Abstract: A building body with solar tracking device includes a top tent supported on the building body. The top tent includes at least one set of intersection section where multiple beams in different directions intersect each other. A support assembly of the solar tracking device is mounted on an upper side of the intersection section or in a position corresponding to the upper side of the intersection section. A solar generation module is mounted on the support assembly, whereby the top tent provides a sufficient strength for supporting the solar tracking device.

Abstract: A solar generator apparatus, which has suspending supports and is mounted on a fixed structure, includes a solar generator module, a middle column, three side columns and three elastic members. The solar generator module converts light into electricity. The middle column for rotatably supporting the solar generator module has a first end mounted on the fixed structure, and a second end pivotally connected to a middle portion of a bottom of the solar generator module. First ends of the three side columns are mounted on the fixed structure. The three elastic members for assisting in supporting the solar generator module respectively connect second ends of the three side columns to the solar generator module.

Abstract: A pull control apparatus of solar tracking power generation mechanism includes a solar power generation module two-dimensionally movably disposed on a support assembly via a carrier platform. Two link assemblies are disposed between the solar power generation module and the support assembly, which intersect each other. Each link assembly is composed of a power source, a drive member drivable by the power source and two connection cables. Two drive sections are disposed on each drive member, which are synchronously operable. First ends of the two connection cables are respectively connected to the two drive sections in reverse directions. Second ends of the two connection cables are respectively connected to two opposite sections of the carrier platform corresponding to two lateral sides of the support assembly. The connection cables are prevented from slipping on the drive members during rotation.

Abstract: A solar power generation method with non-equidirectional solar tracking stages and an apparatus thereof. At the sunrise stage, a solar power generation module is gradually pivotally rotated from an initial position to the sun in a direction reverse to the moving direction of the sun. After the solar power generation module is rotated to a position of first preset elevation and azimuth, where the solar power generation module right faces the sun, the solar power generation module starts to pivotally rotate along with the change of the position of the sun. When the sun and the solar power generation module synchronously move to a position of second preset elevation and azimuth, the solar power generation module is driven to gradually pivotally rotate back to the initial position in a direction reverse to the moving direction of the sun waiting for the next cycle.

Abstract: An automatic solar tracking adjustment/control apparatus of solar generation system includes a support assembly, a two-dimensionally movable pivotal rotational assembly disposed on the support assembly, a solar generation module disposed on the support assembly via the pivotal rotational assembly and at least one drive assembly disposed between the support assembly and the solar generation module. The drive assembly drives the solar generation module to tilt in different directions and angles according to reference parameters in a control unit. A detection/correction module is disposed on the solar generation module for detecting actual parameters of the solar generation module. The control unit compares the actual parameters with the reference parameters to modify the output of the drive assembly so as to adjust the tilting direction and inclination angle of the solar generation module.

Abstract: A power conversion device includes a DC-DC converter, a DC-AC inverter and a relay. The DC-DC converter leads in a DC from an external solar panel and transforms the DC into a direct voltage. The DC-AC inverter transforms the direct voltage from the DC-DC converter into an alternating voltage and connecting to an external electric load via electric load output ends. The relay includes a coil connected to an external commercial power line via commercial power input ends, and conductive contacts actuated by the coil and serially-disposed between the commercial power input ends and the DC-AC inverter, and with the commercial power line electrifying the coils, the conduction control is formed therebetween, preventing the electric energy of the solar energy generation from inversely transmitting to the commercial power line when interrupting the commercial power service.

Abstract: A solar generator apparatus includes a generator module having first to fourth corner portions; a middle column; first and second winding devices attached to the middle column; first and second cables and first to fourth elastic anchors. The middle column has first and second ends, mounted on a fixed structure and pivotally connected to the generator module, respectively. The first cable, having two ends respectively connected to the first and third corner portions, is wound around the first winding device. The second cable, having two ends respectively connected to two ends of the second and fourth corner portions, is wound around the second winding device. The first to fourth elastic anchors are elastically mounted on the fixed structure. The first cable passes through the first and third elastic anchors to form a W-shaped structure. The second cable passes through the second and fourth elastic anchors to form another W-shaped structure.

Abstract: A solar generator apparatus includes a solar generator module, a middle column, first and second winding devices and first and second cables. The generator module has first to fourth corner portions. The middle column has a first end mounted on a fixed structure, and a second end pivotally connected to a middle portion of a bottom of the generator module, and rotatably supports the generator module. The first and second winding devices are attached to the middle column. The first cable has a first end connected to the first corner portion and a second end connected to the third corner portion, and is wound around the first winding device. The second cable has a first end connected to the second corner portion, and a second end connected to the fourth corner portion, and is wound around the second winding device. An angle of the generator module is adjusted by rotating one or both of the first and second winding devices.