Vessel Mounting Details TRIZ Cases

An X-ring seal on a tapered surface prevents premature leakage and fugitive emissions in pressure vessels.

A bulk tank baffle creates stratification that prevents liquid migration, enabling continuous subcooled CO2 dispensing without compressor shutdowns.

Truncated honeycomb partitions near pillars reduce mold stress while maintaining weight-to-resistance ratios for ISO 11117 compliance.

A rapid fill container system pre-fills a tank with incompressible fluid to displace air before introducing compressible gas.

Concentric shell design distributes pressure gradients across multiple thin walls, increasing mass storage capacity without adding weight or cost.

Modulating fuel hose pressure transmits signals to the vehicle, bypassing infrared interfaces prone to sunlight and ice interference.

An automated service device coordinates draining, inerting, and heating sequences to reduce manual intervention risks and flammable gas formation.

Distributed gas outlets evacuate hydrogen from wind turbines, preventing explosive mixtures near technicians.

Shaving resin projections creates a flat tank surface, resolving roughness that prevents stable label attachment.

A temperature pressure relief device separates molten alloy discharge from the gas exhaust path to prevent flow blockage.

Mass balance calculations detect unwanted hydrocarbon releases without expensive infrared sensors or weather-dependent delays.

Integrating the sensor portion inside the valve body eliminates bulky external detection devices, reducing product dimensions and manufacturing costs.

An electric pump delivers liquid odorant to a gas pipe via electronic control, resolving imprecise injection caused by pneumatic pressure variations.

A heated shroud surrounds the hydrogen vaporizer to maintain surface temperatures above the dew point.

A cryogenic pressure tank manages hydrogen withdrawal through planned pressure profiles and regulated heat supply.

Axial and radial penetrating holes in the metal valve seat create a nested connection that resists high pressure and temperature variations.

Recirculation conduit transfers ambient heat to liquefied natural gas, converting it to natural gas before injecting the flow back into the tank.

Nested connecting members align wave reinforcements at membrane nodes, preventing twisting and stress concentrations under asymmetrical loads.

Relocating the valve circuit outside the protected area minimizes evaporation losses by managing cryogas removal based on pressure thresholds.

A subsea storage system uses a rigid outer container with flexible inner bladders to hold chemicals.

A distributed hydrogen refueling cascade system uses electrochemical compressors to scavenge fuel from lower pressure reservoirs and discharge it into higher pressure units.

A multi-layer composite enclosure containing hydrogen tanks redirects explosion forces downward through a rigid floor plate.

A pressure-sensitive stop locks coupling members when internal fluid pressure exceeds a threshold, preventing accidental disconnection.

A gas bottle collar uses a dual coupling hook and spring lock-in system to secure the handle-set via rotary slide-in movement.

Flexible shell structures enable compact transport of large-volume cryogenic tanks while maintaining structural integrity during deployment.

A copper alloy gas pipe cooling section improves thermal conductivity in hydrogen filling systems.

A hydrogen station filling method selects accumulator banks based on shortest fill time to maintain high pressure levels.

A high-pressure tank liner uses a hard tubular insert ring to restrict excessive expansion and contraction of the flexible liner body.

Segmented tanks vaporize liquid hydrogen and store gas at varying pressures, resolving infrastructure complexity while maximizing refueling speed.

A movable shuttle within a tubular guide enables safe instrument entry into pressurized reservoirs.

A pressure control system determines threshold pressure based on tank temperature and actuates a valve to maintain safe operating limits.

Segmented distributor and collector cups force hydrogen flow through the bed, resolving slow heat exchange kinetics during rapid loading.

An undercut groove on the mandrel guides cutting tools to shave dome rims, reducing stress concentration at tank boundaries.

A gas filling device uses a movable buffer container and weighing scale to measure mass directly.

A threaded insert provides a compact interface between the tank and external components.

A gas container valve uses a double groove and sealing lug to secure the valve body against displacement.

A cryogenic distribution station positions the monitoring screen parallel to the rear surface for clear operator visibility.

Side and top maintenance openings on the high-pressure vessel simplify installation while maintaining explosion protection.

Welded pie-shaped pads reinforce trunnion mounts, reducing trailer weight while maintaining structural integrity for safe transport.

A liquid gas bottle fitting uses a rotary handle to control gas flow and manage an upper-side closable opening for refilling operations.

Local reinforcement layers on rounded end sections reduce vessel weight and curing time by concentrating material where stress loads are highest.

A valve mechanism uses a threaded first plunger to drive a second plunger and seal member.

Plastically deforming securing elements absorb impact energy, reducing frame weight and manufacturing costs while protecting cylinders.

A compressed gas delivery system uses a bypass conduit to direct flow to vehicles with higher tank pressures.

A hydrogen refueling station uses a bypass valve to route gas around the compressor for immediate dispensing.

Segmented lobes boost cargo capacity while reducing vessel footprint for efficient CO2 transport.

Dynamic flow adjustment maintains target pressure rise rates despite pipe losses, reducing filling time.

Merging the plug body and sealing sheet into one unit eliminates leakage gaps, reducing gas waste and simplifying assembly steps.

Vacuum transfer prevents micro bubble formation in photoresist, eliminating purge waste and maintaining lithographic yield.