Vessel Mounting Details TRIZ Cases

Segmented mast structures maintain constant access geometry and structural validation across varying tank depths.

A gas cylinder guard structure incorporates a dependent lip around the valve perimeter to enable safe manual lifting and maneuvering by multiple users.

Segmented diaphragm anchors prevent wall contact, ensuring effective air-water separation without excessive pre-charge pressure.

Two valves and an intermediate chamber enable stepwise depressurization, preventing structural disruption from rapid pressure drops.

Longitudinal fibres transmit axial loads through the outer reinforcement, eliminating structural connections and reducing manufacturing complexity.

Automated lift and clamp align high-pressure gas tanks to prevent leaks during manual replacement.

Segmented cap and nested guide components reduce device complexity while preventing explosive gas generation from flammable liquid leaks.

Nested double-walled tanks reduce weight by storing high-pressure gas in thin inner vessels, avoiding thick steel walls needed for single large tanks.

A retractable support mechanism prevents thermal bridges in cryogenic tanks by transitioning from active load bearing to inactive isolation.

Elastomeric shock absorption compensates for reduced cell thickness to maintain pressure resistance and impact strength.

Segmented shaft design prevents gasket squashing during throttle valve operation, ensuring reliable sealing and efficient gas supply in fuel cell systems.

A hydrogen refueling algorithm calculates composite heat capacity to dynamically control filling speed and maintain safety margins.

A high-pressure vessel unit uses a retention mechanism to allow axial movement of cylindrical vessels inside a case.

A refueling process planning device determines parameters based on static tank design properties to optimize filling speed and temperature.

Movable support blocks absorb thermal contraction gaps, preventing heat ingress and structural stress.

An intermediary resin layer buffers thermal expansion between the liner and reinforcement, preventing damage from adiabatic heating.

Cross-referencing communicated and calculated parameters detects tank volume errors, triggering conservative fueling modes to prevent overfilling.

Sinusoidal mastic cords bond insulating blocks to carrier structures, reducing material usage while resisting bending and delamination.

Self-service refilling mechanism equalizes pressure gradients to transfer oxygen gas, eliminating manual bottle replacement wear.

Dual sealing members diverge leak paths to prevent irregular deformation under excessive fluid pressure, enhancing sealing reliability in pressure vessels.

Replacing steel with flexible fabric lowers commercial vehicle mass and acts as an acoustic barrier.

Electronic device analyzes pressure curves to determine gas autonomy, resolving information loss when multiple outlets supply different devices.

Segmented storage chambers isolate reactive adhesives from propellants until dispensing, preventing chemical degradation and enabling tank refilling.

Inner tubes and velocity limiters control fluid speed in a cryogenic vaporizer, reducing Leidenfrost effect losses and material costs.

Intermediate chamber isolates pressure sensor from inner enclosure to detect leaks while maintaining structural integrity during flight.

Controller manages pressure storage containers to maintain reference levels, reducing idle time between vehicle deliveries.

Nano-textured vents etched onto pressure vessel liners increase gas flow rates, preventing gas pocket formation and false leak detection.

A dual shaft electric motor drives compressors to process hydrocarbon gas for mobile power generation.

Segmented posts and a hollow base secure containers against impact forces while maintaining spill containment volumes for hazardous material transport.

A co-molded polymer-metal annular connection zone bonds a polymeric liner to a metal boss without elastomeric rings.

Tapered back-up member prevents seal protrusion during fluid discharge, reducing maintenance needs.

An internal manifold within a polyhedral lobe arrangement eliminates external tubes, reducing leak risks and cargo space loss for CNG storage.

A low-pressure adsorbed natural gas storing tank uses a central plate with discharge apertures and a mounted filter assembly to manage gas flow.

Co-moulding the locknut with the case reduces assembly time and cost while maintaining structural integrity in portable gas delivery units.

Segmented monitoring architecture reduces device complexity while ensuring reliable detection of product deterioration during transport.

A gas distribution circuit manages fuel flow between main and auxiliary tanks using pressure actuated valves.

A fuel dispenser control valve modulates gas temperature via pressure differential to enable complete storage vessel filling.

A socket with a rotary valve and cleaning space circulates fluid to seal liquid outflow through convex portions.

Magnetic suspension isolates the dewar from shock and vibration, maintaining an upright orientation to prevent liquid spillage.

Integrating shutoff valves via a T-bore diverter reduces assembly work and pipe welding in LNG tank safety systems.

Segmented housing caps enable valve installation via small openings, preserving axial strength and reducing production costs.

A double-wall tank uses flexible bellows in its fluid channelling system to absorb displacements between inner and outer walls.

A closed cryogenic system converts liquid nitrogen to supercritical fluid for rapid tissue freezing.

A high-pressure gas storage device uses a single common inlet line to fill and discharge tanks via selective valves.

A hydrogen filling control method predicts tank temperature and pressure using unique tank information to verify sensor data integrity during refueling.

Segmented foundation and saddle design accommodates thermal expansion in bilobe LNG tanks, reducing stress on the hull.

A determination unit detects filling passage leaks by measuring pressure decrease per unit time after gas supply finishes.

A mobile device extracts liquid from containers via top unloading while absorbing released vapors for safe handling.