A tracking photovoltaic solar system, and methods for installing or for using such tracking comprising at least a dual axis tracker unit maintaining an array of photovoltaic modules aligned to the sun. Said tracker unit includes: a pair of sub-frames supporting photovoltaic modules, a torque tube supporting said subframes rotating around a primary rotation axis, a pole structure fixed and extending vertically above an anchoring basis and being rotatively connected to said longitudinal support, secondary rotating means controlling the orientation of said sub-frames around corresponding secondary rotation axis of said sub-frames, said secondary rotation axis being orthogonal to said primary rotation axis and actuators means for controlling said primary and secondary rotating means. The secondary rotation axis are located at each end of said torque tube, said pole structure being central with regard to said sub-frames and said actuators means of both primary and secondary rotating means are linear.

A solar module mounting apparatus for mounting a solar collection module to a roof includes a rail member having an elongate linear configuration and having first and second ends, the rail member defining a channel extending between the first and second ends that defines an open top configured to mate with a mounting flange of a rooftop solar collection module. The mounting apparatus includes a strap assembly that includes (1) a first strap portion having a proximal end coupled to the first end of the rail member and a distal end operatively coupled to the wall structure remote from the roof and (2) a second strap portion having a proximal end coupled to the second end of the rail member and a distal end operatively coupled to one of a ridgeline of the roof or another wall structure remote from the roof

Systems, apparatuses, and methods are described for vertical solar panels. Prefabricated and/or preassembled solar panels may be deployed fast, for example, by using a special packaging. Support structures may be easily installed to support (e.g., hang) the solar panels. The solar panels may be pretensioned and/or comprise structural designs (e.g., holes, frames, flexibility, etc.) to have reliability and/or longevity under a hanging condition and wind impact. The heights of vertically-installed solar panels may be dynamically adjusted, for example, based on inputs from sensors and/or time of day. Inter-row shading may be changed based on height adjustment among multiple rows of vertical solar panels.

Provided is a consumer to industrial scale renewable energy based quintuple-generation systems and energy storage facility. The present invention has both mobile and stationary embodiments. The present invention includes energy recovery, energy production, energy processing, pyrolysis, byproduct process utilization systems, separation process systems and handling and storage systems, as well as an open architecture for integration and development of additional processes, systems and applications. The system of the present invention primarily uses adaptive metrics, biometrics and thermal imaging sensory analysis (including additional input sensors for analysis) for monitoring and control with the utilization of an integrated artificial intelligence and automation control system, thus providing a balanced, environmentally-friendly ecosystem.

Solar heat collecting apparatus, wherein plural reflecting mirrors are disposed in north-south direction; the plural reflecting mirrors are provided with heliostat mechanism; the heliostat mechanism includes an east-west angle adjustment unit, having a rotating ring, to adjust the angle of reflecting surface of the plural reflecting mirrors in the east-west direction, and a north-south angle adjustment unit, having actuators, to adjust angle of reflecting surface of the plural reflecting mirrors in the north-south direction; the angle of reflecting surface of the plural reflecting mirrors on each reflection line is simultaneously adjusted via the frame by rotation of the rotating ring; the angle of reflecting surface of each reflecting mirror is individually adjusted by a back-and-forth motion of an arm of the corresponding actuator; and, each reception line is provided with a receiver, and the receiver collects heat from the reflected light of the sunlight reflected by the plural reflecting mirrors.

A cable tray and support system facilitates cable management in a solar energy collector system at reduced cost relative to previous cable tray and support systems. The cable tray and support system comprises cables trays, mounting brackets, and vertically-oriented piles. The mounting brackets are coupled to the cables trays and vertically-oriented piles. The mounting brackets include one or more stress relief features (e.g., notches) to allow the mounting bracket to provide cantilevered deflection in response to thermal expansion or contraction-of the cable tray. The cable tray and support system also provides a ground path from a cable tray, to the mounting bracket, to the pile, and then to the ground to dissipate transient voltages in the solar energy collection system.

A method and apparatus for mounting a solar collector panel by itself or supported within a frame, to a surface comprising: a strap assembly, a first attachment device attached to and between the panel or frame and the strap assembly; and a second attachment means for attaching the strap assembly to the surface. The strap assembly comprises a plurality of straps attached end to end. The first attachment device could be a bolt, a screw, adhesive, etc. Alternatively, there could be a support between the panel or frame and the strap assembly. The second attachment means may be: a nail, a spike, adhesive, bolting to a stud attached to the surface, welding, ballast, adhesive tape or combinations of these.

The present invention relates to a tracking-type photovoltaic generator. More particularly, the present invention relates to a tracking-type photovoltaic generator in which multiple solar modules are aligned into one or more rows so as to form a group, and the solar modules of the group aligned in the same row may rotate according to the location of the sun by means of the operation of a linear actuator.

Systems and methods for disposing and supporting a solar panel array are disclosed. The embodiments comprise various combinations of cables, support columns, and pod constructions in which to support solar panels. Special installations of the system can include systems mounted over structures such as parking lots, roads, aqueducts, and other bodies of water. Simplified support systems with a minimum number of structural elements can be used to create effective support for solar panel arrays of varying size and shapes. These simplified systems minimize material requirements and labor for installation of the systems.

A stabilizing system for stabilizing an arrangement for pivoting an elongate assembly plane extending along a longitudinal axis about an axis of rotation oriented along the longitudinal axis, comprising a first tension element and first and second base arrangements each including a deflecting element fixed on the assembly plane, and spaced apart from the axis of rotation to different sides, wherein the base arrangements are offset with respect to one another along the longitudinal axis, the base arrangements the first tension element, or a second tension element is connected the deflecting element to a fixed point and back at a first distance, and wherein the first tension element and/or the tension element is guided between the base arrangements along the longitudinal axis whereby a tension can be built up in the base arrangement.