20901results about "Photovoltaic supports" patented technology

A modular apparatus for and method of alternating current photovoltaic power generation comprising via a photovoltaic module, generating power in the form of direct current; and converting direct current to alternating current and exporting power via one or more power conversion and transfer units attached to the module, each unit comprising a unitary housing extending a length or width of the module, which housing comprises: contact means for receiving direct current from the module; one or more direct current-to-alternating current inverters; an alternating current bus; and contact means for receiving alternating current from the one or more inverters.

Solar power systems and structures are mountable to a power distribution structure, e.g. a power pole or tower, which supports alternating current (AC) power transmission lines. An exemplary power generation structure is fixedly attached to and extends from the power distribution structure, and comprises a mounting rack. A solar array, comprising at least one solar panel, is affixed to the mounting rack. A DC to AC invertor is connected between the DC outputs of the solar array and the AC power transmission lines. The length of the solar array is generally in alignment with the power distribution structure, and the width of the solar array is greater than half the is circumference of the power distribution structure. The mounting rack and solar array may preferably be rotatable, such as based on any of location, time of day, or available light.

The present invention teaches a solar array, and also a network of solar arrays for providing energy for industrial, residential and transportation use. A solar array of the present invention can be made to resemble a palm tree, a deciduous tree, an evergreen tree, or other type of natural foliage, and meet the aesthetic demands of landscape architecture. A network of solar arrays can extend for many miles along transportation right of ways including, but not limited to, roads, highways, railways, pipelines, or canals, and can further include means for storing and transmitting energy. A solar array can include or be coupled with a recharging station for use by electric and hybrid transportation vehicles. Moreover, an individual solar array or network of solar arrays can include means for wireless communication and transmission of energy for recharging an energy storage device and provide energy to an electric or hybrid transportation vehicle.

An interlocking photovoltaic module mounting system that provides a one piece, integrated photovoltaic module frame portion that is directly mountable to a support structure and interlocks with separate adjoining photovoltaic module frame portions. The apparatus includes a frame member for enclosing the perimeter of a photovoltaic module, having an inside surface and outside surface, with the inside surface including a recess for capture of the panel. The frame member outside surface includes at least one interlocking means for affixation to the complementary outside surface of an adjacent frame-member. The frame member includes a height-adjustable foot portion for supporting the frame member on a roof, so that adjacent frame members may be interlocked to form an array, and the foot portion may be adjusted to level the formed array on the roof.

A cam-actuated connection device joins rail mounting members of a photovoltaic panel array. The connection device slides within channels of mounting members until the members are in a properly positioned grid. When in position, the connection device is rotated to lock the mounting members in a rigid grid network. The connecting device can be subsequently loosened, repositioned and locked into position. The rail-mounting members create a grid for installation of multiple PV panels. The mounting rail allows the unit to remain relatively compact in nature but still covers a wide range of PV panel thicknesses. The rail system has a hinged connection with the mounting rail that allows an installer to assemble the module in a near perpendicular fashion to the mounting rail, make the required electrical connections and then lower the PV module into its working position. The unit is then locked into its working position.

A solar tracking system with a torque tube supporting solar panels. Columns support the system and have bearings for rotation of the torque tube. A drive is coupled to the torque tube and is driven by a gearbox, such as a worm gear assembly, for rotating the array of solar panels to follow the sun's diurnal motion. The array can rotate in an opposite direction, or backtrack, to prevent shadowing from one module row to another. Multiple gearboxes can be mechanically linked by drive shafts and driven by a single motor. The drive shafts may incorporate universal joints for uneven terrain or staggered configurations. Harmonic dampers can be affixed to the solar panels to decouple wind forces which allows the use of larger solar panels.

A modular apparatus for and method of alternating current photovoltaic power generation comprising via a photovoltaic module, generating power in the form of direct current; and converting direct current to alternating current and exporting power via one or more power conversion and transfer units attached to the module, each unit comprising a unitary housing extending a length or width of the module, which housing comprises: contact means for receiving direct current from the module; one or more direct current-to-alternating current inverters; an alternating current bus; and contact means for receiving alternating current from the one or more inverters.

A tracking solar power system is disclosed. The tracking solar power system includes: a solar power substructure and a platform having a first degree of freedom. The solar power substructure is mounted on the platform in a manner such that it has a second degree of freedom relative to the platform. The solar power substructure may include a solar collector and a receiver arranged to receive energy from the solar collector. The receiver may be mounted in a manner that avoids shading of the solar collector during operation. The solar collector may have an area focus at the receiver. The solar power substructure may include a non-concentrating solar power substructure.

A self-sustaining, portable, power station that may be moved by land, air, or sea to an area that has no utilities. The station is provided with at least one wind turbine and / or solar panel arrays in communication with at least one electrical distribution and storage means. The derived electricity is used to power various systems including, albeit not limited to, a communications system, a water filtration system, a water distribution system to allow the public to draw potable water and provide basic hygiene. The electricity derived may also be used to run outside systems, such as schools, hospitals, or the like.

A photovoltaic power generating apparatus is provided which comprises a single solar cell element formed on a substrate and a plurality of power conversion devices individually connected to the solar cell element for converting an output of the solar cell element.

An adjustable mounting assembly (70a / 70b) for installing solar cell modules (58) on a building surface (34) is disclosed. The mounting assembly (70a / 70b) includes a mounting device (74), a stud (114) that may be threaded to the mounting device (74), a clamping member (142) that may be positioned on the stud (114), and a nut (128) that may be threaded onto the stud (114) to secure the clamping member (142) to the mounting device (74). A nut (126) is fixed to the stud (114) at an intermediate location along its length. This fixed nut (126) may be used to tighten the stud (114) to a mounting device (74), and furthermore may be positioned such that the stud (114) does not extend into a slot (90) of the mounting device (74).

The present invention comprises a tracking solar power array that provides shelter to items disposed beneath the solar power array, particularly to vehicles.

A mobile power system for producing power at a desired location includes a first power generating device of a first type coupled to a transportable housing, and a second power generating device of a second type coupled to the transportable housing. The first type of power generating device is different than the second type of power generating device. According to an exemplary embodiment, the mobile power system may provide easy access to different types of power outputs. Further, the housing may have the approximate size of a standard freight container.

A barrier, such as a PV module, is secured to a base by a support to create a shingle assembly with a venting region defined between the barrier and base for temperature regulation. Water resistant junctions may be formed between the bases of adjacent shingle assemblies of an array of shingle assemblies. The base may include an insulation layer underlying a water barrier. The base may also include a waterproofing element; the width and height of the barrier may be shorter than the width and height of the waterproofing element.

The solar cell module of the present invention includes a solar cell panel, a frame, and a back member provided on a back side of the solar cell panel, wherein the back member includes a joining portion for joining the back member to the back side of the solar cell panel, and a projection portion extending in a direction crossing the frame, and wherein the frame has a first engaging portion for engaging with the solar cell panel and the joining portion of the back member, and a second engaging portion for engaging with the projection portion of the back member, whereby the present invention provides a solar cell module having a high strength and a light weight at a low cost.

PV modules are provided that have a frame construction which permits the photovoltaic power-generating cells, DC / AC power conversion means, electrical wiring and other installation aspects to be merged into the module. The modules also are provided with means for coupling them to mounting stands whereby they can be mounted to a roof and also the frame construction is adapted to facilitate mechanically securing adjacent modules to one another.

A support system for photovoltaic cells upon a roof. A cell support structure is provided beneath each cell, such as in the form of a pair of brackets to form a photovoltaic panel. The panels overlap partially to function somewhat as shingles, to shed water off of the roof. A lower side wall of each photovoltaic panel has at least one port therein to selectively access a space beneath the photovoltaic cell. Photovoltaic cell electronics, such as an inverter for one or a series of cells. A door is provided in one embodiment which selectively covers the port and acts as a support for the photovoltaic cell electronics.

An integrated module frame and racking system for a solar panel is disclosed. The solar panel comprises a plurality of solar modules and a plurality of splices for coupling the plurality of solar modules together. The plurality of splices provide a way to make the connected modules mechanically rigid both during transport to the roof and after mounting for the lifetime of the system, provide wiring connections between modules, provide an electrical grounding path for the modules, provide a way to add modules to the panel, and provide a way to remove or change a defective module. Connector mount assemblies are provided on the sides of the modules to simplify the electrical assembly of modules when the modules are connected together with splices and to simplify the final connection of external wiring to the module.

A mounting system is provided for an array of solar modules. The mounting system includes one or more rail assemblies that extend lengthwise in a first direction to support a plurality of solar modules that comprise the array. Each of the one or more rail assemblies may be configured to compress in order to retain an edge section of one or more of the plurality of solar modules in an operable position. A conductive element may be positioned to bond the edge section of at least one of the plurality of solar modules with at least a section of the rail assembly that retains that edge section in the operable position, so as to form a conductive path for electrical current.

The present invention relates to a photovoltaic system and methods of making same. The photovoltaic system has a plurality of layers attached to each other to form a unitary structure. More specifically, the photovoltaic system includes: a base, flexible membrane layer; a photovoltaic layer having at least one photovoltaic cell associated therewith; a semi-rigid layer for supporting the photovoltaic layer and imparting rigidity thereto; and a top, transparent, protective layer for protecting the base, flexible membrane layer, the semi-rigid layer and the photovoltaic layer from exposure to the environment. The photovoltaic layer and the semi-rigid layer are disposed between the base, flexible membrane layer and the top, protective layer. Additional layers of adhesive may be disposed between the various layers to facilitate bonding thereof.

Disclosed are fixed solar-electric modules having arrays of solar concentrator assemblies capable of separately tracking movements through one or two degrees of rotational freedom to follow the movement of the sun daily and / or seasonally. The concentrators can include optical elements to direct and concentrate light onto photovoltaic and / or thermoelectric receivers for generation of electric current.

A photovoltaic unit includes a matrix having a plurality of frameless rectangular solar modules, and at least one module rail disposed on an underside of each solar module. Each of the at least one module rail is coupled to a substrate rail, which is releasably connected to a substrate. Each of the at least one module rail and the at least one substrate rail has a guide rail running parallel to an edge of the respective solar module on at least a longitudinal side of the respective rail facing towards an edge region of the solar module. The guide rails on the module and substrate rails are releasably connected to each other by at least one connecting element. A spacer gap of sufficient width for operating the connecting element is provided between adjacent solar modules of the plurality of frameless rectangular solar modules.

To provide the solar cell module retaining structure, the frame for the solar cell module, and the holding member for the solar cell module, which reduces the number of members relating to the solar cell module retaining structure, standardizes the installation process thereof, and reduces the cost of manufacturing and installing. The solar cell module retaining structure is to fix the solar cell module which comprises the solar cell panel body with the modular glass (6) and the frame (1) to be fixed to the solar panel body to the supporting member (42) via the holding member (2), wherein the frame (1) and the holding member (2) are for the retaining structure of the solar cell module; the holding member (2) can slide relative to the frame (1); the holding member (2) can keep two adjacent frames of two adjacent solar cell modules contacted and restrict one solar cell module from moving in the right angle direction relative to the extending direction of the frame (1); and the holding member (2) is fixed to the supporting member (42) at the lower side of the other solar cell module.

A barrier, such as a PV module, is secured to a base by a support to create a shingle assembly with a venting region defined between the barrier and base for temperature regulation. The first edge of one base may be interengageable with the second edge of an adjacent base to be capable of resisting first and second disengaging forces oriented perpendicular to the edges and along planes oriented parallel to and perpendicular to the base. A deflector may be used to help reduce wind uplift forces.

A solar energy collection system can include support devices configured to accommodate misalignment of components during assembly. For example, the system can include piles fixed to the earth and an adjustable bearing assembly at the upper end of the pile. The adjustable bearing assembly can include at least one of a vertical adjustment device, a lateral adjustment device and an angular adjustment device. The solar energy collection system can also include a plurality of solar energy collection device pre-wired together and mounted to a support member so as to form modular units. The system can also include enhanced supports for wire trays extending between rows of solar energy collection devices.

An adjustable mounting assembly (70a / 70b) for installing solar cell modules (58) on a building surface (34) is disclosed. The mounting assembly (70a / 70b) includes a mounting device (74), a stud (114) that may be threaded to the mounting device (74), a clamping member (142) that may be positioned on the stud (114), and a nut (128) that may be threaded onto the stud (114) to secure the clamping member (142) to the mounting device (74). A nut (126) is fixed to the stud (114) at an intermediate location along its length. This fixed nut (126) may be used to tighten the stud (114) to a mounting device (74), and furthermore may be positioned such that the stud (114) does not extend into a slot (90) of the mounting device (74).

A photovoltaic cell comprising a supporting substrate, a front contact layer on the substrate, a layer or layers of semiconductor material and a back contact layer comprising a metal, the back contact having areas without metal thereby permitting the passage of light through the cell.

Methods and devices are provided for improved environmental protection for photovoltaic devices and assemblies. In one embodiment, the device comprises of an individually encapsulated solar cell, wherein the encapsulated solar cell includes at least one protective layer coupled to at least one surface of the solar cell and the protective layer may be formed from a substantially inorganic material. The protective layer has a chemical composition that prevents moisture from entering the solar cell and wherein light passes through the protective layer to reach an absorber layer in the solar cell.