A Silver Lining solar transfer module incorporates roof solar photovoltaic cells in a cased layer sandwiched between two water-handling layers. The bottom waste heat layer contains heat transfer pipes tuned for absorbing heat from the bottom of the photovoltaic layer and to dissipate heat into cool water pumped through the transfer pipes from ground level. The top cascade layer uses a casing transparent to solar radiation at the wavelengths used by the solar photovoltaic cells and containing a cascade of relatively cool water pumped from ground level, absorbing heat from the photovoltaic layer. The Silver Lining module is installed with a vertical slant, so that water is gravity fed from the top edge to the bottom edge in the waste heat layer and cascade layer. Fire sprinklers are incorporated into the plumbing of a system of Silver Lining solar transfer modules and provide protection to the roof in fire emergencies.

The disclosure relates to a solar tracker assembly, particularly for solar collectors, with a table structure for supporting the solar collectors, particularly solar collector panels and/or solar collector assemblies, and with an assembly for carrying the table structure, wherein the table structure is rotatable relative to the assembly base at least about one axis of rotation. For allowing the table for supporting respective solar panels to have sufficiently large dimensions in order to accommodate an increased number of solar collectors in an easy way and, at the same time, to enable the table to be positioned at a precise angle with reduced effort, it is suggested that at least a portion of the table structure and/or a portion of the assembly base is formed as a truss structure.

A photovoltaic apparatus includes: a power generation part; an angle changeable mechanism configured to support the power generation part so as to be able to change an elevation of the power generation part; a post configured to support the power generation part and the angle changeable mechanism; and a hinge mechanism configured to support the post so as to be able to change an angle of the post relative to an installation surface for the photovoltaic apparatus.

A mounting assembly for a photovoltaic (PV) module, and systems including such mounting assemblies, are described. In an example, the mounting assembly includes a top support and a bottom support having respective mounting walls, and holes through the mounting walls. A pin assembly may extend through the holes in the mounting walls to constrain the supports, for example, relative to a torque member of a solar-tracking PV system. The pin assembly may include end collars to engage and distribute loading from the torque member.

The present disclosure relates to a parabolic trough concentrator to harness the sun's energy. The parabolic trough concentrator 5 comprises a trough concentrator structure 6, two semi-rigid reflecting sheets 50, a receiver 60, a support stand 80 and a telescopic mechanism 90. The parabolic trough concentrator 5 is designed to have a large reflecting surface area when it is in its extended state, and have a very compact footprint when it is disassembled, folded and collapsed to its retracted state.

Azimuthal and elevation rotation mechanism for solar trackers, which provides an azimuthal rotation around a vertical pedestal to an azimuthal rotating support on which a support structure of solar panels is in turn mounted with elevation rotation capacity around a horizontal shaft linked to the azimuthal rotating support. The azimuthal rotation is obtained by means of a single azimuthal linear actuator and the elevation rotation is obtained by means of a single elevation linear actuator, such that only two linear actuators are needed to obtain all the positions of the solar panels required for a complete solar tracking.

Disclosed are systems, methods, and devices related to fixed and transportable structures and vehicles utilizing the integration of solar and wind technologies for generation of electricity. The system generates electricity using solar panels (and/or solar thermal units) and wind turbines, stores and converts electricity, and can be located in various locations either as fixed or portable embodiments including on land, on water, underwater, air and space and may also be housed in a structure to provide electricity for various facilities and uses.

A portable PV module array, the modules being connected along adjacent end edges and being foldable relative to each other about the connected end edges between a closed condition and an open condition, whereby: in the closed condition, the PV modules are stacked together in a generally parallel and close facing relationship with the edges of the PV modules in general alignment, and in the open condition, the PV modules are disposed at an angle to each other so that the PV module array defines triangular configuration, and foldable movement of the PV modules from the closed condition to the open condition being restricted against movement beyond the open condition by a flexible connector that connects with a connection point associated with each of the PV modules of the PV module array and that is tensioned in the open condition and that is slack in the closed condition.

Building integrated photovoltaic (BIPV) systems provide for solar panel arrays that can be aesthetically pleasing to an observer. BIPV systems can be incorporated as part of roof surfaces as built into the structure of the roof, particularly as photovoltaic tiles. Each photovoltaic module may comprise a photovoltaic laminate, a support arm and a mounting bracket. When installed an assembly of the photovoltaic laminate and support arm are rotatably attached to the mounting bracket allowing access under the array of photovoltaic modules.

The present disclosure relates to a parabolic trough concentrator to harness the sun's energy. The parabolic trough concentrator 5 comprises a trough concentrator structure 6, two semi-rigid reflecting sheets 50, a receiver 60, a support stand 80 and a telescopic mechanism 90. The parabolic trough concentrator 5 is designed to have a large reflecting surface area when it is in its extended state, and have a very compact footprint when it is disassembled, folded and collapsed to its retracted state.