See how an embedded heat exchanger in a vane motor enables simultaneous electricity generation
See how direct-contact heat transfer between a phase-change motive fluid and a dense liquid eli
See how a dual-tower fluid displacement system uses cam-driven pistons to generate energy witho
See how ceramic composites formed by displacive compensation of porosity maintain thermal condu
See how a flat cable integrating electric conductors and fluid ducts reduces shading, simplifie
See how cascaded vapor utilization drives both power generation and thermal conditioning, achie
See how a single-tank design with porous block structure reduces solar thermal system cost and
See how metal-containing particles with melting points above 800°C replace molten salts to elim
See how aluminum fuel with water oxidizer and thermoacoustic conversion eliminates noise and on
See how a piston-cylinder mechanism with rotating valve replaces turbines to reduce maintenance
See how a solar-powered closed-loop system uses vapor expansion, compression, and phase-change
A flat composite cable combines power conductors and fluid ducts to cut shading, simplify solar cogeneration installation, and reduce errors.
Solar thermal Stirling propulsion cuts aircraft CO2 emissions while thermal and electrical storage extend flight beyond daylight hours.
Evaporation-condensation reclaims high-TDS water while solar heat and biomass combustion also generate electricity and usable heat.
Phase-change heat exchangers smooth hot-fluid swings between the solar field and storage, keeping turbine inlet temperature stable.
A single-fluid Rankine and heat pump cycle recovers engine waste heat to generate power while providing heating or cooling.