Embodiments of the present disclosure are related to solar module mounting systems. A system may include an adhesion sheet configured to be secured to a roof of a structure via an adhesive. The system may further include at least one clamp configured for securing at least one solar module to the adhesion sheet. Other embodiments are related to methods of attaching one or more solar modules to a structure.

Apparatuses, systems, and methods for coupling adjacent solar canopies into a unitized structure to reduce wind loads on and increase the structural integrity of the solar canopies. In one embodiment, an array of two or more solar canopies may be divided into pairs of adjacent canopies, which are structurally coupled together.

A mounting system for mounting photovoltaic panels, which provides for a quick and easy assembly. The ground mount system for photovoltaic panels includes at least two vertical supports, wherein attached to each vertical support are a T plate connected to a vertical support, a post frame connected to the T plate, and a kicker brace connected between the vertical support and the post frame. The ground mount system may further include a first C-Purlin connected to a first end of the post frame, to a second C-Purlin connected to a second end of the post frame, a purlin tie connected between the first C-Purlin and the second C-Purlin. Panel clamps secure a photovoltaic panel assembly to the mounting system.

A photovoltaic (PV) module framing and coupling system enables the attachment of PV modules to a roof or other mounting surface without requiring the use of separate structural support members which attach directly to and span between multiple PV modules in a formed PV array. The apparatus provides a parallel coupling for securely interlocking the outside surfaces of parallel frame members together in a side to side arrangement to form an array with improved structural load distribution. The coupling may attach to a slot in the frame at substantially any position along the length of the frame thereby enabling the interconnection of adjacent PV modules along both an x and y axis. The apparatus may further provide a rotating portion and locking portion, mounting brackets for direct connection to a mounting surface, grounding teeth, and a twist-lock engagement means for interlocking and aligning PV modules in the array.

A mobile structure includes first and second rigid frames and first and second horizontal roof supports supported by the rigid frame. Each of the rigid frames includes a first vertical support, a second vertical support substantially parallel to the first vertical support, and a lateral rigid frame support extending perpendicularly at least from the first vertical support to the second vertical support. The mobile structure further includes a floor under the first and second horizontal roof supports, a wheel-axle assembly under the floor, and leveling assemblies that are extendable away from the floor. Each leveling assembly is in weight-bearing and in-line relationship with respect to one of the vertical supports of the first rigid frame.

A photovoltaic (PV) module mounting system including a mounting bracket that has a curved mating surface extending as an arch between a pair of flat mounting feet portions. The mounting bracket supports a PV module coupling device. A hanger bolt is provided that has a first threaded portion adapted to engage a roof surface and a second threaded portion for passing through the curved mating surface of the mounting bracket. A threaded knob is adapted to mate with the second threaded portion of the hanger bolt.

A solar central receiver system employing common positioning mechanism for heliostats relates to a system of concentrating and harvesting solar energy. The heliostats of said system are positioned like facets of a Fresnel type of reflector. The heliostats are placed in arrays, wherein each array has a common positioning mechanism. The common positioning mechanism synchronously maneuvers the arrays of heliostats in altitudinal and/or azimuthal axis for tracking an apparent movement of the sun. The common positioning mechanism is employed for synchronously orienting said heliostats with respect to a stationary object and the sun such that incident solar radiation upon said heliostats is focused upon said stationary object from dawn to dusk. Subsequent to each said orientation of said heliostats, collective disposition of said heliostats always forms an arrangement that is capable of reflecting and thereby focusing incident solar radiation upon said stationary object.

A pole mounted dual axis solar tracking apparatus has a main mounting member [13] in a fixed primary north-south axis which is inclined to accommodate geographical latitude and a cross arm [16] fixed to the main mounting member and defining a secondary east-west axis. A support frame [15] for PV panels, solar reflectors etc. is pivoted to the cross arm to enable the support frame to tilt over the secondary east-west axis. The apparatus is highly efficient due to its ability to sweep through the shape of two conjoined cones. The apparatus operates with close to the efficiency of a dual axis tracker but with the simplicity of a single axis tracker.

A photovoltaic system includes a pole member which stands on an installation surface, a connecting support member disposed on an upper end section of the pole member, a rail member supported by the connecting support member, and a photovoltaic cell module disposed on the rail member, wherein the pole supporting member includes a lower section that covers at least a portion of an outer peripheral surface of the upper end section of the pole member.

A ground mounted solar power assembly having at least one solar panel having a support beam connected to the back of the solar panel. A plurality of legs have a bracket at one end that receive the support beam. Finally, an eccentric handle is connected to the bracket to permit selective rotation of the support beam within the bracket.