Counterclockwise Thermal Regeneration With Thermal Acceleration

The patent inverts the conventional clockwise heat-power cycle into a counterclockwise cycle. Instead of compressing the working fluid before heating (clockwise), the patent heats the fluid first, then expands it, followed by cooling and compression. This reversal eliminates the need to dissipate waste heat to the environment, as the cooling step occurs at a lower temperature level where heat can be rejected to ambient air without reducing cycle efficiency. The inversion transforms the thermodynamic sequence to achieve both power output and elimination of harmful waste heat dissipation.

The patent changes the thermodynamic parameters sequence by operating with lower maximum temperatures and pressures compared to conventional cycles. By using organic working fluids with lower saturation temperatures and optimizing the pressure-temperature trajectory along the saturation curve, the cycle achieves efficient heat addition at moderate temperatures and rejects heat at temperatures close to ambient conditions. This parameter optimization eliminates the need for high-temperature combustion and associated waste heat problems while maintaining viable power output.

The patent fundamentally changes the operating parameters by using organic working fluids that enable efficient heat addition at lower temperatures (typically 100-200°C saturation temperature) compared to conventional water-steam cycles requiring temperatures above 300°C. The cycle operates at moderate pressures and utilizes the saturation curve of organic fluids to achieve efficient phase-change heat transfer at environmentally benign temperature levels, eliminating the need for high-temperature combustion and its associated environmental harms.

The patent replaces combustion-based thermal systems with alternative heat addition methods. Instead of burning fossil fuels to generate high temperatures, the system can utilize low-temperature heat sources such as industrial waste heat, geothermal energy, solar thermal energy, or biomass combustion at low intensity. This substitution eliminates CO2 emissions and air pollutants while maintaining thermal efficiency through the optimized counterclockwise cycle and phase-change heat transfer mechanisms.

The patent takes the counterclockwise refrigeration cycle, which is efficient for heat transfer but consumes work rather than producing it, and inverts its operational mode. By reversing the sequence of processes and utilizing the expansion of vapor during the power stroke, the cycle transforms from a work-consuming refrigeration cycle into a work-producing power generation cycle. The key inversion is allowing the working fluid to expand and perform work on the turbine or piston after heat addition, rather than compressing it before heat addition, thereby converting the counterclockwise cycle into a viable power generation system.

The patent enables the counterclockwise cycle to be self-sufficient for power generation by optimizing the expansion work to exceed the compression work required. The organic working fluid undergoes complete vaporization during the heat addition phase, and the resulting high-volume vapor expands through a turbine or piston to generate work that exceeds the work input required for the subsequent compression phase. This self-service capability allows the cycle to produce net power output while maintaining the efficient heat transfer characteristics of the counterclockwise configuration.