Self-Contained Rotary Compression Machines TRIZ Cases

See how integrating a refrigeration circuit with solvent extraction creates a thermal gradient

See how a rotating refrigerant circuit uses centrifugal force to create density and temperature

See how stacked rotor plates merge compression, expansion, and heat transfer ducts into one ele

See how integrating centrifugal fan blades as heat exchange surfaces eliminates separate struct

See how throttle members compensate for centrifugal pressure differences in rotating shell-and-

See how integrating centrifugal fan blades as heat exchange surfaces with a sealed rotating flu

See how integrated refrigeration and solvent circuits merge thermal functions to reduce energy

See how a large-volume chamber between economizer port and external port dissipates pulsation,

See how universal mounting brackets and cone-shaped fan discharge enable one evaporator system

See how radial guidance of working medium using centrifugal force retains flow energy during co

See how self-contained cooling modules replace APU operation, reducing jet fuel use and emissio

See how a segmented support body distributes radial forces along heat exchanger length to preve

See how axially-parallel heat exchange channels enable continuous heat transfer during compress

See how a chamber between economizer and external ports dissipates pulsation waves, achieving a

Variable refrigerant flow, electronic expansion valves, and heat recovery improve zoning, backup heat, and air distribution in low-ambient HVAC use.

Axial supply-channel outlets feed the impeller inside the rotor to suppress swirl, cut energy losses, and improve pressure stability.

Parallel heat-exchange channels in a rotating compression-expansion rotor cut flow losses, save axial space, and improve thermal conversion.