A CLEAN SHEET APPROACH LEADS TO BREAK-THROUGH TECHNOLOGY

Conventional internal combustion and electric powertrain technologies are fundamentally derived from legacy architectures with inherent thermodynamic and structural limitations. In contrast, clean-sheet engineering methodology enabled CHP Engines to remove legacy design constraints and engineer an advanced process to optimize the power of fuel.

The first design phase involved identifying the result of fuel combustion, which according to the United States Department of Energy, is generally 30% pressure and 70% heat. Phase two involved the design of an engine that would optimize the integration, and utilization, of those combustion results.

In a conventional engine, pressure is used to push a piston, to provide vehicle propulsion, while the thermal component of combustion is dissipated as unused, wasted energy through exhaust and cooling systems. From an economic perspective, over half the money spent on fuel is wasted because heat energy is discharged into the atmosphere by all current internal combustion engines, regardless of make, model or design. In short, if a person buys $100 of fuel, $50 of it does nothing.

Therefore, the engineering objective was to integrate and utilize both pressure and thermal energy released during combustion to maximize the utilization of fuel energy toward mechanical power. Through this integrated thermodynamic approach, the patented CHP Engine technological innovation significantly improves energy utilization, with improved fuel economy, greater engine power density, and only minuscule trace emissions.
Comparatively, where conventional gasoline engines achieve approximately 30% energy-to-power conversion efficiency and modern diesel engines reach roughly 40%, the United States Environmental Protection Agency (EPA) believes that a combined heat/pressure design may perform at double the efficiency of internal combustion.