Vessel Mounting Details TRIZ Cases

A controlled valve modulates fuel gas temperature and pressure during dispensing.

Segmented rectangular liners with perforations enable composite extrusion, improving space utilization while reducing manufacturing complexity.

Axial reinforcing members disperse collision loads to improve side impact resistance without reducing the internal volume of high-pressure tanks.

Hierarchical MOF monolithic bodies resolve porosity-density trade-offs to enhance volumetric capacity.

Boss assembly channels leaked gas through dedicated passages, preventing pressure buildup at the liner interface.

A hydrogen dispenser integrates a multi-position valve block to direct fluid flow from a single source to multiple filling points.

Cylindrical pressure vessels mount in a tank storage room below the uppermost watertight deck using linear bearings and gas-tight fixing means.

Aligning inner and outer domes prevents thermal stress on the inner shell during liquefied gas cooling while enabling efficient internal inspection.

A fuel supply apparatus compresses natural boil-off gas into high pressure for storage in a dedicated tank.

Segmented inserts support independent heat exchanger welding to reduce production time while maintaining gas-tightness.

Infrared heating compensates for Joule-Thompson cooling to prevent condensation during CNG unloading.

Segmented fluid drain tool removes liquid contaminants under pressure without depressurizing the fuel system, preventing messy spills.

Rib members create a controlled discharge path for permeated gas, preventing liner buckling and eliminating false leakage diagnoses.

Cross-connected rib nets embedded in soil layers prevent side slope erosion and collapse of soil-covered tanks.

A flow path insert with intersecting passages creates a tortuous route for pressurized fluid.

Rotating the gas cartridge engages radial coupling means on a locking ring, securing elastic lugs in a valve groove for intuitive operation.

Level detection mechanisms activate parallel supply lines to reduce pressure fluctuations and maintain temperature control precision at high flow rates.

A passivating Fe2O3 metal oxide layer with specific surface facets lowers hydrogen adsorption into a steel bulk region.

Segmented pressure containers isolate leaks using safety valves that close at maximum throughflow, reducing burst risk in constrained spaces.

Disposable capsule breaks under fuel pressure to release additive, eliminating separate handling steps and ensuring precise dosing.

A method uses three test vessels to establish pressure equilibrium with a compressed gas storage system for rapid volume determination.

Boil-off management assembly removes and disposes of evaporated LNG gas from on-board aircraft cryogenic fuel tanks.

Internal coating application compresses the layer during expansion, preventing hydrogen permeation fractures.

Segmenting the container from a protective shield reduces assembly weight while maintaining safety against flying gravel.

An internal reinforcing member within corrugations prevents structural collapse under pressure, reducing stress in weld zones and improving insulation.

Internal liner vents release trapped gas from the boss interface, preventing distortion and maintaining mechanical interlock stability under high pressure.

An elastic return ring deforms radially to lock male and female elements, reducing device complexity while maintaining seal integrity under high pressure.

Integral handles on a cylindrical wall enable nested stacking of pressure vessel jackets, reducing storage volume and handling costs.

Segmented flow channels in a multi-stream vaporizer prevent ethylene glycol freezing while maintaining continuous ship fuel supply.

Segmented blow pin coupler with radial ball engagement prevents rotational loads on bonding interfaces, ensuring leak-proof composite pressure vessel liners.

A single-point mooring buoy links two tankers via fluid conduits to enable hydrocarbon transfer.

A combustible ice combustion system manages high-pressure gas flow through a dedicated nozzle and turbine arrangement.

Concrete cryogenic tanks use cold-resistant reliefs to buffer thermal shock, reducing material costs while maintaining structural integrity against cracking.

An external energy source triggers the safety valve through an interface, enabling targeted gas evacuation even if vehicle electronics fail.

A valve circuit switches between gas and liquid extraction lines to manage tank pressure.

Metal cylindrical sections paired with molded resin flanges resolve adhesive strength contradictions while maintaining structural rigidity.

Portable auxiliary LPG cylinders and a controller-sensor-pump system refill the primary fuel tank, eliminating refueling downtime for terminal tractors.

Positioning wedges anchor insulating blocks against non-horizontal vessel walls.

Composite trigger segments transmit tensile forces to actuate the valve, preventing failure from elastic stretching.

Suspended cryogenic hydrogen tank uses fiber-reinforced composite walls and tensile-loaded dry fiber elements for structural support.

A single-piece RFID tag uses a loop-like fixing part to attach securely to objects without separate assembly steps.