See how a magnetic quick connect enables single-handed attachment and detachment of hydration c
See how a magnetic quick connect enables one-handed, no-look disconnection of hydration system
See how a magnetic quick connect replaces friction-fit connectors to enable single-hand attachm
See how surge detection sensors and dynamic valve control prevent back-pressure surge in multis
See how surge detection sensors and a controllable economizer valve prevent back-pressure surge
See how a magnetic quick-connect mechanism enables one-handed attachment and emergency disconne
See how a magnetic quick connect enables single-handed attachment and detachment of hydration c
Rotating waveform disks and magnetic coupling enable fluid dissociation and power generation at ambient temperature with low input energy.
A disk-pack turbine generates current for battery conditioning while supporting contactless maglev levitation through diamagnetic field generation.
A flux field generator with a disk-pack turbine creates magnetic repulsion for wheel-free levitation and propulsion with lower heat and energy use.
Generator current is used to condition batteries for higher capacity and runtime while reducing charging and in-use battery temperature.
Rotating hyperbolic waveform disks and coil arrays separate fluid components at ambient temperature while generating power with minimal input energy.
Relative paddle motion in a chamber improves bidirectional transport of gases, fluids, or particulates and can recover energy from reverse flow.
Magnetic drive coupling and staged compression cut heat and contamination, enabling reliable dry operation above 50 bar.
Dry bearings and a magnetic drive coupling address high-speed heat, grease contamination, and maintenance demands in a high-pressure compressor.
Inlet and outlet liquid seals maintain a stable vapour cavity, enabling high-speed rotor operation beyond traditional cavitation limits.
This case combines hyperbolic waveform disks, centrifugal forces, and magnetic fields to separate fluid components with minimal input.
This case uses vortex and expansion chambers with rotating waveform disks to separate fluids and induce current in coils.
A disk-pack turbine uses rotating waveform disks, coils, and magnets to dissociate fluid components at ambient temperature with low heat.
Segmenting impeller blade grooves into groups with distinct pitch angles reduces noise while maintaining pump efficiency.
A transfer pump uses a bypass path and flow sensor to detect siphoning conditions.
Segmented impeller stages with scraper rings boost pumping efficiency, lowering energy consumption for remote solar-powered well applications.
Pre-deforming the fuel pump housing allows stator ribs to align accurately without burr damage or excessive press-fitting force.
Segmented pumping chambers enable bidirectional flow while an inverted scraping unit removes adherent fluid to prevent loss and maintain efficiency.
Segmented chambers isolate electrical connections from fuel exposure, preventing corrosion and ensuring reliable operation.
Return assemblies redirect fluid flow from the outlet back to the inlet side of a single rotor, increasing work output without adding complex stages.
An axial auxiliary connection taps into the impeller leakage flow to enable precise dosing and vacuum generation without altering the core pump structure.
A centrifugal pump uses a hybrid impeller with backward-bent webs and radial vanes to build pressure while managing flow.
Segmented thin composite discs reduce inlet and outlet energy losses while maintaining structural integrity under high centrifugal forces.
Coupling the rotor shaft to the stator side aligns the support point with the center of gravity, reducing vibration and noise in vehicle fuel pumps.
A rotodynamic pump adjusts impeller clearance via a pressure regulating mechanism to control fluid delivery.
Precise blade wall offset geometry improves pressure build-up while controlling radial speed to prevent fluid leakage in side channel compressors.
A rotodynamic fuel pump adjusts delivery pressure by pivoting housing parts to change the angular relationship between inlet and outlet ports.
A plastic fuel pump impeller reinforced with carbon fibers provides mechanical strength without damaging housing parts.
Fluid pressure drives the cylindrical rotor through a housing gap while a fixed magnet repels the rotor end to limit motion without contact resistance.
An integrated side channel pump arrangement regulates flow via hydraulic pressure to prevent coolant boiling during closed circuit phases.
Segmented axial slide gap design discharges contaminants through enlarged space to prevent wear and maintain fluid tightness.