A modular Stirling engine cartridge uses magnetic coupling between the piston and displacer to eliminate mechanical friction losses.
Auxiliary evaporator diverts working fluid for secondary evaporation in organic Rankine cycle systems.
An injector mixes working fluid from a first heat exchanger with fluid from a second heat exchanger before the pump.
A modified organic Rankine cycle uses a binary working fluid to match geothermal heat source profiles.
Introducing non-condensing auxiliary gas raises system pressure in the pump line, preventing cavitation in low-boiling working fluids for compact ORC designs.
Segmented heat source circuit in organic Rankine cycle module improves temperature matching for low-temperature thermal discharges.
A supercritical working fluid system converts low-quality heat into mechanical power using a single-stage turbine and economizer loop.
A cascaded organic Rankine cycle plant uses partializable turbines to maintain constant rotational speed across varying thermal loads.
Heating surface segmentation pre-cools exhaust gas upstream of the superheater to regulate steam temperature.
Varying generator cooling air pressure modulates braking torque, controlling steam turbine rotational speed and preventing blade heating during startup.
An overload valve diverts reheated steam to lower pressure turbine sections, enabling variable swallowing capacity.
A heat transport network integrates an organic Rankine cycle to convert thermal energy into mechanical power.
A control system maintains fluid pressure and temperature set points across multiple boilers to regulate steam flow.
Segmented valve control circuits manage steam flow to suppress turbine overspeed while maintaining reactor pressure stability during power system accidents.
A strain augmented power cycle uses an elastomeric device to store energy from vapor expansion.
A control system modulates low pressure steam extraction from a steam turbine engine to a heat recovery steam generator using a heating element and proportional valve.