Abstract: A solar tracker comprising: a bottom plate, a top plate, at least one assembly rotatably coupling the top and bottom plates, one or more bellows units disposed between the top plate and bottom plate and a locking mechanism.

Abstract: An actuator comprising a bottom plate, a top-plate and one or more hub assembly extending between and rotatably coupling the bottom and top plates. The actuator also includes one or more bellows units disposed between the top plate and bottom plate, the one or more bellows units comprising a first and second inflatable bellows coupled by a web extending between the first and second bellows, the first and second bellows defining respective and separate first and second bellows cavities, with the first bellows of the bellows units disposed on a first side of the bottom plate, and the second bellows of the bellows units disposed on a second side of the bottom plate, opposing the first side, and between the top and bottom plates.

Abstract: An actuator comprising a bottom plate, a top-plate and one or more hub assembly extending between and rotatably coupling the bottom and top plates. The actuator also includes one or more bellows units disposed between the top plate and bottom plate, the one or more bellows units comprising a first and second inflatable bellows coupled by a web extending between the first and second bellows, the first and second bellows defining respective and separate first and second bellows cavities, with the first bellows of the bellows units disposed on a first side of the bottom plate, and the second bellows of the bellows units disposed on a second side of the bottom plate, opposing the first side, and between the top and bottom plates.

Abstract: An adjustable photovoltaic panel mounting system that allows for variations in roofs and roof elements, while still maintaining a rigid and secure assembly. The specific location for supporting feet and structural elements of the mounting system may be varied to allow for variations in roof features and different panel configurations. The mounting mechanisms are adjustable in both a North/South and a East/West direction to provide for maximum layout flexibility.

Abstract: Methods and devices are provided for improved anti-reflective texture. In some embodiments, the absorber layer for use with this anti-reflective layer is a group IB-IIIA-VIA absorber layer.

Abstract: Methods and devices are provided for improved sensor systems. In one embodiment of the present invention, sensor system is provided that includes a sensor and sensor electronics integrated into the same ground plane.

Abstract: Methods and devices are provided for solar panel installation. In one embodiment, a photovoltaic panel system for use with a support grid is provided. The system comprises of a photovoltaic panel with at least one layer comprised of a glass layer; a tensioning mechanism configured to laterally tension the glass layer in at least a first axis in a plane of the glass layer when the panel is mounted to the support grid. In one embodiment, the glass layer comprises of an un-tempered glass material. In another embodiment, the glass layer comprises of a tempered glass material. Optionally, other substantially transparent material may be used with or in place of the glass.

Abstract: Methods and devices are provided for improved solar module shipping techniques. In one embodiment, the method includes stacking a plurality of glass-based photovoltaic modules in the shipping container, wherein the modules are mounted in a surface supported configuration wherein at least 50% of a top substrate of the modules is a weight bearing surface, transferring weight through cells in the module to a bottom substrate of one of the modules, which transfers weight to a surface of an underlying module.

Abstract: Methods and devices are provided for solar panel installation. In one embodiment, a photovoltaic panel system for use with a support grid is provided. The system comprises of a photovoltaic panel with at least one layer comprised of a glass layer; a compression mechanism configured to laterally compress the glass layer in at least a first axis in a plane of the glass layer when the panel is mounted to the support grid. In one embodiment, the glass layer comprises of an un-tempered glass material. In another embodiment, the glass layer comprises of a tempered glass material. Optionally, other substantially transparent material may be used with or in place of the glass.

Abstract: Methods and devices are provided for solar module designs. In one embodiment, a durable thin glass solar module is provided. The system comprises of a photovoltaic module with at least one layer comprised of a thin glass layer with protection which protects against microcracks (radial and concentric) which may form during hail impacts.