Abstract: A dual axis solar array tracker for supporting a plurality of solar energy harvesting elements at a plurality of solar collector nodes. Two perpendicular axes of movement, specifically a rotation axis at a rotatable transverse beam and a tilt axis relative to the axis of the transverse beam, enable accurate orientation in a stable configuration. The dual axis design of the solar tracker enables the movement of solar collectors such that they can be directed towards the sun wherein incoming solar rays are perpendicular to the solar cell element of the solar collector to optimize collection of solar radiation. The present solar tracker array also enables integrated solar, electrical and/or thermal energy cogeneration.

Abstract: A dual axis solar array tracker for supporting a plurality of solar energy harvesting elements at a plurality of solar collector nodes. Two perpendicular axes of movement, specifically a rotation axis at a rotatable transverse beam and a tilt axis relative to the axis of the transverse beam, enable accurate orientation in a stable configuration. The dual axis design of the solar tracker enables the movement of solar collectors such that they can be directed towards the sun wherein incoming solar rays are perpendicular to the solar cell element of the solar collector to optimize collection of solar radiation. The present solar tracker array also enables integrated solar, electrical and/or thermal energy cogeneration.

Abstract: A dual axis solar array tracker for supporting a plurality of solar energy harvesting elements at a plurality of solar collector nodes. Two perpendicular axes of movement, specifically a rotation axis at a rotatable transverse beam and a tilt axis relative to the axis of the transverse beam, enable accurate orientation in a stable configuration. The dual axis design of the solar tracker enables the movement of solar collectors such that they can be directed towards the sun wherein incoming solar rays are perpendicular to the solar cell element of the solar collector to optimize collection of solar radiation. The present solar tracker array also enables integrated solar, electrical and/or thermal energy cogeneration.

Abstract: A concentrated photovoltaic and thermal system is disclosed. The system compromises a photovoltaic receiver assembly that produces highly concentrated solar energy, resulting in efficient energy conversion that requires fewer photovoltaic receivers than an arrangement that lacks such high concentration levels. The receiver assembly comprises a primary optical element that concentrates the source light onto an electromagnetic energy receiver, a secondary optical element to aid in further concentration of the light source, a thermal energy converter and a heat dissipation unit. The photovoltaic receiver assembly is preferably mounted on a tracking system to maximize sun exposure.

Abstract: There is provided a concentrating solar collector in the shape of an inverted truncated pyramid (collector) with light reflective surfaces on the inside. The collector includes a large top opening which is pointed towards the sun collecting the sun rays. A high-concentration photovoltaic solar cell is placed at the narrow end of the collector. The light is concentrated onto the solar cell, which generates electricity from the concentrated solar light. The collector is made of, but not limited to, an inflatable lightweight reflective film, balloon filled with helium, glass, plastic or metal. The reflective surface inside the collector is obtained using inexpensive mirror coating which is applied to clear glass or plastic. A cooling system is used for keeping the concentrated photovoltaic solar cell at or close to a fixed temperature to maintain the cell at its highest operating efficiency of power generation.