Vessel Mounting Details TRIZ Cases

A tool-free quick-release coupling lets a gas cylinder detach from its filling hose fast in emergencies while keeping a secure connection.

Alternating two gas containers with sensor-based valve switching lets residual gas re-vaporize, cutting waste while keeping flow stable.

A solenoid-driven magnetostrictive actuator moves a drive rod to maintain gas cylinder pressure, minimizing seal leaks and maintenance.

By using the outer casing as the heat transfer surface, this cryotank heats cryogenic medium efficiently without sacrificing storage volume.

A movable supply and retaining pair seals non-standard gas cartridge valves to enable reliable compressed or liquid gas filling.

Drainage openings and polymeric support parts keep pressurized tanks stable while reducing water buildup, rust, and regulator exposure.

Modular headers and connection bays speed LNG ISO tank hookup on retrofitted vessels, improving remote delivery uptime and maintenance.

Low-temperature steel in the intermediate tank enables narrower insulation layers, cutting site area while preserving cryogenic reliability.

An ejector injection line draws liquid into tank pressurization to sustain high cryogenic withdrawal rates with lower gas use and less re-condensation.

Pressure and temperature differentials let an FCEV detect hydrogen refueling without a tank door and even when the vehicle is unpowered.

Integrated wall rails let equipment modules slide into place inside a liquid hydrogen tank, reducing internal welding and fastening complexity.

Tank pressure drives a control valve that balances upper and lower filling rates to keep liquefied gas tank filling stable and operator-free.

Dispersed liner crystallinity at the mouthpiece interface boosts adhesion strength, resists shear fracture, and improves tank sealing.

A pressure-driven control valve balances top and bottom tank filling to hold liquefied gas pressure within a setpoint range.

A removable vacuum-insulated closure gives aircraft cryogenic tanks service access without cutting open the tank or disrupting insulation.

Multiple inner tanks inside a pressurized outer tank isolate leaks, recover gas, and reduce fatigue in high-pressure hydrogen storage.

Passive valve enclosure venting routes leaked compressed gas outside, reducing explosion risk in enclosed storage installations.

A double-wall removable closure preserves vacuum insulation while giving aircraft cryogenic tanks faster equipment access with lower heat ingress and leak risk.

An electric economizer closes liquid and gas withdrawal valves together, cutting cryogenic container space without sacrificing emergency shutoff safety.

Interlocking suspension and assembly elements let more tubular columns hang in one recess without enlarging the support structure.

Two independent supply lines and controlled valves let one gas trailer refuel multiple consumers at different pressures and flow rates.

An elongated pin and sealed housing pierce recessed N2 cartridge membranes safely, preventing back pressure and incomplete gas flow.

Stored inert gas automatically backs up failed instrument air at wellsites, keeping pneumatic devices running without methane-emitting natural gas.

A dual-sealing sleeve separates sealing from fastening to handle angular errors and keep gas storage connections pressure-tight.

A filtered gas manifold and porous adsorbent store more gas at lower pressure, cutting compression energy and vessel weight.

Dynamic pressure, vessel count, and fuel ratio control helps blended fuel stations match changing demand while reducing embrittlement risk.

Acute-angle diffuser channels create swirling gas flow that sweeps tank dead zones and cuts pressurized gas purging time.

Open regions in the bolster keep ports and mounting members exposed, improving attachment placement without sacrificing tank strength.

Vacuum-insulated modular tanks and a perforated center pipe improve cryogenic holding time while stabilizing pressure and limiting tank damage.

Compressed boil-off hydrogen pressurizes smaller delivery tanks while main storage stays at low pressure for stable, efficient liquefied hydrogen supply.

An extendable stand, pivoting lid, and removable end caps keep gas sampling cylinders stable during sampling while protecting them in transport.

A multi-part armature and single solenoid coil cut valve size and power use while preserving fast, reliable hydrogen tank shut-off.

A pilot valve uses pneumatic assistance so a hydrogen shut-off valve can open reliably with a smaller solenoid coil, saving energy and space.

Interchangeable rail-mounted containers bring stored fluid, pressure conditioning, and dispensing to where refueling is needed without fixed stations.

Strain gauges and temperature sensing track hospital gas pipe pressure continuously without cutting into the network, helping prevent saturation and faults.

Angled, non-coplanar cannulas create swirling gas flow that sweeps a pressurized reservoir faster than repeated dilution cycles.

A heat-conducting bridge lets an external sensor monitor cryogen temperature without penetrating insulation or risking vacuum loss.

Sensors trigger in-place building gas cylinder refills through an external socket, avoiding manual transport and empty-cylinder risk.

Stacked tower modules, adjustable pipe supports, and a pivoting gangway adapt cryogenic fluid transfer to changing boat heights and sea levels.

A movable optical output in the hydrogen filling receptacle aligns with different nozzle receivers to simplify calibration and ensure reliable communication filling.

A corrugated outer membrane and vacuum gap improve liquefied gas tank insulation while avoiding thick shells, tearing, and high build cost.

An external temperature sensor linked by a thermal conductor improves fuel gas tank temperature accuracy while simplifying installation and access.

A jacketed boot-vessel uses indirect heating and thermosyphon flow to fully vaporize cryogenic liquid without vessel leakage or ice damage.

A diaphragm plunger replaces piston sealing in a beverage capsule regulator to cut friction, improve control behavior, and support automated assembly.

Vapor-cooled shielding, insulated supports, and segmented baffles cut boil-off heat paths while stabilizing liquid hydrogen in ships.

A two-zone cryogenic filling layout recovers boil-off gas and stabilizes tank pressure and temperature for safer liquid transfer.