates during cylinder filling.

Nested socket inserts and mating interfaces channel pressurized fluid via a translating pin, solving installation length constraints.

Segmented fuel tanks prevent spillage during tilting by routing overflow to an accumulation box via a vent conduit.

Segmented hoop-wound reinforcement on a resin liner reduces fiber usage, lowering weight and manufacturing costs while maintaining structural integrity.

Segmented valve components hide the stem inside the body to block refill attempts while simplifying the assembly process.

A motor vehicle pressure relief system directs fuel flow through an underfloor opening to the surroundings.

A gas distribution device coupling system uses deformation zones to secure the operating member.

Integrated protruding fiber portions on the sheet body reduce winding time for tubular barrel and dome sections.

Dual parallel handles on a gas container protective cap distribute weight evenly, reducing operator injury risk during heavy lifting.

A vortex regulator depressurizes natural gas from 3000 psig to 45 psig, using heat recovery to counteract Joule-Thomson cooling and prevent equipment freeze-up.

Flexible latex adhesive secures fibre threads in a vessel, dispersing crushing forces to maintain structural integrity without rigid resin.