A pressurized cylinder valve uses continuous pressure and position sensing to calculate remaining fluid volume in real time.
Segmented pilot and main valve elements use differential pressure to actuate the main valve, resolving solenoid size versus responsiveness trade-offs.
Oblique side holes in the hollow poppet suppress chattering noise at low flow rates while a positioning member maintains valve seat alignment.
Interchangeable tubular headers enable rapid assembly of a universal cryogenic gas manifold.
Rotation melting joins a plastic container to a metal connector, reducing weight while maintaining stability.
Integrated tong elements and valve sequencing reduce device complexity while maintaining reliable sealing through merged mechanical functions.
A cylinder valve uses nickel plating on an aluminum body to prevent gas reactions.
Radial partitions and bores in the boss flange vent trapped gas, preventing liner separation caused by permeation pressure.
A mathematical model estimates tank wall temperature in real time to regulate gas flowrate during filling operations.
A quick coupling uses a cam mechanism and locking balls to engage threaded terminals securely.
An external resilient sealing member on a disposable compressed gas cartridge abuts the charging pin seat surface, eliminating leakage from degraded seals.
A gas supply apparatus adjusts storage vessel temperature to prevent pipeline condensation during vaporized compound transport.
Two distinct shutter elements open sequentially to prevent rapid pressure increase from damaging downstream equipment.
Curved flexible blades replace rigid sleeves to eliminate friction jamming during cryogenic hydrogen storage thermal cycles.
An elastic sealing pad compensates for thermal expansion mismatches between a plastic liner and metallic nozzle, preventing fluid leaks at the bonding portion.
Aligning the manometer with the switcher knob shields the gauge from impact while consolidating components to minimize collector size.
Chilling reservoir manages heat via intermediate fluid phase change, reducing energy consumption and pump seal wear during hydrogen fuel dispensing.
Integrated safety device shuts off gas supply when pressure limits are exceeded, preventing acetylene decomposition hazards.
Microcontroller iterates pressure changes based on heat entry and evaporation to predict remaining retention time without static gauge reliance.
Segmented bonding connects a thin metal liner to a composite tank body, preventing buckling and blistering in large cryogenic storage vessels.
A pressure-locking nozzle uses pneumatic clamping to secure connectors during fuel delivery.
Perpendicular stacked fuel tank layers increase rigidity, resolving installation space constraints while reinforcing the passenger compartment.
Flexible plastic cover on valve housing vents excess gas through deformation, preventing housing bursting and ensuring component safety under pressure.
A welded nozzle configuration with a single fittings plate consolidates pipe penetrations in railway tank cars.
A pressurized gas cylinder valve uses a lever mechanism to actuate a shutter for controlled dispensing.
A hermetically sealed cylinder actuator uses a solenoid-driven cutter to break a fracture disk, eliminating static seal leakage and maintenance downtime.
A rigid tubular structure absorbs torque between the motor and conversion system, preventing vibration transfer to the vertical piston tank.
Segmented collar portions transmit clamping force via stop walls, enabling tool-free assembly without damaging the bottle valve attachment system.
Piggyback lines enable efficient gas replacement for liquefied hydrogen transport, reducing facility costs and operation time.
A segmented tank system uses beveled mating surfaces and internal webs to retain fluids while reducing overall weight.
Segmented valve design prevents seal damage from misaligned perforators by positioning a protective peripheral part beyond the piercing depth.
A pressurized gas valve uses a single actuating member to open both isolation and residual pressure valves simultaneously.
A hydrogen filling system uses multiple feeders and a controller to estimate fill factors from internal temperatures and pressures.
Integrated dual coils manage pressure reduction and saturation control, eliminating separate tanks and complex piping for LNG systems.
A gas cartridge valve uses a shaped flapper to progressively adjust the gas passage cross-section during movement.
A pressurized gas cylinder valve protection device integrates a tamper-evident seal with predetermined breaking points.
Axial ring movement multiplies pressing force via tapered surfaces, overcoming thread limitations for hydrogen tank longevity.
Filling a refrigerated vehicle coolant tank recovers evaporated cryogenic refrigerant to cool the compartment, reducing substance loss during pressure transfer.
A plastic foot ring with deflectable lock tabs prevents rust stains on indoor surfaces while maintaining structural stability.
A valve securing device applies predetermined torque to rotate a mechanical element from closed to open position.
Tapered metallic connection boss seals plastic liner inlet via elastic friction, preventing gas leaks from repetitive fatigue loads.
A robotic manipulator lifts and rotates pressure bottles on a conveyor for precise filling head alignment.
A cylinder caddy uses a counterweight and pivoting handle to stabilize portable cylinders, preventing tipping during transport.
Integrated control valves manage minimum and maximum pressure thresholds, resolving inconsistencies between separate venting and regulation devices.
A projecting rim shields the rotary control member from impact damage while providing a reading window for precise flow rate adjustment.
Circulating hydrogen through the tank feed line maintains −33°C temperature, preventing interruptions during vehicle refueling.
An inert atmosphere in the shroud volume creates counter-pressure that blocks hydrogen transmission through micro-cracks in the thermoplastic liner.
A movable hooking element on a gas cylinder frame switches between operative and rest positions via an activation mechanism.
A subterranean gas storage assembly uses a self-centering anchor to position multiple vessels within a single bore.
Distinct axial and peripheral fiber winding angles optimize lamination configuration, resolving strength development efficiency issues in high-pressure tanks.