Vessel Mounting Details TRIZ Cases

Longitudinal grooves in a resin liner release trapped gas to prevent buckling and delamination of the composite shell during depressurization.

An annular conduit and gland packing retrofit assembly enables fluid access within top entry valves.

A zeolitic imidazolate framework adsorbent stores germane gas within a sub-atmospheric pressure vessel.

Automated system replaces high-pressure gas barrels using dual lifts and control units, eliminating manual handling errors and preventing gas leaks.

A split clamp closure uses a toggle mechanism and locking pin to secure the vessel door against pressure.

Segmented drive and pump sections use a cooling jacket to reject motor heat, preventing temperature control issues in closed vessels.

A hydraulic pressurization unit maintains constant pressure within gas cylinders during transfer operations.

Parallel fiber layers eliminate helical crossings, reducing porosity risks while maintaining seal integrity under pressure cycles.

An inverted collar design resolves the trade-off between assembly ease and connection stability under internal pressure.

An access interface unit supplies electrical energy to open a pressure vessel blocking unit when the onboard network fails.

A metal hydride hydrogen storage arrangement integrates a high-density filler body between containers and heat transfer means to serve as structural counterweight.

A diversion fitting with a ramp redirects fluid flow into an inlet channel, preventing stagnant water accumulation and microorganism growth in aqueous tanks.

Vacuum chamber accumulates water from hydrogen filling nozzles while a remote pump evacuates the chamber to maintain suction power.

A protective barrier applied to corrugated liners prevents resin intrusion during manufacturing.

Adding hydrogen to fuel cartridges widens the explosibility range, enabling lower power settings that prevent damage to tender materials during fastening.

Segmented storage tanks with independent valve circuits reduce dead mass by emptying low pressure units to lower minimum levels.

Pinching members hold the blowing nozzle to prevent film deformation and ensure reliable gas enclosure.

Two-stage oil removal prevents lubricating oil precipitation in heat exchangers, maintaining re-liquefaction efficiency.

Calculated liner body thickness maintains contact with the reinforcing layer during thermal contraction, preventing localized elongation at low temperatures.

An undercut fillet connects the rim to the sealing seat, distributing pressure differential stress to reduce concentration in ordinary materials.

Relocating the antenna to the vertical support upright resolves transmission quality issues without increasing assembly bulk.

Ports with swage recesses and lips press-fit into liner necks, preventing fragmentation risks when pressurized with pure oxygen.

Internal axial carbon rods carry loads, reducing helical fiber usage and weight while maintaining structural integrity.

Simultaneous filling through two ports creates a central mixing zone that dissipates kinetic energy heat, reducing supply pressure requirements.

A non-venting transfer system routes evaporated gas through a vapor return line to the source tank.

Merging antenna with cap wall resolves communication reliability versus device complexity trade-offs in pressurized fluid bottles.

Segmented cowling bodies allow valve access while the base maintains shock protection against transport hazards.

Multiple hydrogen storage tanks match specific aircraft saturation pressures to enable efficient filling operations.

A two-tier fuel supply system with independent control units manages hydrogen consolidation between pressure vessel tiers and buffer storage.

A gas supply system uses a vaporizer and control device to regulate internal pressure within a pressure vessel.

Segmenting the piping system into flexible hoses and rigid pipes reduces built-in tensions during vehicle mounting while maintaining fuel flow efficiency.

Aluminum alloy gas cylinders reduce load inaccuracies from 5% to ±1.5% for NO/N2 mixtures.

A composite cylinder with a hexagonal plastic cage prevents displacement and enables RFID tracking.

Eccentric support members prevent inner tank rotation to protect pipelines and minimize heat leakage between the inner tank and shell.

Purge gas creates an inert barrier that prevents water vapor condensation on cold regulators.

A quick-connect valve locking mechanism blocks separation during fluid flow to maintain secure attachment between pressurized components.

Varying layer thickness and winding angles eliminate air pockets while maintaining structural integrity under high internal pressure.

A gas supply system controls solenoid valves based on tank geometry to manage fluid flow efficiently.

Thickened liner ends offset joining misalignment to suppress harmful gaps between the fiber and liner.

An active venting control system manages liquid hydrogen tank pressure using sensor data and predictive algorithms.

Automated RFID scanning tracks cryogenic container inventory while microscope cameras verify sample identity remotely.

Fiber-reinforced wound layers thicken at pressure vessel pole caps to absorb impact energy without adding separate plastic components.

Modified vacuum actuated check valve uses a perfluoro-elastomer o-ring face seal to maintain reliable operation at elevated pressures.

Interconnected modular cylinders with safety valves deliver reliable gas supply to remote locations, eliminating expensive pipeline construction costs.

A liquid buffer maintains safe pressure ranges in underground storage volumes during transient operations.

Polymeric liner acts as dielectric barrier between conductive composite boss and corrosive environment, reducing vessel weight for marine transport.

A liquid sealant fills gaps between the liner and boss to create a gas-tight seal.

Adjustable connecting pieces position sealing angles along anchoring wings, reducing mechanical stress on welds across different insulation thicknesses.