Multiple Way Valves TRIZ Cases

Segmented housing and nested ball assembly reduce equipment weight and installation time while maintaining reliable hydraulic control.

Lattice elastomer resolves sealing leakage versus gate mobility trade-off by enabling elastic deformation under pressure.

A rotary distributor manifold uses a through slot to maintain fluid contact between fixed and moving elements.

Arched module housings enable automatic centering, eliminating calibrated tie rods and reducing assembly complexity.

A rotary shear valve assembly incorporates a press-fit polymer insert device to create a durable fluid-tight seal between metallic rotor and stator faces.

A chamber induces rotational flow to regulate fluid movement through an inflow control device.

A double-seat valve uses a sharp-edged leading surface to guide cleaning fluid via an ejector effect, directing flow away from the production cavity.

A hand-held dispenser uses a mechanical linkage to rotate water and chemical spool valves simultaneously for precise mixing.

Radial segmentation of the flow channel eliminates abrupt direction changes and constrictive apertures, reducing pressure drops in subsea hydraulic systems.

A flash tube and vessel configuration equalizes exit pressure to dissipate slurry jet momentum.

A multiport slide valve switches hydraulic configurations via a single sliding core movement.

A diverter valve plug transitions to a cleaning position to deactivate sealing elements and enable fluid flow through internal cavities.

Segmented axial sealing reduces perpendicular surface complexity while enabling precise fluid control across numerous reactors.

Internal and external flanges divide the chamber space, preventing rotation and slide of the fixed ceramic disc.

Elastomeric seals compress against passage elements to reduce friction and wear, extending service life under high operating pressures.

Rotating the valve element eliminates pneumatic cylinder coupling, resolving vibration and seal durability trade-offs while simplifying maintenance.

A diverter valve switches extruded material flow paths to maintain continuous production lines.

Radial boreholes redirect hydraulic fluid away from the rotor tappet contact area, preventing abrasive wear and cooling the central magnet.

Segmented receiving hole gaps accommodate thermal expansion of the spherical drive block, preventing jamming and ensuring normal operation.

A directional control valve uses fluid pressure to displace biased valve heads between open and closed positions.

Integrated fluid device unit structure positions return flow path branching near valve upstream side to minimize chemical solution stagnation volume.

Segmented timing systems ensure reliable valve closure during power failures by switching to a secondary pneumatic vent mechanism.

A fluid distribution system uses a valve assembly to alternately supply pressurized water between oscillating nozzle assemblies.

A pressure control device uses a switch-over valve to supply gas at two positive pressures.

A dual-action dynamic valve supplies air to one side of a vehicle while exhausting the other, resolving unbalanced loading issues.

A segmented spool valve design minimizes internal dead space to prevent cross-contamination of aggressive chemical products.

A throttling element partially covers inlet ports to increase the operating arm rotation angle.

A dual ceramic disc cartridge integrates separate flow paths within a single unit to enable independent operation of distinct water outlets.

Segmented axially rotating valve closing bodies reduce production costs and improve compactness in multivalve systems.

Rotating flow control members align channels to regulate water temperature and outlet rate through a single valve assembly.

Segmented flow paths with independent rotating disks resolve the contradiction between high switching frequency and device complexity.

A rotary flow direction block with clearances selectively connects internal passages to manage fluid routing within a compact valve housing.

Directly mounting a bypass valve assembly to the transmission casing reduces fluid travel distance and minimizes spin losses.

A selector valve with a rotating plug directs fluid flow through a single inlet to multiple wellhead outlets.

A valve cartridge uses tapered flow passages and thinner plates to increase water flow efficiency.

A three-way valve implements flow mixing and division using a movable valve seat component driven by a single rod mechanism.

Reinforcing members control edge stresses to prevent bilayer curling, ensuring complete valve closure in high-density lab-on-a-chip arrays.

A gas flow verification unit uses pressure and temperature detectors to calculate flow rate between cutoff valves.

A hydraulic valve manages fluid flow cross sections through staged mechanical movement of its internal body.

Integrating a spherical valve within the manifold body reduces axial dimensions and installation time while maintaining fluid tightness.

A three-way valve assembly uses a rotating plug to isolate pressure sources and manage fluid drainage within a compact housing.

Groove-like recesses on the valve slide create a homogeneous pressure field to reduce leakage between high and low-pressure zones.

An integrated valve merges aeration and flow control to seal against backflow while preserving aesthetic design.

Segmented flow channels in the valve core prevent leakage and mixing of raw and purified water, extending device service life.

A valve cartridge housing forms a stop for the actuating mechanism to define flow rates and temperatures.

Rotating the rotor varies groove overlap to deliver 10-250nL volumes, eliminating tubing variance in nano-HPLC.

Segmenting components and inverting outlet orientation prevents back pressure leakage while separating raw and purified water streams.

An integral rotary valve diverts lubricant flow between dual filters, eliminating compressor shutdowns required for filter replacement.