Waste heat regenerating system

A power-producing heat engine system, comprising a first closed, heat vapor power cycle;

• incorporating a vertical-oriented, closed, partially heated and partially cooled, condensible fluid-vapor circulating system;
• being connected in the proper sequence with the working fluid's circulation, and consisting of a boiler feed pump, a boiler heat-exchanger means having a separate heating fluid inlet and a heating fluid outlet, a hydrodynamic gas expander means and a condenser heat-exchanger means having a separate cooling fluid inlet and a cooling fluid outlet;
• which arrangement comprises the continuous introduction of a liquid gas by pump to said boiler means at boiler pressure and its heating and evaporation therein, an adiabatic expansion of said heated vapor within said hydrodynamic expansion means to condenser pressure, the condensation of said vapor to initial state within said condenser means, and the reintroduction of said condensed gas by pump to boiler means, thus beginning a new cycle;
• utilizing a condensible gas having a boiling point substantially lower than the condensation temperature of water at specific pressure;
• wherein said first heated vapor power cycle serves the purpose of continuously heating and cooling a quantity of said condensible gas;
• which system further comprises a second closed hydrodynamic power extraction cycle, operating together with said first heated vapor cycle in an immiscible combined flow upward through their common tubular expansion means;
• incorporating a vertically oriented, closed, non-condensible fluid circulation system, being connected in the proper sequence of said fluid's circulation, and consisting of a vertically oriented tubular gas expansion means having a gas inducer section at its lowermost portion, a hermetically sealed vapor separation means on the system's uppermost portion having a fluid inlet and a fluid outlet, as well as a vapor outlet, a vertically oriented tubular penstock, and a hydrodynamic power extraction turbine;
• utilizing a non-compressible fluidic circulating medium;
• wherein said first cycle's heated gas enters said second cycle's non-compressible fluid at said expansion means gas inducer section at a substantially higher pressure, to circulate immiscibly together through said common tubular expansion means, from its lowermost portion upwards, to be expanded therein into said separation means to condenser pressure and being separated from each other within said separation means;
• whereafter, said expanded vapor, upon its separation from said non-compressible fluid, enters said condenser means to be condensed therein;
• and said non-compressible fluid, upon its separation from said vapor, enters said vertically oriented fluid penstock in a downward flow, and through said turbine means at the system's lowermost portion, and on through said gas inducer means to begin a new cycle;
• and in which power-producing system the introduction of said heated gas into said non-compressible fluid through said gas inducer section at the lowermost portion of said hydrodynamic expansion means, produces by virtue of said gas's expansion within said fluid and said vertical expansion means, the reduction of said common immiscibly upwards flowing mass' specific gravity as a whole;
• as compared to the higher specific gravity of the separated downward flowing non-compressible fluid's mass, within the system's penstock;
• giving rise to a difference in the hydrodynamic pressure heads between said turbine means' fluid inlet and its fluid outlet, thus giving rise to a circulation of said non-compressible fluid in the proper sequence through said second cycle's circulation system;
• and in which system said turbine means is conveniently used for the conversion of said flowing fluid's kinetical energy, into rotary shaft work within said turbine means.