Abstract: Systems and methods for mounting one or more framed solar modules are disclosed. A solar module mounting system can include a plurality of support members configured to support one or more framed solar modules above a mounting surface, such as the ground or the roof of a building. The support members can include rails formed from a rigid material, such as steel. The solar module mounting system can also include a plurality of attachment mechanisms each configured to secure a portion of a framed solar module to a portion of a respective one of the support members.

Abstract: Mounting components of photovoltaic (PV) modules and PV module assemblies are described, including PV module couplings and PV module mounting chassis. In an example, a PV module includes a PV module coupling having a toe portion extending from a PV module frame, and a PV module mounting chassis includes a toe slot to receive the toe. The toe and toe slot construction allows for the PV module frame to be assembled to the PV module mounting chassis without using tools, and thus, permits a PV module assembly to be quickly constructed during installation of a PV module system. Furthermore, the toe and toe slot construction accommodates thermal expansion and other environmental loads seen after installation, while providing a grounding connection for the PV module assembly.

Abstract: A system includes a plurality of photovoltaic modules installed and arranged in an array on a roof deck. Each of the photovoltaic modules includes a wire cover bracket configured to receive at least one electrical component. A rapid shutdown device is electrically connected to the at least one electrical component. The rapid shutdown device is configured to reduce an electrical voltage of the system to a predetermined voltage level. At least one visible indicator is electrically connected to the plurality of photovoltaic modules. The at least one visible indicator is activated when the electrical voltage of the system is less than or equal to the predetermined voltage level.

Abstract: One embodiment is a photovoltaic (PV) module including a frame to receive a perimeter of a backside of a photovoltaic (PV) laminate. The cross rail assembly may include: a conductive frame to receive a perimeter of a backside of a photovoltaic (PV) laminate; one or more conductive cross rail members provide structural rigidity to the conductive frame; and one or more pairs of couplers coupled to the conductive frame, wherein: at least one coupler comprises a grounding coupler having a first keyed section to insert into an opening in the conductive frame and a second keyed section to mate with an end of a conductive cross rail member of the one or more conductive cross rail members to ground the conductive cross rail member to the frame; or at least one coupler of at least one of the one or more pairs includes a length to define a cabling channel.

Abstract: A photovoltaic module incorporates a lamination including a back-sheet, an array of solar cells supported on the back-sheet, and a transparent protective covering over the array of solar cells. The solar cells are arranged in offset or staggered patterns on the back-sheet to present a more random and less rigid industrial appearance to an observer. In some cases, cleaved solar cell segments are arranged into groups that are staggered on the back-sheet. This allows for finer control of the net voltage produced by a module. In other embodiments, full single wafer solar cells are arranged into larger groups, which themselves are staggered on the back-sheet. In either case, the result is a photovoltaic module with an appearance that is more organic and acceptable to homeowners and architects than traditional modules having cells arranged in rigid aligned rows and columns.

Abstract: An arrangement includes a solar cell and a covering, wherein the covering covers the solar cell, at least on the side that is intended to be exposed to electromagnetic radiation of the sun. The covering has an electrochromic layer. The arrangement also has a control unit for controlling the electrochromic layer. The control unit is designed to control the transmittance of the electrochromic layer for electromagnetic radiation in a defined wavelength range by applying an electrical voltage to the electrochromic layer.

Abstract: In various representative aspects, an assembly for securing a solar panel rail and rail-less support structures to a shingle roof. More specifically, the apparatus includes a connection bracket and flashing device for use in installing solar panel rail support structures. The connection bracket is secured to the flashing device by placing it over various embodiments of a cone element that is embedded within the flashing and secured using a tightening mechanism such as a bolt, screw, or other fastener. A solar panel rail support guide can be connected to a generally U-shaped connection on the top of the bracket. The apparatus also offers an improved means to cover the penetration point on the flashing to protect it and prevent water from leaking into the roof as well as an improved way to install the apparatus over existing products. Various embodiments of the bracket and flashing provided as well.

Abstract: Multifunction spacer-wire clips provide spacing and protection during the shipping of solar panels. A multifunction spacer-wire clip can be subsequently used for wire management during installation and solar panel operation. One example of a spacer-wire clip includes a flange overhang portion, a main body portion. a frame arm portion, and a wire retainer extending from the main body portion sized and configured to selectively retain at least one wire within at least one wire cavity.

Abstract: The disclosed technology provides solutions for improving solar carport systems and in particular, for improving a solar carport integrated with a busbar. Aspects of the disclosed technology include an integrated solar carport that includes at least one beam, at least one rail coupled to the at least one beam, and one or more vertical columns configured to support the at least one beam and the at least one rail. Further, the integrated solar carport includes one or more solar modules coupled to the at least one beam or the at least one rail and a busbar coupled to each beam of the at least one beam and one of the vertical columns. Methods of manufacturing the integrated solar carport are also provided.

Abstract: A system, including: a plurality of photovoltaic modules installed above a roof deck, where the plurality of photovoltaic modules includes at least a first photovoltaic module and a second photovoltaic module, where each of the plurality of photovoltaic modules includes: a top surface; a bottom surface opposite the top surface; a plurality of solar cells; a first receptacle on the top surface, where the first receptacle has: a plurality of first non-conductive openings, and a plurality of first conductive members in the plurality of first non-conductive openings; and a second receptacle on the bottom surface, where the second receptacle has: a plurality of second non-conductive openings, and a plurality of second conductive members in the plurality of second non-conductive openings, where at least a portion of the second photovoltaic module overlaps at least a portion of the first photovoltaic module, where the first receptacle of the first photovoltaic module is in mechanical connection with the second recep

Abstract: The present invention relates to a photovoltaic plant including a plurality of units each having at least one respective photovoltaic panel, a support structure of the plurality of units designed to support the latter at a distance from the ground (GR).

Abstract: A device for attaching a junction box to a photovoltaic. The photovoltaic panel has a photovoltaic side and a non-photovoltaic side. The device includes a bracket with a first side attachable to the junction box and a second side attachable to the non-photovoltaic surface of the photovoltaic panel. A central fastener is attachable at one end to the bracket and a plate is adapted for connecting to the other end of the central fastener and for mounting on the photovoltaic side of the photovoltaic panel. One or more rotatable spacers, connectible to the central fastener, may be located on the non-photovoltaic side of the photovoltaic panel. One or more fixed spacers may be located on the non-photovoltaic side connectible to the bracket.

Abstract: An anti-fog glass includes a glass body configured as a single layer or a multilayer stack; an active anti-fog layer disposed on the glass body and heating up when being provided with power; and a passive anti-fog layer disposed on the glass body and inhibiting fog from forming on the passive anti-fog layer. The passive anti-fog layer is a super hydrophobic coating and/or hydrophilic coating. Both the active anti-fog layer and the passive anti-fog layer are simultaneously disposed on the glass body to inhibit fog from forming. In this way, in a region of the glass body not covered by the active anti-fog layer, the anti-fog function is achieved by the passive anti-fog layer to a certain degree; in addition, in a region where the passive anti-fog layer itself cannot provide a desired anti-fog level, the active anti-fog layer together with the passive anti-fog layer provide a better anti-fog effect.

Abstract: A system for installing a solar panel may include an end of arm assembly tool and a linear guide assembly coupled to the end of arm assembly tool. The end of arm assembly tool includes a frame and plurality of attachment devices, such as suction cups, coupled to the frame. The linear guide assembly includes a linearly moveable clamping tool including an engagement member configured to engage a clamp assembly slidably coupled to an installation structure, and a force torque transducer configured to move the clamping tool along the installation structure. A controller configured to control the force torque transducer and the plurality of attachment devices. The end of arm assembly tool is coupled to a robotic arm and is part of an assembly robot that includes autonomous and non-autonomous vehicles. The various components can be operated by a control system based on operation instructions received from a neural network.

Abstract: A system includes first and second photovoltaic modules, each of which includes a first side lap portion, a plurality of solar cells arranged in a plurality of rows, a first electrical connector on the first side lap portion and electrically connected to the first row of the solar cells, and a second electrical connector on the first side lap portion electrically connected to the second row of the solar cells. The system includes a first power electronics unit connected to the first and second electrical connectors of the first photovoltaic module; and a second power electronics unit connected to the first and second electrical connectors of the second photovoltaic module. The first power electronics unit is electrically connected to the second power electronics unit.

Abstract: An elongated plate having a rail and defining lateral wings on opposing sides and a plurality of spaced-apart tabs extending below a plane defined by a bottom surface of the plate for engaging a tufted geotextile ground cover, said rail for receiving a fastener for engaging a bracket of a photovoltaic module thereto. Alternatively, a pair of U-shaped racks support adjacent photovoltaic modules in a series on a support surface, comprising a base and a pair of opposing elongated legs each having a support plate for supportingly engaging a respective one of two adjacent photovoltaic modules, and the base including spaced tabs projecting at an angle to dispose a respective distal end vertically spaced from a bottom surface of the base, for engaging a portion of the support surface.

Abstract: A method of absorbing falling precipitation to prevent the falling precipitation from reaching an area for an activity includes spreading a sufficient amount of a water absorbent including superabsorbent granules over the area prior to or during the falling precipitation so that the superabsorbent granules can absorb the water before the falling precipitation can reach the area wherein the activity can immediately occur after the falling precipitation stops and the water absorbent is removed.

Abstract: A system includes a plurality of photovoltaic modules installed on a roof deck and arranged in an array, and at least one jumper module electrically connecting a first subarray and a second subarray of the array. The jumper module includes a first end and a second end, a sleeve extending from the first end to the second end, and at least one electrical cable. The sleeve is sized and shaped to receive the at least one electrical cable. The at least one electrical cable electrically connects the first subarray to the second subarray.

Abstract: A land vehicle includes a frame structure, a plurality of wheels supported by the frame structure, and a body supported by the frame structure. The frame structure includes an operator cage that at least partially defines an operator cabin and a rear compartment positioned rearward of the operator cage in a longitudinal direction. The body includes a first sidewall arranged on one side of the vehicle and a second sidewall arranged on another side of the vehicle opposite the first sidewall.

Abstract: System and method for connecting and fixing framed solar panels to make a weatherproof building-integrated modular surface for the substrate batten. The system comprises connecting means comprising a top strip manufactured on the basis of the U-profile, a left-side strip, and a right-side strip, whereas the side strip is configured to engage the adjacent side strip configuration and mounting brackets of various shapes. Optional extended top strip and side strip extension strips are also provided, with which the modular surface made of framed solar panels can be extended in both height and width, if necessary.

Abstract: A pest-control structure for a photovoltaic (PV) module installation may include a support beam mounted to a support surface. The support beam may include an interface surface. A PV module may be mounted to the support beam. At least one exclusion spacer may be mounted to the support beam at the interface surface or the PV module. The at least one exclusion spacer may restrict access to an area between the PV module and the support surface.

Abstract: The present disclosure provides photovoltaic (PV) module mounting systems and bracket assemblies for securing PV modules to roofs. The photovoltaic module mounting systems may include a roofing panel having a base layer, a flashing panel coupled along an edge of the roofing panel, and a bracket assembly coupled to the roofing panel, where the bracket assembly includes a bracket and a clip, and where the clip is configured to couple with an edge feature of a PV module to secure the PV module to the roofing panel.

Abstract: A photovoltaic system includes photovoltaic panels arranged in a row. The photovoltaic panels may include at least a first photovoltaic panel and a second photovoltaic panel. The photovoltaic system may further include support ballasts supporting the photovoltaic panels and a connection system configured to mutually connect at least one group of said ballasts. The connection system may include a concrete fairlead conduit.

Abstract: In various representative aspects, an assembly for securing array skirts and solar panel modules in an array on a roof by providing a leveling system that utilizes a barrel bolt and barrel nut to vertically adjust the assembly. Improved electrical bonding by utilizing bonding pins installed in mounting plates of a support clamp are also provided. Additionally, an improved array skirt design that is installed on the outer row of the array, as well as improved designs in the support clamp and splice mechanisms are also provided. Finally, an improved wire management system is included as well as a method of installation of the array assembly.

Abstract: A structure capable of suppressing load applied to a solar panel module due to thermal expansion and contraction of a float. Provided is a structure including a float, a solar panel module having a plate portion, and a supporting member fixed to the float and supporting the plate portion. The plate portion is supported to be movable relative to the supporting member, and a cushioning member is disposed between the supporting member and the plate portion.

Abstract: A trestle includes a base, a slide bracket, a fixing unit, a first fastener, and a second fastener. The fixing unit is installed on the slide bracket and fixes a solar panel that is mounted on a surface of a roof surface. A mounting surface on which the solar panel is mounted is formed on a receiving member of the fixing unit. A fixing unit main body of the fixing unit is formed capable of holding down and fixing the solar panel to the mounting surface by the second fastener, and is fixed to the receiving member. The first fastener is attached such that the fixing between the slide bracket and the fixing unit can be released while maintaining the fixing between the receiving member and the fixing unit main body by the second fastener.

Abstract: One embodiment relates to a connector that includes a diode. The diode has an anode and a cathode. The connector further includes a first electrical connection which connects to the anode, a second electrical connection which also connects to the anode, and a third electrical connection which connects to the cathode. Another embodiment relates to a photovoltaic laminate which includes a string of photovoltaic cells and three electrical conductors extending out of two discrete penetrations of the laminate. A first electrical conductor is connected to a first end of the string, a second electrical conductor is connected to a second end of the string, and a third electrical conductor is also connected to the second end of the string. The first and third electrical conductors extend out of the first discrete penetration, while the second electrical conductor extends out of the second discrete penetration. Other features and embodiments are also disclosed.

Abstract: A scalable solar module array includes a first module electrically coupled to a second module. The first and second module each include a solar panel to collect solar radiation, one or more receptacles located on the solar panel, wherein the one or more receptacles are configured to accept a charging cable for an electronic device, and a mounting member. The first and second modules are electrically coupled through a detachable cable, the cable being connected to a receptacle of the first module and a receptacle of the second module. The one or more receptacles may also be configured to accept a charging cable of an electronic device.

Abstract: Some embodiments relate to photovoltaic shingle. A photovoltaic shingle comprises an encapsulated solar cell, a glass layer above the encapsulated solar cell, an anti-reflective layer above the glass layer, and a plurality of protrusions above the glass layer. The plurality of protrusions covers at least a portion of at least one of the glass layer, the anti-reflective layer, or any combination thereof, such that the anti-reflective coating is exposed between at least a portion of the plurality of protrusions.

Abstract: An insertion rail for a solar panel mounting system is provided. The insertion rail has a mounting wall configured for connection to the solar panel mounting system, wherein the mounting wall is posited at a lower end of a first side of the insertion rail, a vertical leg coupled to the mounting wall at at least one location, wherein the vertical leg is positioned at a second side of the insertion rail, and at least one mating section located at an upper end of the insertion rail. The mating section has an upper tab, a lower tab and the upper tab and lower tab are configured to receive and secure a solar panel integrally therewith using an interference fit.

Abstract: A solar panel mounting assembly including a cap that includes a secure-side wing, a catch-side wing, and an integral vertical leg that protrudes downwardly from the catch-side wing. The vertical leg is integral with the catch-side wing and has a top end and a bottom end. A plurality of inwardly facing corrugations are disposed at the bottom end of the vertical leg. The solar panel mounting assembly further includes a base that includes a secure-side support surface, a tilted spring support ledge on a catch-side, and a plurality of outwardly-facing corrugations disposed on an upper horizontal portion of the base. An inwardly-facing corrugation of the vertical leg contacts and engages an outwardly-facing corrugation on the upper horizontal portion of the base, and the base is vertically adjustable with respect to the cap.

Abstract: A system includes a plurality of photovoltaic modules installed in an array on an exterior wall of a structure. Each of the photovoltaic modules includes at least one solar cell, a first encapsulant encapsulating the at least one solar cell, and a frontsheet juxtaposed with the encapsulant. The frontsheet includes a glass layer. The system includes a plurality of siding panels installed on the exterior wall. The plurality of siding panels is adjacent to the plurality of photovoltaic modules.

Abstract: 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.

Abstract: A system includes a roof deck having a slope of 0.25 inch to 3 inches per foot and a roofing membrane is composed of a first material, and at least one photovoltaic module installed on the roof deck. The photovoltaic module includes at least one solar cell, an encapsulant, a frontsheet, and a backsheet. The backsheet includes a head flap located at a first end of the backsheet, and a bottom flap located at a second end of the backsheet. The backsheet is composed of the first material. At least a first portion of the head flap is attached to the roofing membrane, and at least a second portion of the bottom flap is attached to the roofing membrane.

Abstract: A solar panel rail for mounting a photovoltaic module frame thereto is provided and has a rail body configured to for attachment of a rail bracket, an indexing flange located on the rail body and configured to box and maintain a module frame position along a short-side direction of the module frame, a tab located on the rail body and configured to hold the module in place along a long-side direction of the module frame, wherein the indexing flange and tab are configured to provide a predetermined locked in installation position of the module frame during installation thereof.

Abstract: A device and system for mounting a solar panel return flange to a rail. The device can include a clamp body and a clamping mechanism. With the clamp body receiving the solar panel return flange and the rail, the clamping mechanism can press the rail upward against the return flange and secure the solar panel to the rail.

Abstract: A system for attaching a solar panel to a support, includes a support connector and a solar panel connector, where the support connector includes a U-shaped profile having a lower wall and two side walls, where an upper end of the side walls is bent inwards to provide vertical rails for receiving the panel connector; and the panel connector include a profile having: an upper C-shaped portion configured for receiving a side edge of a solar panel; a lower, upwardly oriented channel portion configured for receiving the vertical rail of the support connector; and at least one box-shaped portion connecting the upper C-shaped portion and the lower channel portion.

Abstract: A solar module mounting bracket system including a plurality of solar modules including mounting slots formed in a sidewall of the solar module, a torque tube configured to support the solar modules such that they can be rotated, a plurality of mounting brackets configured for integration with the torque tube and to which the plurality of solar modules are mounted, at least one first retainer assembly connected to one of the plurality of mounting brackets, the first retainer assembly including a through bolt, a spring, a mounting tab, and nut. When a solar module is placed on the mounting bracket and supported by the torque tube the mounting tab retainer assembly is received in the mounting slot of the solar module.

Abstract: A device and system for mounting a solar panel return flange to a rail. The device can include a clamp body and a clamping mechanism. With the clamp body receiving the solar panel return flange and the rail, the clamping mechanism can press the rail upward against the return flange and secure the solar panel to the rail.

Abstract: A roof attachment system may comprise a mounting bracket, and a retention bracket. The mounting bracket may be configured to be attached to a roof. The retention bracket may be adjustably coupled to the bracket. The retention bracket may comprise a body portion, a first arm and a second arm. The first arm may be operatively coupled to the body portion. The first arm may also extend away from the body portion. The first arm may be substantially perpendicular to the body portion. The second arm operatively coupled to the body portion. The second arm may also extend away from the body portion. The second arm, like the first arm, may be substantially perpendicular to the body. The first arm may be parallel to the second arm.

Abstract: Light-weight, flexible solar panels adapted to prevent inadvertent stress on silicon solar photovoltaic cells inside solar panels. In some examples, a solar panel comprising solar cells includes a plurality of supports, such as one support for each solar cell, with gaps between the supports to allow the panel to flex when strained while protecting the individual cells. In other examples, a solar panel comprises a plurality of solar cells and a support or plural supports designed to accept force applied to the top of the panel and divert such force around the individual cells, without the use of a heavy glass support over top. Some examples may include both individual supports for each cell, with each individual support further adapted to direct applied forces around the individual cells.

Abstract: Features for a solar generation system. The system includes a solar generator that may be installed on a shipping container. The solar generator includes one or more deployable rotating solar arrays. The rotating solar arrays may be deployed and stowed using actuators. The rotating solar arrays may be stowed for transport of the system on ships or to remote locations. The solar panels of the array are unexposed when stowed. A base frame with corner castings may attach to standard connections on cargo containers. The solar generators may be stacked on top of each other when stowed for transport. An actuation system may include linear actuators with two arms connecting at a moving pivot point that attach to a base frame and to the panels for deployment. Another actuation system may include end-mounted linear actuation arms with panel backside-mounted deployment arms.

Abstract: A solar module for a roof covering system that generates electrical power from sunlight includes a frame having a bottom surface supported on a deck of a roof, a top surface, and a thickness between the bottom surface and the top surface. The solar module also includes a solar element mounted to the top surface of the frame which has an upper surface. a micro-inverter mounted to the top surface of the frame and to the side of the solar element, and a raised access panel that is removably coupled to the frame to surround the micro-inverter. The raised access panel has an access panel top surface that is elevated above the upper surface of the solar element. The top surface of the frame forms a water shedding surface below the micro-inverter for directing water away from the roof.

Abstract: A system for stiffening a structure has at least one pair of tie rods (3), each tie rod (3) of the pair of tie rods (3) having a first end (4) fastened to the structure (2) and a second end (5), and at least one device (6) for tensioning the tie rods (3) having a deformable linking element (7) fastened to the second end (5) of each tie rod (3) so as to connect the tie rods (3). An actuator (10) is configured to deform the linking element (7) so as to make it pass from an inactive configuration in which the tie rods (3) are in a first state of tension to an active configuration in which the tie rods (3) are in a second state of tension, different than the first state of tension.

Abstract: Disclosed herein are systems and methods relating to wireless communication mesh networks. In one aspect, the disclosed systems and methods may involve (1) a preexisting fiber network associated with a geographical area that includes buildings, where the preexisting fiber network comprises preexisting fiber links, (2) a first fiber link that is spliced into a given one of the preexisting fiber links coupled to the preexisting fiber network at a given location that was identified as being convenient for extending the preexisting fiber network, (3) a second fiber link that is deployed between the given location and a given building that is closest to the given location, where the given building is configured to serve as a seed node of a wireless communication mesh network that has backhaul connectivity through the preexisting fiber network, and (4) one or more point-to-point or point-to-multipoint communication links that originate from the seed node.

Abstract: A module frame includes two longitudinal, and two transverse, frame elements. A longitudinal cover fold, with two longitudinal cover fold end areas, extends from the first longitudinal frame element. A transverse cover fold has two transverse cover fold end areas. The second longitudinal cover fold, and second transverse cover fold, end areas, form a cover fold end area. The bottom surface of the longitudinal cover fold is the height of the top surface of the second longitudinal frame element. The bottom surface of the transverse cover fold is the height of the top surface of the second transverse frame element. The bottom surface of the first transverse cover fold end area is the height of the top surface of the first longitudinal cover end area, and the bottom surface of the cover fold end area is the height of the top surface of the first transverse cover end area.

Abstract: An optical storage integrated lamp, comprising a lamp post, a luminaire, at least one photovoltaic panel, and an energy storage device. The lamp post comprises at least two sections of sub lamp posts, and adjacent two sections of sub lamp posts are detachably connected with each other; the luminaire is detachably mounted at the sub lamp post located at the top of the lamp post; an accommodating cavity is formed in one sub lamp post; the energy storage device is accommodated in the accommodating cavity; the at least one photovoltaic panel is provided on the outer surface of at least one sub lamp post.

Abstract: This disclosure discusses devices and systems for attaching solar panels to metal roofs. A mounting device has two or more hinge bases that can pivot at various angles about a hinge platform assembly. The hinge platform assembly is optionally widthwise adjustable. The above-mentioned adjustments allow the mounting device to secure solar panels to various types of metal roofs such as flat, corrugated, and trapezoidal. The hinge platform assembly interfaces with various components of the solar panel racking system. The hinge platform assembly includes hinge sleeves that pass into slots within the hinge bases and surround hinge pins that project upward from the hinge bases. This allows the hinge bases to captively rotate about the hinge platform assembly.

Abstract: A multi-rail system for mounting solar modules to a surface, such as a roof, uses two rails to support a first row of solar modules, and a single rail to support each subsequent row of solar modules. Splices connect edges of solar modules between rows, providing support along one edge of the solar modules for the subsequent rows.

Abstract: An A-frame shaped truss foundation system for a single-axis tracker with moderately sloped legs that translate lateral loads into tension and compression without substantially increasing the magnitude of the lateral load force while optimizing material usage. Several such truss foundation systems are installed in a row to support a torque tube of a single-axis solar tracker. An adapter joins ends of adjacent upper legs and separates the truss legs by an angle more than 35-degrees up to 70-degrees. In some cases, the adapter may have an integrated bearing.