Absstract of: US20260230030A1
The present disclosure provides a bracket assembly for securing a photovoltaic (PV) module. The bracket assembly may include a bracket having a top portion and a bottom surface and a clip coupled to the bracket. The clip may include a hooked portion, wherein the clip is configured to be displaced by a PV module from a first position to a second position. The clip may be biased toward the first position, and the hooked portion may be configured to engage an edge feature of the PV module.
Absstract of: US20260227424A1
0000 A device for monitoring and alerting for contact of an object with a line strung between two upright posts includes a housing having a body and a mounting portion extending from the body. A mount is positioned in the mounting portion. A camera is positioned on the mounting portion for downward viewing of the line. A processor is positioned in the housing and an accelerometer is positioned in the housing in operable communication with the processor. The device includes a power supply operably connected to the processor. When the device is positioned on the line and the accelerometer senses movement of the device, the accelerometer generates and transmits a signal to the processor. The processor analyses the signal to determine whether the signal meets a threshold and, if the threshold is met, the processor generates and transmits an alarm signal to a receiving device.
Absstract of: US20260231560A1
Systems, methods, and articles for a portable power case are disclosed. The portable power case is comprised of at least one battery and at least one PCB. The portable power case has at least two access ports and at least one USB port. The portable power case is operable to supply power to an amplifier, a radio, a wearable battery, a mobile phone, and a tablet. The portable power case is operable to be charged using solar panels, vehicle batteries, AC adapters, non-rechargeable batteries, and generators. The portable power case provides for modularity that allows the user to disassemble and selectively remove the batteries installed within the portable power case housing.
Absstract of: US20260231536A1
0000 Disclosed is a solar cell including a semiconductor substrate, and a dopant layer disposed over one surface of the semiconductor substrate and having a crystalline structure different from that of the semiconductor substrate, the dopant layer including a dopant. The dopant layer includes a plurality of semiconductor layers stacked one above another in a thickness direction thereof, and an interface layer interposed therebetween. The interface layer is an oxide layer having a higher concentration of oxygen than that in each of the plurality of semiconductor layers.
Absstract of: US20260225942A1
A glass, having a specific gravity of 2.2 to 2.7, having a Young's modulus of 60 GPa or more, having an average thermal expansion coefficient in a range of 50° C. to 200° C. of 2.0 to 6.0 (×10/K), having a rectangular shape, having a main surface with one side of 50 cm or more and 300 cm or less, having a thickness of 0.01 mm or more and 0.5 mm or less, having a total content of Li2O, Na2O, and K2O of 0% to 3.5% in terms of mass % based on oxides, and containing 0.1% to 10% of CeO2 in terms of mass % based on oxides.
Absstract of: AU2025246292A1
Disclosed are a solar cell manufacturing method, a solar cell, and a photovoltaic module. The manufacturing method comprises the following steps: providing a silicon substrate, wherein the silicon substrate comprises a first surface and a second surface which are oppositely arranged, and the second surface comprises first regions and second regions which are distributed at intervals; forming a tunneling layer and a second doping layer, which are stacked, on the first regions; preparing a second passivation layer on the second regions and the second doping layer, wherein the second passivation layer is in contact with the silicon substrate on the second regions; and preparing, on the first regions, second electrodes in contact with the second doping layer.
Absstract of: US20260230037A1
0000 A solar tile with fire extinguishing equipment function and a fire protection system for a building to improve fire protection for buildings with solar cells and to facilitate the installation. The solar tile is used in a corresponding systems. The simple arrangement of an edge profile, in particular a profile made of plastic or metal that often already exists, creates a quick, simple and robust method of distributing water over a large area. The solar tile has a water line. The water line has at least one inlet connection. The water line may also have one outlet connection between which it extends. The water line has at least one outlet, said outlet being designed to supply water from the water line to the or to an adjacent solar tile.
Absstract of: WO2026164510A1
The present invention is in the field of a solar cell, or photovoltaic (PV) cell, with an improved tunnel recombination junction (TRJ). Said solar cells comprise at least one hetero junction and typically two hetero junctions. The invention provides solar cells with good operating characteristics, such as in terms of conversion efficiency, fill factor, and current gain.
Absstract of: WO2026163209A1
A non-penetrating structure for suspending panels over sloped and/or level ground, the structure comprising: (i) at least one geomembrane to cover a surface of the sloped and/or level ground; (ii) at least one grid essentially parallel to the at least one geomembrane, wherein the at least one geomembrane is positioned in between the sloped and/or level ground and the at least one grid; (iii) at least one trench weight, which by its self-weight, secures the at least one grid and the at least one geomembrane onto the sloped and/or level ground; and (iv) a plurality of panel support beams, wherein each one of the plurality of support beams couples one or more of at least one panel, selected from a group consisting of a photovoltaic panel, a solar-thermal panel and a thermo-photovoltaic panel, to a plurality of connections, each connection of the plurality of connections comprising at least one hook; and wherein the at least one hook hangs onto one or more of the at least one grid.
Absstract of: AU2025279729A1
Abstract The disclosure provides a back-contact solar cell and a preparation method thereof, and a photovoltaic module. The back-contact solar cell includes a crystalline silicon substrate and a first functional film, the back side of the crystalline silicon substrate is provided with a first region and an isolation region, the isolation region is disposed on one side of the first region; and the first functional film is stacked on the first region, the first functional film is provided with a light-trapping portion close to the isolation region, the light-trapping portion is provided with at least one of a light-trapping portion close to the isolation region, the light-trapping portion is provided with at least one of a light-trapping valley and a light-trapping peak. Abstract ec b s t r a c t e c Drawings Fig. 1 x 101 103 102 103 101 ec e c
Absstract of: WO2026163083A1
A method of producing a photovoltaic module includes obtaining a substrate including a coating and laser ablating a first scribe at least partially through the coating of the substrate. The method includes depositing a first charge carrier layer onto the substrate and annealing the first charge carrier layer at a first temperature for a first time period. The method includes depositing an absorber layer at a second temperature and laser ablating a second scribe at least partially through the absorber layer. The method includes depositing a second charge carrier layer onto the absorber layer and depositing a top contact layer onto the second charge carrier layer to create a subassembly. The method includes washing the subassembly with a second solvent, annealing the subassembly at a third temperature for a second time period, and laser ablating a third scribe at least partially through at least one layer of the subassembly.
Absstract of: US20260231557A1
A method of forming a solar cell is disclosed. The method includes forming a multilayered stack of materials including a substrate, forming a plurality of openings in the multilayered stack of materials, forming a plurality of dielectric regions, aligned with the plurality of openings, on a surface of a first silicon material of the multilayered stack of materials, forming a trench around each dielectric region of the plurality of dielectric regions, to form a plurality of first silicon regions and one or more second silicon regions, and after forming the trench around each dielectric region of the plurality of dielectric regions, forming a first doped material on exposed surfaces of the multilayered stack of materials. In addition, the method includes using the first doped material to cause the plurality of first silicon regions to have a doping type that corresponds to the doping type of the first doped material, and using a second doped material that is located in an uppermost part of a layer of amorphous silicon in the multilayered stack of materials, to cause the one or more second polysilicon regions to have a doping type that corresponds to the doping type of the second doped material.
Absstract of: US20260231559A1
A multilayer solar panel system includes a first solar panel oriented to receive direct sunlight and a second solar panel oriented in an opposite direction relative to the first solar panel. The multilayer solar panel system further includes a light tunnel unit to capture sunlight and guide the sunlight toward a light reflecting unit and a mirror unit. The multilayer solar panel system further includes the light reflecting unit to receive sunlight from the light tunnel and distribute the sunlight toward the second solar panel. The multilayer solar panel further includes the mirror unit to reflect incoming sunlight toward the light reflecting unit and onto the second solar panel.
Absstract of: US20260231498A1
A method of forming a solar cell is disclosed. The method includes forming a multilayered stack of materials wherein a first amorphous silicon layer is the top layer of the multilayered stack of materials and is formed above an oxide layer that is formed above a second amorphous silicon layer. In addition, the method includes forming a plurality of openings in the first amorphous silicon layer, forming a plurality of non-contiguous mask regions in the second amorphous silicon layer, and forming a plurality of trenches around each non-contiguous mask region of the plurality of non-contiguous mask regions to form a plurality of non-contiguous first silicon regions and to form one or more second silicon regions, wherein the plurality of non-contiguous first silicon regions include parts of a first portion of the second amorphous silicon layer on their top surfaces, wherein the parts of the first portion of the second amorphous silicon layer includes the plurality of non-contiguous mask regions, and wherein the one or more second silicon regions include parts of a second portion of the second amorphous silicon layer on the top surface of the one or more second silicon regions. The method further includes removing the plurality of non-contiguous mask regions to expose the top surfaces of the plurality of non-contiguous first silicon regions.
Absstract of: US20260229887A1
A module level power electronics (MLPE) according to an aspect may comprise a processor that: executes a self-diagnosis mode on the basis of a self-diagnosis request signal received during operation or stop of an inverter connected to the module level power electronics; detects, ion the self-diagnosis mode, whether there is an installation error between a photovoltaic module and the module level power electronics or a component error within the module level power electronics; and transmits, to a diagnosis management system, diagnosis result information regarding whether or not the installation error and the component error are detected.
Absstract of: US20260230028A1
A photovoltaic assembly including at least one fishbone support, at least one solar photovoltaic (PV) panel adhered to the at least one fishbone support and at least one additional support selected from the group consisting of a horizontal support configured to support the at least one fishbone support and attached to the backbone, wherein the horizontal support comprises a profiled slot, a vertical support attached to the plurality of cross arms, and combinations thereof. The at least one fishbone support includes a backbone and a plurality of cross arms attached to and arranged perpendicular to the backbone. a method for shipping photovoltaic including providing a photovoltaic assembly including at least one fishbone support adhered to a backside of at least one solar PV panel as a first layer and stacking additional photovoltaic assemblies along raised portions to generate subsequent layers of photovoltaic assemblies.
Absstract of: WO2026163089A1
Control system for a photovoltaic system, wherein the photovoltaic system comprises at least one photovoltaic panel (10), configured to rotate around an inclination axis (X) for an inclination angle (a), and at least one actuator (20), configured to drive the photovoltaic panel (10) in rotation around the 5 inclination axis (X), characterized in that it comprises: a solar radiation detector (3), equipped with a collection surface (31) for collecting solar radiation and arranged to rotate around a regulation axis (Y) by a measurement angle (b), which is also arranged to make available control energy data indicative of the energy and/or power of the solar 10 radiation incident on the collection surface (31); a motor (4), arranged to drive the solar radiation detector (3) in rotation around the regulation axis (Y); a control module (C), which is connected to the solar radiation detector (3) and to the motor (4), and is configured to perform a detection cycle that 15 provides for: activating the motor (4) to rotate the solar radiation detector (3) around the regulation axis (Y) by at least a portion of the measurement angle (b), in at least one direction of rotation; during the rotation of the detector (3), at predetermined angular positions 20 of the solar radiation detector (3) or at certain instants of time, acquiring the control energy data and the corresponding angular position; identifying a maximum value of the control energy data and the corresponding angular position of
Absstract of: US20260230033A1
0000 Solar trackers located on terrain of varying contour include a continuous torque tube formed of a plurality of sections; the plurality of sections being interconnected. A plurality of piers are embedded in the terrain at spaced locations along the torque tube to form a row. Top portions of the plurality of piers being at differing heights relative to each other due to the terrain of varying contour. The torque tube extending along the piers such that the torque tube and a pitch angle of a central axis follow the differing heights of the top portions. Further, each pier is mounted into the terrain at a mounting angle that is substantially 90 degrees downward from the pitch angle of the central axis proximate a location along the continuous torque tube where the pier is rotatably supported by a respective bearing.
Absstract of: US20260229810A1
A modular multi-tap system has a plurality of modules wherein each module of the plurality of modules has a conductive metal block and an insulating housing. The insulating housing leaves the sides of uncovered. The conductive metal block has a common power conductor thru-hole which allows multiple modules to be ganged together by inserting the power common conductor through the thru-holes of all of the modules and then be engaged by setscrews in the modules.
Absstract of: US20260230034A1
0000 Embodiments of the application may include frames and methods for making frames to at least partially enclose or support a solar panel including an elongated piece of framework material which has been folded to form a folded, framework having at least some portions of overlapped framework and a securement between some of the overlapped framework. Securements may include but are not limited to teeth, dimples, tab locks, adhesives, grip surfaces, or the like and may provide strength and even anti-twisting properties to a frame.
Absstract of: US20260229877A1
0000 A processor according to an aspect: during monitoring of operation situations, determines that switching to a safety mode is needed; on the basis of the number of all devices connected to photovoltaic (PV) modules and a predefined safety voltage, identifies a target voltage of each of all the devices; and provides a shutdown signal to each of all the devices so that an output voltage of each of all the devices is controlled to the target voltage.
Absstract of: WO2026165399A1
A solar tracker row (120) for solar tracker systems (100) includes a plurality of A-frame shaped supports (300) coupled to underlying ground, arranged in a north-south row. A torque tube (14) extends along the row and is rotatably supported on the plurality of A-frame shaped supports (300). A plurality of solar module assemblies (150) is coupled to the torque tube (14). Each support (300) includes a hollow shaft (318a) having a first section (331a) having a circular cross- section and a second section (332a) having a circular cross-section. The hollow shaft (318a) further includes a third section (333a) located between the first section (331a) and the second section (332a) having an oval cross-section, the oval cross-section defining a major axis (Ml) and a minor axis (M2). The major axis (Ml) being oriented in an east-west direction and the minor axis (M2) being oriented in the north-south direction. The third section (333a) provides each support pier (312a) with greater flexibility in the north-south direction relative to the east-west direction.
Absstract of: US20260230036A1
0000 A photovoltaic (PV) system includes one or more PV modules, the one or more PV modules including a PV layer having a first side and a second side opposite the first side. The PV modules also include a conductive layer coupled to the second side of the PV layer, the conductive layer further including a positive bus line and a negative bus line extending in a first direction. The conductive layer further includes a vertical bus line extending substantially orthogonally to the first direction and is operable to electrically couple to the positive and negative bus lines. The one or more PV modules can be electrically coupled to other PV modules in series or in parallel.
Absstract of: US20260226696A1
0000 A modular pile system for a solar tracking system including an elongate hollow tube extending longitudinally from a first end to a second end, the elongate tube having a longitudinal axis, one or more mounting holes positioned along the longitudinal axis of the elongate hollow tube, a plurality of holes positioned adjacent the second end of the elongate hollow tube, and one or more interchangeable components configured to be coupled to the second end of the elongate hollow tube via the plurality of holes, the one or more interchangeable components configured for engaging with soil in which the ground pile is implanted.
Nº publicación: US20260230035A1 06/08/2026
Applicant:
UMAR NAEEM [US]
Umar Naeem
Absstract of: US20260230035A1
0000 An electricity-generating photovoltaic system is a system that efficiently converts solar energy into electricity while taking less operational space when compared to traditional solar panels. The system includes at least one solar tube, at least one retractable panel mechanism, and a support structure. The at least one solar tube corresponds to a vertical structure that captures sunlight to be converted into electricity. The at least one solar tube also includes means to efficiently convert the captured sunlight into electricity. The at least one retractable panel mechanism enables the control of the travel of the captured sunlight down the at least one solar tube. The support structure provides structural support for the at least one solar tube to maintain a desired orientation. The support structure also provides structural support to the at least one retractable panel mechanism to enable the automatic operation of the system.