Abstract:
An exemplary embodiment of the present invention provides a solar panel truss mounting system comprising a base and a truss assembly coupled to the base. The truss assembly comprises a first panel rail mount, second panel rail mount parallel to the first panel rail mount, base rail mount parallel to the first and second panel rail mounts, and a plurality of support members. A first portion of the plurality of support members extends between the first and second panel rail mounts. A second portion of the plurality of support members extends between the first panel rail mount and the base rail mount. A third portion of the plurality of support members extends between the second panel rail mount and the base rail mount. The system can further comprise a plurality of connectors for coupling a plurality of photovoltaic solar panels to the truss assembly.
Abstract:
A solar collector having two axis control and cogeneration capabilities is provided. The solar collector may have a primary collecting mirror, a second reflecting mirror, and a solar collector positioned adjacent to the primary mirror. The collector may realize both direct solar to electricity production via photovoltaic cells or the like, as well as heat collection generated by the collected solar energy. The collected heat may be transferred to a fluid which may be transferred for productive uses such as electricity production, heating, cooling, and the like.
Abstract:
A support system for a solar panel includes a triangular truss with connection points for mounting a photovoltaic module, and a cradle structure that supports the triangular truss and is connected to at least two side supports of the triangular truss. The cradle structure may be driven for rotation about an axis for tracking the sun and several cradle structures can be linked together for tracking movement using a buried linkage system. The truss may also be foldable for ease of transportation and storage.
Abstract:
A solar concentrator assembly is disclosed. The solar concentrator assembly comprises a first reflective device having a first reflective front side and a first rear side, a second reflective device having a second reflective front side and a second rear side, the second reflective device positioned such that the first reflective front side faces the second rear side, and a support assembly coupled to and supporting the first and second reflective devices, the second reflective device positioned to be vertically offset from the first reflective device.
Abstract:
A solar energy collection system can include support devices made with bearings. Such bearings can include an inner partially toroidal surface for sliding contact and support of an outer surface of a torque tube. The toroidal surface can be made with a single radius of curvature or multiple radiuses of curvature and cylindrical portions. The bearings can include connectors for connecting the bearing members to a support housing. The connectors can be tool-less connectors.
Abstract:
A mounting system for mounting photovoltaic panels on a support structure. The mounting system comprises photovoltaic panel frames in which the photovoltaic panels are mounted, panel support rails, and mounting brackets or cross beams for supporting the panel support rails. The panel frames have inwardly extending panel frame extensions on their back side. The panel support rails are mounted on the support structure with either pivoting brackets or cross beams. In either case, the support rails have pairs of stationary clamps and movable clamps with clamp lips that engage the panel frame extensions of the panel frames.
Abstract:
A solar panel system comprises a monocoque forming an enlarged solar-facing generally-convex outer support surface when in an installed position and that supports solar cells at optimal angles for capturing solar energy. The monocoque provides a stressed-skin support reducing weight while maintaining strength, optimal support surface, and minimizing cost. A post engages and supports adjacent edges of a pair of adjacent monocoques. An electrical circuit connects the solar cells for electrical flow and power management, and preferably includes a controller for controlling power from the solar cells, including combining them in series or parallel as optimal for a given systems configuration. The illustrated monocoque includes a roll formed sheet or a number of sheets, stacked vertically together and anchored to spaced posts using connectors in a “fence-like” pattern.
Abstract:
A second panel and a third panel are disposed on both sides of a first panel in the width direction, a fourth panel is disposed at a position symmetrical with the first panel with respect to the second panel and third panel, the respective panels have the same length and are disposed parallel to each other, and a step is provided with a gap between the first panel and the second panel or the third panel, and between the fourth panel and the second panel or the third panel.
Abstract:
A solar power generation apparatus with non-equidirectional solar tracking stages. At the beginning of sunrise, a solar power generation module is driven by a link assembly to gradually rotate 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 pivotally rotating along with the change of the position of the sun. When the sun and the direction of the solar power generation module synchronously move to a position of second preset elevation and azimuth, the solar power generation module is further driven to gradually pivotally rotate back to the initial position in a direction reverse to the moving direction of the sun for next cycle.
Abstract:
The invention relates to a tracking device comprising a receiving structure that can be adjusted about at least one axis, for mounting at least one element that is sensitive to electromagnetic waves and has a preferential radiation direction, and comprising at least one rotational drive per axis for the purpose of actively rotationally adjusting said receiving structure in order for the element(s) mounted thereupon to track a celestial body on one or multiple axes with the aid of a control system and according to a predetermined algorithm, (each of) the rotational drive(s) comprising two annular connection elements that are concentric with one another, are mounted one upon the other, and are or can be coupled to at least one motor for mutual relative adjustment, a first connection element comprising at least one planar connection surface for fixing in place to a foundation, base, column or a connection clement of another pivoting unit, and a second connection element comprising at least one planar connection surface for the purpose of coupling to said receiving structure or to a connection element of another pivoting unit in a rotationally-fixed manner. In addition, at least one row of roller elements is provided between the concentric annular connection elements of a pivoting unit, said roller elements rolling along raceways on the first and second connection elements, a toothing being provided that extends at least partially around one connection element and is formed, together with the raceway(s) that are in place, by machining or shaping a shared annular main part, and bore holes distributed in a circle and passing through the planar contact surface being provided on the other connection element for the purpose of fixing to a contact part, and being formed together with the raceway(s) that are in place by machining or shaping a shared annular main part.