Abstract: A cryogenic and thermal source cogeneration method for converting energy from a heat source, through a cryogenic heat transfer process, into mechanical and/or electrical energy, comprising, utilizing a vapor compression cycle (2) to absorb heat from the heat source and, utilizing a Rankine cycle (4) for energy transfer, for converting thermal energy to mechanical and/or electrical energy.

Abstract: A cryogenic and thermal source cogeneration method for converting energy from a heat source, through a cryogenic heat transfer process, into mechanical and/or electrical energy, comprising, utilizing a vapor compression cycle (2) to absorb heat from the heat source and, utilizing a Rankine cycle (4) for energy transfer, for converting thermal energy to mechanical and/or electrical energy.

Abstract: A cryogenic and thermal source cogeneration method for converting energy from a heat source, through a cryogenic heat transfer process, into mechanical and/or electrical energy, comprising, utilizing a vapor compression cycle to absorb heat from the heat source and, utilizing a Rankine cycle for energy transfer, for converting thermal energy to mechanical and/or electrical energy. A cryogenic and thermal source cogeneration apparatus for converting energy from a heat source, through a cryogenic heat transfer process, into mechanical and/or electrical energy is also disclosed, comprising, vapor compression cycle mechanisms to absorb heat from the heat source, and Rankine cycle mechanisms for energy transfer, for converting thermal energy to mechanical and/or electrical energy. The Rankine cycle mechanisms being operably linked to the vapor compression cycle mechanisms.

Abstract: A raised floor air handling system for use in a building that is used in combination with and set into an elevated floor assembly that is mounted on a principal floor of a building so as to provide an air plenum between the two floors. An air handling assembly is mounted below an integral raised or elevated floor tile to pull air via a radial impeller fan from the air plenum and directs it vertically through the integral raised floor tile into air distribution ducting (flexible, anti-static fabric with nozzles, linear vents, or other types of perforations) and onto the equipment/location being served air. The raised floor tile is designed to match the load rating of other floor tiles to become an integral part of the elevated floor assembly. The ducting attaches to the top of the raised floor tile via removable duct collars and is supported vertically/horizontally by miscellaneous hardware attached to existing/new structures.

Abstract: A raised floor air handling system for use in a building that is used in combination with and set into an elevated floor assembly that is mounted on a principal floor of a building so as to provide an air plenum between the two floors. An air handling assembly is mounted below an integral raised or elevated floor tile to pull air via a radial impeller fan from the air plenum and directs it vertically through the integral raised floor tile into air distribution ducting (flexible, anti-static fabric with nozzles, linear vents, or other types of perforations) and onto the equipment/location being served air. The raised floor tile is designed to match the load rating of other floor tiles to become an integral part of the elevated floor assembly. The ducting attaches to the top of the raised floor tile via removable duct collars and is supported vertically/horizontally by miscellaneous hardware attached to existing/new structures.