Steam Regeneration TRIZ Cases

Using synchronized valved cells and regenerative vapor compression, this case improves isochoric heat transfer and cuts compressor losses.

Recovering engine cooling heat produces low-pressure steam, while compression raises pressure and reduces fuel demand versus conventional generation.

A split flow pressure reducing valve and rotor unit expands steam through isenthalpic and polytropic pathways to control outlet conditions.

A flotation tank buffers working fluid pressure between a precooler and compressor, eliminating expensive high-pressure mass control tanks.

A recompressed transcritical CO2 cycle generates power while regasifying liquefied natural gas using seawater heat sources.

An additional high-pressure bypass line diverts steam to the condenser during rapid startup phases.

Flash evaporation of compressed liquid pre-condenses exhaust steam in the compressor, reducing energy loss and system complexity.

Segmenting supercritical fluid discharge streams into separate heat exchangers reduces size and cost while enhancing thermal efficiency.

Cascaded recompression closed Brayton cycle system segments turbine flow paths to maximize heat extraction efficiency.

Integrating a CO2 Rankine cycle condenser with an absorption chiller evaporator reduces parasitic loads at high ambient temperatures.

A combined Brayton and Rankine cycle system recovers waste heat using carbon dioxide and organic fluid.

Segmenting steam generation into two boilers reduces CO2 emissions while maintaining conduit integrity below critical corrosion temperatures.

A disc rotor turbine converts thermal energy into mechanical power using adhesion forces between fluid streams and rotating discs.

A turbine ventilation system recovers heat decay in steam drums to maintain boiler temperatures during idle periods.

A method recovers potash by injecting NaCl-saturated brine to dissolve KCl while leaving salt behind.

A supercritical carbon dioxide power system uses an ejector to recover waste heat from the regenerator exhaust and preheat the working fluid.

Series regenerative exchangers divert work fluid for cogeneration, maintaining electric output while meeting thermal demand.

A supercritical carbon dioxide gas turbine facility regulates dry working gas flow through a compressor bypass pipe to maintain combustor jetting velocity.

A controllable bypass valve diverts working fluid around the energy conversion device to regulate condenser pressure in a waste heat recovery system.

A parallel control model parameterizes heat recovery steam generator stages by inlet heat flow to improve operational stability.

A liquid air energy storage system uses a cryogenic pump and evaporator to recover mechanical power from high-pressure gas.

Segmented recuperators reduce stress and contamination risks while maintaining high cycle efficiency in supercritical carbon dioxide systems.

A steam cycle additive generates a hydrophobic coating on condenser and turbine surfaces to enhance heat transfer.

A temperature differential engine converts thermal energy into mechanical work using a low-boiling-point medium steam turbine and heat absorber.