Vessel Mounting Details TRIZ Cases

See how supplying warm gaseous CO₂ from a distillation tank before pressure equilibrium prevent

See how cryo-compressed hydrogen at 350 bars and 45 Kelvin enables dual-use thermal coupling in

See how temperature-based gas supply positioning stabilizes excess heat output in hydrogen stor

See how a sintered metal phase separator removes vapor bubbles from liquid hydrogen before pump

See how segmented sub-coolers share variable speed systems to improve reliquefaction reliabilit

See how a segmented stand with non-sparking materials, vertical supports, and safety plate secu

See how a stationary-drum dryer uses microwave heating, membrane moisture separators, and close

See how wireless temperature sensing and automated valve control prevent refrigerant overfill a

See how distributed diaphragm anchoring and flexible thin-film design prevent bottoming out in

See how a manually adjustable needle valve regulator enables propane pressure control between 7

See how dual carbon dioxide storage tanks at different pressures enable single-compressor depre

See how modular pressure boosting, buffer tanks, and recooling manage R744 at 70 bar and -25°C

See how an angled sight glass assembly with float enables early detection of diaphragm failures

See how a zinc-coated inner surface prevents tetrafluoropropene degradation and polymerization

See how a rotatable knob and lever arm mechanism enable manual gas pressure adjustment between

See how a polyethylene liner with glass-fiber reinforcement and polyurethane bladder replaces s

See how a refrigerated vehicle switches between onboard and stationary refrigerant tanks to pre

See how a press-formed dish-shaped head absorbs shock loads through permanent deformation, prot

See how a flange-mounted removable compression unit enables easy maintenance access while prese

See how a segmented fuel conduit withdraws liquid fuel, expands it to gas, and heats the expans

See how a single electric valve merges throttling, full opening, and full closing using a bypas

See how cryo-compressed hydrogen flows through heat exchangers to refrigerate cargo while fueli

See how gas-tight precursor chambers isolated from ventilation flow enable independent temperat

See how a multi-functional electric valve merges throttling, full opening, and full closing int

See how a dewar with a deformable outer upper head absorbs shock energy to prevent brittle neck

See how a backing ring at the weld joint prevents diaphragm contact with the tank wall in Type

See how a rotatable lid enables 360-degree pipe adjustment in refrigeration liquid storage, red

See how a plunger-actuated servicing device engages self-sealing valves to control refrigerant

See how a zigzag passage and filter assembly manage radiator pressure, prevent refrigerant loss

See how a plunger-controlled servicing device dynamically switches between measurement and char

See how an integrated valve engages self-sealing refrigerant ports to enable safe DIY charging

See how raising vaporization pressure and using hydrostatic head prevents solid CO₂ formation i

See how infrared welding joins polymeric liner walls with fiber winding reinforcement to reduce

See how a two-part modular pipe fitting uses a standard coupling body and interchangeable adapt

See how a gas-driven injection device with removable cartridges eliminates manual force and ena

See how a compact, reusable filler system with high-pressure nitrogen cartridges reduces waste

See how liquefied gas phase-change cooling absorbs heat via vaporization in a chamber, enabling

A liquid-nitrogen case uses microcontrolled cooling and continuous tracking to keep biomaterials stable during transport and surgical prep.

An IMS thermalization plate cools cryogenic RF wirelines to cut sample heat load while keeping high-frequency signal attenuation low.

A higher-pressure CO2 vaporization path with heat exchange and expansion avoids solid CO2 clogging near the triple point.

An IMS thermalization plate cools RF wirelines in a cryostat, cutting heat load on the sample chamber while preserving signal transmission.

An integrated cap pusher irreversibly opens the valve to fully vent residual pressurized fluid before recycling, reducing explosion risk.

Contoured insulated heaters and closed-loop zoning improve vapor delivery from low-vapor-pressure gas vessels while limiting heat loss and entrainment.

Thin metal walls, vacuum insulation, and thin-walled support pipes cut container weight while maintaining inner temperature longer.

A solid nitrogen thermal battery maintains superconducting magnets at cryogenic temperature during shipping while cutting helium use, weight, and volume.

Detachable end and side supports make fuel container storage easy to reconfigure while maintaining secure support and pressure release.

Housing the hydrogen tank and supply lines inside the chassis helps handling machines resist impacts, falling objects, and fire exposure.

A load-distributing base layer spreads underfloor impact forces across multiple fuel pressure vessels, reducing installation space while preserving range.

A strut-and-cross-brace frame redirects crash deformation around a pressurized vehicle fuel tank to reduce damage risk and stabilize the compartment.

Multiple FEP or PFA bladders in a toroidal tank isolate bi-propellants, limit HTP decomposition, and support spacecraft maneuvering.

Selective valve opening and fuel pressure or density monitoring identify stuck-closed FCEV tank valves before fuel delivery fails.

A band-shaped Peltier cooler wraps the hydrogen tank to lower temperature and pressure before venting, reducing gas release and leakage risk.

Discharged gas is routed through the tank housing to warm high-pressure tanks and prevent adiabatic fuel gas cooling from damaging seals.

Flexible straps and a shapeable support secure tank self-sealing plates with uniform tension while reducing weight and easing removal.

Open bolster regions expose ports and mounting members, improving attachment placement while maintaining tank strength and load distribution.

A conformable strap assembly secures self-sealing plates on tank walls while staying lightweight, removable, and adaptable to different tank shapes.

A sliding piston lets one trailer carry natural gas outbound and CO2 inbound, cutting separate trips, infrastructure use, and transport cost.

A spring-loaded valve protects switchgear barrier plates during transport by venting overpressure and resealing without added flange rings.

Individual tank valves and temperature sensing balance pressure and heat during fuel cell refueling, improving safety and fill time.

An inline plunger and flow passage layout cuts valve bulk and weight while maintaining fuel gas sealing and durability for compact FCEV systems.

A trailer-mounted high-pressure fuel supply extends towing range by transferring gaseous or liquid fuel during operation with automated control.

A bracket-fixed dual-manifold tank module increases capacity while suppressing relative displacement, cutting valves, parts, and cost.

Temperature feedback and mass flow control keep liquefied gas electrolyte dispensing accurate despite backpressure and flow drift.

A cab-mounted boil-off pipe coupling disconnects during cab tilting, protecting the connection while preserving space behind the cab.

Sequential opening of parallel discharge valves speeds chamber pressure changes while reducing impact on chamber lines and extending tool life.

Stretchable connector loops suspend vehicle gas tanks while allowing pressure-driven expansion, improving packaging and reducing tank stress.

Pressure-triggered venting and heated hydrogen recirculation improve cryogenic tank safety, thermal control, and fuel use in fuel cell aircraft.

Using test gases with molecular weights close to the dispensed fluid improves regulator flow assessment and cuts false rejection during vessel assembly.

A flex plate neck mount lets truck pressure vessels expand and tilt without high internal stress, while preserving crash-safe attachment and tank capacity.

A positioning, sealing, and locking interface guides a replaceable gas generator into one final position to prevent detachment and gas leakage.

Two parallel solenoid coils with matched magnetic flux keep initiator valve flow available for reliable aircraft evacuation slide inflation.

By integrating electromagnetic and check valves into one attachment hole, this assembly simplifies body flow paths and supports manual pressure relief.

Connector elements passing through the fuselage shell use swiveling joints to ease external installation and alignment of large aircraft components.

A single downstream pressure sensor and switched solenoid valves let multiple hydrogen tanks be monitored with lower hardware complexity and cost.

Sensor-based valve control balances pressure between hydrogen tanks and pipes, avoiding mechanical relief hardware and reducing failure risk.

A vented container passage dilutes escaping hydrogen or LNG vapors while separating dispenser, fluid circuits, and controls to lower ignition risk.

A ring-frame mobile fuel cell uses replaceable hydrogen tanks to power onboard service units, EV charging, vending, and blackout backup.

An integrated valve block and heat exchanger cut cryogenic tank connections, pressure loss, and installation space while easing assembly.

A sealed cover and pre-connection impurity removal keep oxygen out of the hydrogen supply path, protecting catalysts and device performance.

A support rod, rod supports, and insulation let a cryogenic hydrogen tank carry inner-tank loads while limiting heat transfer and pressure risk.

An elongated sleeve around the tank-to-consumer conduit captures hydrogen leaks, vents them safely, and supports sensor-based valve control.

A thinned wall region placed near the container edge enables predictable rupture at a set pressure, improving targeted depressurization.

A pilot-main valve with magnetic and pneumatic assistance cuts shut-off valve weight, space, and opening force in high-pressure hydrogen tanks.

A cross-frame supports the pressure vessel between side members, removing separate mounts to save space, suppress resonance, and allow larger tanks.

A zigzag layout of different-diameter tanks cuts stacking space and dead gaps while improving pressurized fluid storage efficiency in electric vehicles.

A wheeled unit with tank insert slots and a fuel cell enables hydrogen supply, tank lending, returns, and storage with automated management.

A handle-and-connector end layout simplifies fuel tank installation and removal while a recessed connector helps prevent handling damage.

Remote vent valve control purges only affected hydrogen circuit sections after vehicle systems enter a non-ignitable state, cutting downtime.

Low-angle helical winding removes sharp dome-edge stress points while cutting filament use and vessel weight in composite pressure vessels.

An ergonomic shell, handles, and an inclined-rail shuttle make heavy pressurized hydrogen tanks easier to swap and refuel without fixed stations.

A valve-routed heat-exchange pad cools the storage tank during hydrogen filling, sustaining charging speed while limiting compression heat.

Suspending the insulated cryogenic tank inside a protective casing cuts mass, improves robustness, and enables non-cylindrical vehicle packaging.

By merging heat exchange and pressure management into one valve block, the case cuts cryogenic connections, pressure loss, and assembly effort.

A gravity-loaded cap closes the discharge outlet after pressure release, blocking rainwater and debris while maintaining stable fluid discharge.

A shared build-up and gas transfer line lets multiple cryogenic tanks be pressurized and charged with less hardware and installation space.

A main tank and one-way-fed secondary tank keep injector pressure high while using more stored gas and reducing refueling frequency.

Inert gas fills an airtight cryogenic housing to block condensation and ice without heavy vacuum equipment or vacuum-compatibility testing.

A joined valve body and replaceable seat simplify regulator manufacturing while maintaining sealing across 5 MPa to 20 MPa pressure ranges.

A small electromagnet drives a pilot valve, while pressure differential moves the main valve to cut hydrogen leakage with lower power and less bulk.

A tapered mid-to-end wall profile and inner reinforcing rib improve molding accuracy, reduce joint stress concentration, and prevent liner buckling.

A shape-memory wire trigger breaks the thermal bulb early, enabling rapid hydrogen venting from high-pressure tank valves during overheating.

A movable poppet shifts gas between orifice control and bypass flow, combining precise regulation with higher flow during pressure testing.

An inward-biased clutch and drainage channel keep a gaseous fuel filling nozzle detachable when freezing blocks normal disengagement.

Segmented secondary containment around an inner fluid conduit enables maintenance access while preserving leak protection and thermal insulation.

Circular grooves and a retainer lock the seal against gas penetration and displacement, keeping very high-pressure gas valves reliable.

Nested seals, poppets, and thermal isolation help transfer cryogenic fluid with lower emissions during coupling and decoupling.

Hall-effect pressure sensing tracks cylinder switching, empty-bottle status, and installation anomalies to prevent gas shortages.

A coaxial main and control valve layout limits seat wear, saves installation space, and maintains high hydrogen flow in tank systems.

Branch pipes and non-return valves group tanks by thermal behavior to balance pressure and prevent solenoid valve opening failures.

Independent spool and poppet valves with dual solenoid coils simplify assembly and improve reliable high-pressure slide inflation.

A spring-biased diaphragm and spindle unit regulate cryogenic fluid flow while preserving seal integrity across pressure and temperature changes.

A TMR angle sensor and motion conversion mechanism detect valve position immediately, improving gas supply estimation without bulky linkages.

A helical guide groove converts fast piston travel into rotation and frictional damping, reducing repeated impact damage in pressurized valves.

A collapsible thermal trigger decouples spring force from the valve needle, enabling reliable pressure release and irreversible opening.

A valve-based adapter vents pressurized oxygen containers to a preset threshold, enabling safe aircraft transport without complex verification.

An elastic sealing cap compressed between support and pipe sections prevents inert gas leakage and cap tearing in heat exchangers.

A compact solenoid valve with a hemispherical plastic seal cuts hydrogen tank valve count while maintaining gas tightness and safe flow.

An anti-rotation collar and vent stop keep a cryogenic rapid-connect coupler engaged during venting, preventing freeze-up damage and ejection.

A tank pressure base isolates the tank neck from stored gas, reducing valve loads and slowing safety-valve aging under high pressure.

A one-piece pressure regulator cuts seals and subassemblies to reduce damage risk in tightly packed aircraft evacuation systems.

Anti-rotation collar channels and controlled venting keep a cryogenic coupler stable, prevent ejection, and reduce freeze-up damage.

Rigid cryogenic pipes on buoyancy supports use swivel joints to handle wave motion while reducing pressure loss and easing installation.

A vacuum-insulated cryogenic coupling uses a frustoconical support tube and self-closing valves to prevent heat leak and fluid spillage during release.

An amorphous hydrogenated silicon coating blocks carbon monoxide contact with valve metals, preventing carbonyl contamination and leaks.

Through passages and segmented sealant bead outlines keep inert gas flowing in confined tank spaces, preventing pressure differentials and gas buildup.

A valve placed on the articulated arm shortens the buffer zone, reducing trapped gas and disconnection time during liquefied gas transfer.

A shape memory alloy wire and latch trigger rapid tank venting during fire exposure, improving emergency gas release reliability.

Environmental sensors under a removable valve cover detect cylinder activation and transmit usage and location status to cut manual stock checks.

A low-melting bridge holder releases a pin or ball during overheating to seal the gas channel, preventing leakage and container explosion.

A hollow-spindle cam mechanism gives a gas pressure reducer compact, reliable shut-off with full opening in less than a half turn.

A pressed lid, plug, and metal gasket keep a high-pressure gas valve airtight while avoiding O-ring deformation and easing sheet member replacement.

An actuator loads the spring only at use, preserving puncturing force over time and improving inflation reliability with less servicing.

Differential pressure across a stepped check valve retains preset residual gas pressure without a larger spring or bigger valve package.

A gas-permeable fitting vents trapped gas between the liner and shell, preventing separation, false leak signals, and vessel damage.

A pressure-differential valve uses two chambers and a shrinking exposed area to close reliably without springs, accidental discharge, or venting.

Standardized gas modules replace heterogeneous connectors and welds, making pressurized gas distribution safer, easier to service, and easier to reconfigure.

A stepper motor automates gas cylinder flow selection, replacing manual hand-wheel adjustment with precise, low-power control.

Elliptical dome contours stabilize fiber-reinforced resin winding, preserving pressure resistance while increasing container capacity in limited space.