The present disclosure relates generally to roofing systems, for example, suitable for covering the roof of a house or other building. The present disclosure relates more particularly to a roofing system that includes a plurality of riser blocks disposed on a support surface. The riser blocks include a group that is aligned in a row. A batten extends along the row and is supported by the group of riser blocks. The batten includes a first clip portion. A group of roofing panels is disposed along the row and is supported by the batten. Further, each of the roofing panels of the group includes a front surface, a rear surface, and a second clip portion extending from the rear surface. The second clip portion is configured to engage the first clip portion of the batten so as to secure the roofing panels to the batten.

Some embodiments of the present disclosure relate to photovoltaic module for use on a roof. In some embodiments, the photovoltaic module may include a solar cell and a polymeric continuous fiber tape. In some embodiments, the polymeric continuous fiber tape comprises a polymer and glass fiber. In some embodiments, the glass fiber is present in an amount greater than about 50% by weight based on a total weight of the polymeric continuous fiber tape. In some embodiments, the polymeric continuous fiber tape comprises an elastic modulus greater than 1 GPa and an optical transmission greater than 80%.

Some embodiments of the present disclosure relate to photovoltaic module for use on a roof. In some embodiments, the photovoltaic module may include a solar cell and a polymeric continuous fiber tape. In some embodiments, the polymeric continuous fiber tape comprises a polymer and glass fiber. In some embodiments, the glass fiber is present in an amount greater than about 50% by weight based on a total weight of the polymeric continuous fiber tape. In some embodiments, the polymeric continuous fiber tape comprises an elastic modulus greater than 1 GPa and an optical transmission greater than 80%.

A solar panel mounting system including a rail and a clip. When a first notch of the rail receives a portion of a rib of the rail, the clip is positioned on the rail to receive an end of a first solar panel having a first thickness, and when a second notch of the rail receives the portion of the rib, the clip is positioned on the rail to receive an end of a second solar panel having a second thickness different than the first thickness of the first solar panel.

A holding means for a solar roof tile includes an oblong beam extending in a longitudinal direction, a first support supported in a mounted position on a first upper batten of a pitched roof and a second support supported in the mounted position on a second lower batten. The holding means further includes at least one rest for the solar roof tile and a drain channel arranged adjacent to the at least one rest and extending in the longitudinal direction to drain atmospheric water along a longitudinal outer edge of the solar roof tile.

The present disclosure is directed to a solar-powered shelter for producing and storing electrical power and/or water; the shelter comprises a roof (1) arranged with one or more photovoltaic modules (4) and/or one or more devices (17) for dehumidifying ambient air, and a structure (8,9) arranged underneath the roof.

The present disclosure is directed to a solar-powered shelter for producing and storing electrical power and/or water; the shelter comprises a roof (1) arranged with one or more photovoltaic modules (4) and/or one or more devices (17) for dehumidifying ambient air, and a structure (8,9) arranged underneath the roof.

A system includes a plurality of photovoltaic modules installed on a roof deck in an array and at least one jumper module electrically connecting a first subarray to a second subarray of the array. The jumper module includes at least one electrical bussing and an encapsulant encapsulating the at least one electrical bussing. The jumper module includes a frontsheet juxtaposed with the encapsulant. The frontsheet includes a first layer and a polymer layer attached to the first layer.

The power barn system provides a way to eliminate greenhouse gas (GHG) emissions from livestock. The power barn system seals and traps the methane gas that is emitted from the livestock and converts the methane into electric power and carbon dioxide to enhance plant growth. The power barn system uses PV solar arrays and plastic sheeting to make sealed, airtight structures. The carbon dioxide is provided to one or more sealed greenhouse areas. The plants use the carbon dioxide and release oxygen, thereby completely eliminating greenhouse gas emissions from livestock. The power plant uses the methane at peak times at night while solar panels supply power during the day producing zero emission and 24/7 electricity at better than market rates.

Mounting a solar panel system includes installing a skirt to a roof in a predetermined position, the predetermined position guiding an alignment for additional components installed in the solar panel system; integrating a solar panel with a flange of the skirt, wherein the skirt supports a portion of the solar panel; determining if a width of the solar panel system will be increased; installing an additional skirt to which an additional solar panel is attached in response to determining that the width of the solar panel system will be increased; determining if a length of the solar panel system will be increased; and integrating an additional solar panel with a flange of a previously installed solar panel via a mount interface in response to determining that the length of the solar panel system will be increased.