Abstract: A heat concentrator device for a solar power system includes an evacuated hollow body with a bottom, side walls, a top and an airtight cap. Portions of the side walls have inwardly reflective surfaces for concentrating solar radiation into the chamber toward a heat sink, which is positioned in the bottom of the chamber. The heat sink also is hollow and has an inlet port formed in one of its opposite side walls and an outlet port formed in the other for heat transfer fluid to flow into and out of the heat sink. Circuitous passageways form a maze that connects the inlet and outlet ports thus maximizing heat transfer to/from system fluid(s) within the heat sink. The sidewalls of the chamber of the device extend below the heat sink to form a partial vacuum chamber between its bottom and the heat sink. The device is mounted to a reflective dish of a solar power system in a unique way adding additional solar energy collection efficiencies.

Abstract: A solar power system includes a preheating device for heating first heat transfer fluid and second heat transfer fluid in separate tubes. The preheated second heat transfer fluid is routed to a boiler. The preheated first heat transfer fluid is routed through a plurality of heat sinks each associated with a solar radiation collector concentrator. Vacuum chambers receive the solar radiation from specially designed dishes with hyperparabolic feed antennas and direct energy to the heat sinks transferring the heat energy to first heat transfer fluid routed through the heat sink. The lower half of each chamber extends below each dish and has an interior reflective coating on the interior of the chamber side wall. The heated first heat transfer fluid is routed through a coil within the boiler to heat the second heat transfer fluid within the boiler. The boiler outlet steam is routed through a turbine, in turn, connected to a gearing system and an alternator.

Abstract: A solar power system includes a preheating device for heating first heat transfer fluid and second heat transfer fluid in separate tubes. The preheated second heat transfer fluid is routed to a boiler. The preheated first heat transfer fluid is routed through a plurality of heat sinks each associated with a solar radiation collector and concentrator. Vacuum chambers receive the solar radiation from dishes and direct energy to the heat sinks transferring the heat energy to first heat transfer fluid routed through the heat sink. The lower half of each chamber extends below each dish and has an interior reflective coating on the interior of the chamber side wall. The heated first heat transfer fluid is routed through a coil within the boiler to heat the second heat transfer fluid within the boiler. The boiler outlet steam is routed through a turbine, in turn, connected to a gearing system and an alternator.