Abstract: A solar power station includes a plurality of solar panels each connected to a leaf, the leaf including a roof beam; a plurality of bearing plates respectively attached to the roof beams of the leaves; a first supporting structure connected to the bearing plates; a second supporting structure rotatably connected to the first supporting structure and fixedly mounted to a base; and a plurality of hydraulic jacks. One end of each hydraulic jack is fixed with the first supporting structure, and another end of the hydraulic jack is pivotally mounted to the roof beam of one of the leaves.

Abstract: A solar furnace includes an outer insulation chamber and an inner reaction chamber disposed inside the outer insulation chamber. The outer insulation chamber has an outer solar window which is in alignment with an inner solar window of the inner reaction chamber. The outer insulation chamber includes a multi-layered air-circulating tunnel. Each layer of the air-circulating tunnel has a solar window to form a multi-solar window opening. Within each solar window opening, there is a hot air curtain or hot flame curtain to cover the opening. When the concentrated solar beams pass through each solar window opening, photon beam reacts with the hot air curtain or hot flame curtain, and will further increase the temperature of hot air particles in the multi-layered air-circulating tunnel. An oil boiler is thermally connected to the inner reaction chamber. The oil boiler includes incoming and outgoing pipes disposed in a middle air-circulating tunnel to absorb the heat energy from the hot air curtain.

Abstract: A solar panel supporting system includes a main frame, a solar panel, and a spring mechanism. The main frame has two opposite lateral sides. The solar panel is pivotally mounted on the main frame along a first pivot axis defined by a first rod extending between the opposite lateral sides of the main frame. The spring mechanism is operatively coupled to the solar panel for resiliently holding the solar panel at a predetermined position. The solar panel is adapted to pivot in response to wind strong enough to stretch or compress the spring mechanism.

Abstract: A solar panel supporting system includes a main frame, a solar panel, and a spring mechanism. The main frame has two opposite lateral sides. The solar panel is pivotally mounted on the main frame along a first pivot axis defined by a first rod extending between the opposite lateral sides of the main frame. The spring mechanism is operatively coupled to the solar panel for resiliently holding the solar panel at a predetermined position. The solar panel is adapted to pivot in response to wind strong enough to stretch or compress the spring mechanism.

Abstract: A solar power station includes a solar panel assembly, having a substantially planar solar panel, and first, second and third towers. Each of the towers includes multiple vertically stacked floors and a main bearing structure pivotally mounting the solar panel assembly to the tower upper end. Each of the floors includes an arrangement of robots that are connected to each vertically adjacent floor. At least some of the robots including hydraulic jacks. A controller selectively actuates the hydraulic jacks, such that each of the towers is individually extendable from a bottom position to an extended position. Selectively moving one or more of the towers rotates the solar panel about one or both of the axes, whereby the solar panel is maintained at an optimal orientation for collecting solar power.

Abstract: A method of operating a solar power station solar power station including a solar panel assembly having multiple towers, a solar panel pivotally mounted to an upper end of each tower, and a control system. Each of the towers has multiple floors and is individually extendable from a bottom position to an extended position. The control system includes a main routine for operating the towers comprising a normal operation subroutine for selectively positioning the towers between the bottom position and the extended position, whereby the solar power panel is positioned for maximum solar collection. A monitor parameter subroutine continually monitors the earthquake and wind sensors. A withdraw towers subroutine initiates withdrawal of the towers to the bottom position when the earthquake sensor or the wind sensor sense a seismic event or a high wind force, respectively, that is likely to damage the solar power station.