Resumen de: WO2026213175A1
A solar field system may include a plurality of elevated dual-axis solar tracking assemblies positioned in an arrangement at a first location. The system may also include a solar field server positioned at the first location, the solar field server communicatively coupled with each of the plurality of elevated dual-axis solar tracking assemblies at the first location. The system may also include a weather station positioned at the first location where the solar field server is also communicatively coupled with the weather station at the first location. The solar field server may have a user interface configured to receive input via the user interface and control each of the plurality of elevated dual-axis solar tracking assemblies in response to the input.
Resumen de: US20260307765A1
This invention relates to the method of configuring a solar panel system on the foredeck of a sailing vessel using a telescoping frame for permanent or temporary attachment to the vessel. The invention relates to significantly improved solar energy capture by substantially increasing energy absorption area compared to existing designs for more efficient recharging of batteries. The solar panel arrangement uses a telescoping base for quick storage and deployment of the photovoltaic panels on the foredeck while underway or static. The telescoping frame can be adjusted to a multitude of deck geometries with modular design for various panel lengths and using adjustable feet. Base feet can be permanent for stability while sailing or motoring. The telescoping system can use folding, sliding, or quick attach solar panels. Application of this invention can also be configured on motor vehicles, travel trailers or similar.
Resumen de: US20260312529A1
The present disclosure is generally directed to installing photovoltaic (PV) ganged systems in a simplistic and cost effective way that delivers repetitive and consistent installation.
Resumen de: US20260312530A1
A foldable A-frame assembly may include a mounting bracket formed from two panels connected through a top wall with a semicircular cutout. The mounting bracket may include pairs of apertures configured to receive fasteners for securing a first member and a second member to the mounting bracket. The assembly may be selectively positioned between multiple configurations through removal and reinsertion of fasteners. In a deployed configuration, the first and second members are positioned at predetermined angles to provide structural support for solar tracking equipment. In a folded configuration, achieved by removing lower fasteners, the members are positioned substantially parallel, allowing multiple assemblies to be arranged in an overlapping pattern with adjacent assemblies oriented 180 degrees relative to each other for improved shipping density. In an extended configuration, the members may be rotated outwardly until disposed on the same plane.
Resumen de: US20260309494A1
0000 The present disclosure describes systems and methods for localizing and positioning one or more sets of 3D data points in the deployment of solar panels. In an aspect, the present disclosure provides a mobile platform comprising a measurement object and a position sensor, and a 3D survey apparatus configured to acquire a first set of 3D data points of the measurement object, wherein the position sensor is configured to acquire a second set of 3D data points at a different location relative to the 3D survey apparatus, and a processor in communication with the 3D survey apparatus and the position sensor, configured to estimate, utilizing an optimization algorithm, a pose of the 3D survey apparatus based at least in part on a difference between the first set of 3D data points and the second set of 3D data points.
Resumen de: US20260310239A1
0000 A solar panel positioning system includes at least one processor configured to perform operations including receive indications of inclement weather, and in response to at least one indication of inclement weather, perform further operations including: operate at least one actuator assembly to rotate at least one panel assembly comprising a solar panel and shield from at least one collection orientation that enables the solar panel to receive direct sunlight, and to a protective orientation that positions the shield above the solar panel to enable the shield to protect the solar panel from a falling object associated with the inclement weather; and maintain the at least one panel assembly in the protective orientation for at least a predetermined period of time before allowing the at least one panel assembly to be rotated out of the protective orientation.
Resumen de: US20260314114A1
A solar cell and a method for preparing the solar cell are provided. The solar cell is formed by cutting a whole cell and includes: a cell substrate and a plurality of textures arranged in the cell substrate, the plurality of textures being spaced apart from each other along a first direction. In the first direction, a density of plurality of the textures is 1 texture per 10 μm to 30 textures per 10 μm, and the first direction is perpendicular to a thickness direction of the cell substrate.
Resumen de: US20260314115A1
0000 A solar cell and a photovoltaic module are provided. The solar cell includes a substrate provided with a first face and a second face, at least one of which is a side of the substrate. On shared prismatic edges and/or shared corners where the first surface and the second surface are adjacent, the substrate is also provided with a multiple-pyramid shared body having a shared face. When viewed in the direction towards the first surface, the multiple-pyramid shared body includes a first pyramid structure formed by enclosing several first triangular surfaces and several third triangular surfaces. When viewed in the direction towards the second surface, the multiple-pyramid shared body includes a second pyramid structure formed by enclosing several second triangular surfaces and several third triangular surfaces.
Resumen de: US20260314109A1
Provided are a solar cell and a tandem solar cell. The solar cell includes a substrate, a tunnel dielectric layer, a doped conductive layer, a first passivation layer and a first electrode. A first surface of the substrate includes metal regions having a first texture structure including a first recess, and non-metal regions having a second texture structure including a second recess. A one-dimensional size of a bottom surface of the first recess is smaller than that of the second recess. The tunnel dielectric layer is arranged at the first texture structure. The doped conductive layer is arranged at a side of the tunnel dielectric layer. The first passivation layer is arranged at a side of the doped conductive layer and at the second texture structure. The first passivation layer includes a third region and a fourth region. The first electrode is electrically connected to the doped conductive layer.
Resumen de: US20260312531A1
0000 The invention relates to a system for attaching a wind deflector to a solar panel, in particular to a module frame of a solar panel, said system including at least one primary clamping structure and at least one secondary clamping structure. The primary and secondary clamping structures are each configured to be clampingly coupled to at least one solar panel, in particular to the module frame of the solar panel, and to be connected to at least part of at least one wind deflector.
Resumen de: US20260312411A1
0000 A controller of a power converter that performs electric power conversion between a photovoltaic panel and an AC power supply system, the controller including processing circuitry. The processing circuitry: obtains a frequency in AC wiring that connects between the AC power supply system and the power converter; obtains a maximum power point voltage of the photovoltaic panel; calculates such an operating point voltage target value of the photovoltaic panel as to suppress the frequency from fluctuating by using the maximum power point voltage and the frequency; and generates such a drive signal as to bring a DC voltage outputted from the photovoltaic panel to the operating point voltage target value of the photovoltaic panel, and outputs the drive signal to the power converter.
Resumen de: WO2026213186A1
A method for operating an elevated dual-axis solar tracking assembly includes receiving a first signal from a first sensor monitoring a first condition corresponding to the elevated dual-axis solar tracking assembly. The method may also include receiving one or more additional signals from one or more additional sensors monitoring one or more additional conditions corresponding to the elevated dual-axis solar tracking assembly. The method may also include analyzing the first signal and the additional signals to determine a current status corresponding to the elevated dual-axis solar tracking assembly.
Resumen de: DE102025112901A1
Die Erfindung betrifft ein Solarpaneel-Tragstruktur (10) zum Ausrüsten und/oder Verkleiden von Bauwerken mit Solarpaneelen, mit zumindest einem Tragelement (12) für ein oder mehrere Solarpaneele (114), welches dazu eingerichtet ist, mindestens ein Solarpaneel (114) in seiner Betriebsstellung (B) in einem Winkel (α) geneigt zu einer Aufstellebene (A) des Bauwerks (100) zu halten, wobei an dem Tragelement (12) mindestens eine Lagereinheit (14) für mindestens ein Solarpaneel (114) angeordnet ist.An der Tragstruktur (10) ist mindestens ein Schwenkmechanismus (16, 16') vorgesehen, welcher dazu eingerichtet ist, bei einer auf das Solarpaneel (114) wirkenden Windlast (LW) eine windlastabhängige Neigungsverstellung des Solarpaneels (114) aus seiner Betriebsstellung (B) heraus zuzulassen.
Resumen de: WO2026209932A1
The invention relates to a solar tower base frame (10) for erecting a solar power plant (1), comprising a base surface (110), the projection surface (111) of which lies on a horizontally extending installation plane (AE). The solar tower base frame (10) has at least two lateral surfaces (130) which enclose the base surface (110) at least in some areas and each of which is inclined at an installation angle (α) of at most 90° with respect to the installation plane (AE). The lateral surfaces (130) comprise longitudinal members (131) and transverse members (132) which are coupled at node points (133) and define assembly planes (ME). Solar panel support structures (20) are mounted at a distance to the transverse members (132) and are designed to receive solar panels (30) at an angle of inclination (β) of less than 90°, and each clamping element (180) connects two lateral surfaces (130) and/or two longitudinal members (131) under the effect of tensile forces (FZ).
Resumen de: WO2026213324A1
A dynamically-adaptable building envelope system. The system comprises a plurality of structural modules for installing over a building façade. The size, shape, orientation, configuration, and material of each module is controlled to optimize any one of several indoor environmental quality parameters. A control system issues control signals responsive to environmental conditions inside or outside the building. The control signal causes a motion imparting element to apply a force to each one of the structural modules, such that each one of the structural modules assumes any configuration between and including an opened configuration and a closed configuration.
Resumen de: WO2026210212A1
An integrated assembly (100) comprising a photovoltaic panel (101) and an LED display (4) is obtained by means of lamination at a temperature lower than 100°C of a second laminate (102), comprising: the photovoltaic panel (101), a front glass sheet (5), a front resin layer (103a) disposed between the front glass sheet (5) and the display (4), and a back resin layer (103b) disposed between the display (4) and the glass (50) of the photovoltaic panel (101); wherein the front and back resin layer (103a, 103b) are made of a transparent, UV-resistant resin that is activated at a temperature below 100°C.
Resumen de: US20260314111A1
A solar panel capable may have various shapes by including a dummy cell module, and have improved output characteristics and lifespan characteristics.
Resumen de: AU2025276557A1
The present application discloses a photovoltaic module, comprising: a plurality of cells, wherein each cell has a first side edge and a second side edge; the cell is provided with an electrode structure; the electrode structure comprises a plurality of fingers; the fingers are at least partially parallel to the first side edge; in an extension direction of the second side edge, two types of fingers having opposite polarities are alternately arranged; in an extension direction of the first side edge, each finger comprises a plurality of second notches and a plurality of connecting portions, the second notches and the connecting portions are arranged adjacent to each other, and the plurality of second notches divide the finger into a plurality of sections, wherein the second notches are of a discontinuous void structure; and a plurality of tabbing ribbons, wherein the tabbing ribbons are arranged in the extension direction of the second side edge and configured to connect adjacent cells in series, each tabbing ribbon is electrically connected to connecting portions of fingers having one polarity, and the tabbing ribbon is at least partially in contact with the surface of the cell at second notches of fingers having the other polarity. The present application can reduce the amount of insulating adhesive used, lower the insulating adhesive costs, and shorten processing time.
Resumen de: US20260312528A1
A curved photovoltaic member (100) includes a power generation layer (30), a current transmission layer (50), a front plate (10), and a back plate (70). The current transmission layer (50) is located at a second side (33) of the power generation layer (30) and is electrically connected to the power generation layer (30). The front plate (10) is located at a first side (31) of the power generation layer (30). The back plate (70) is located at a side of the current transmission layer (50) away from the power generation layer (30).
Resumen de: US20260312527A1
0000 A solar panel tower, the tower comprising: a first level of one or more bifacial solar panels arranged to form one or more sides of a first polygon around a longitudinal axis, wherein a first face of each of the first level of bifacial solar panels forms one side of the first polygon; and a second level of bifacial solar panels arranged to form one or more sides of a second polygon around the longitudinal axis and longitudinally spaced along the longitudinal axis from the first level of bifacial solar panels, wherein a first face of each of the second level of bifacial solar panels forms one side of the second polygon.
Resumen de: US20260312537A1
An unimpeded row system for solar arrays using a below-grade trunk bus line with positive and negative conductors installed in a trench along the row of solar panel arrays. Each solar panel array connects to the trunk bus via multi-tap connectors that receive the trunk line and wire harness conductors, eliminating combiner boxes and reducing heat and failure points. One or more hand-hold boxes within the trench provide above-grade access while allowing the trunk bus to pass through. The trunk bus line may be formed from ruggedized, direct-burial cable with dual-layer insulation and aluminum-coated steel core members, minimizing trenching requirements and improving system reliability.
Resumen de: WO2026212906A1
A system and method for adaptively operating batteries in low temperature environments that comprises: obtaining weather forecast data for a location corresponding to at least one photovoltaic cell; determining whether heating is required for the at least one battery pack, wherein the at least one battery pack comprises at least one battery cell; when it is determined that heating is required, determine, at the processor based on the weather forecast data, whether sufficient sunlight is expected at the at least one photovoltaic cell for power generated at the at least one photovoltaic cell to charge at least one battery pack in excess of power expected, to be consumed to heat the at least one battery pack using at least one heater; and when it is determined that sufficient sunlight is expected, initiating a heat strategy for heating the at least one battery pack using the at least one heater.
Resumen de: WO2026213191A1
A drivecore system for a solar tracking assembly includes a mounting plate configured to be secured to an elevated structural support, a bottom base plate secured to the mounting plate, and a first slew drive secured to the bottom base plate and aligned with a central axis of the elevated structural support. A top base plate is secured to the first slew drive, and a vertical plate extends from the top base plate with a through hole. First and second side stiffeners are secured to the top base plate and respective sides of the vertical plate. A second slew drive is secured to the vertical plate and aligned with the vertical plate through hole. First and second motors control the respective slew drives, enabling dual-axis rotation of a photovoltaic array to track the position of the sun.
Resumen de: US20260313856A1
Provided is an inverter including a main case, a heat dissipation case that covers one side of the main case and has a plurality of heat dissipation fins, a circuit board unit arranged in an internal space defined by an assembly of the main case and the heat dissipation case, the circuit board unit having one or more circuit boards configured to mutually convert between direct current power and alternating current power, and a fixing member that connects the main case to an external storage device.
Nº publicación: US20260312374A1 08/10/2026
Solicitante:
DS2 0 LLC [US]
DS2.0, LLC
Resumen de: US20260312374A1
This disclosure describes a DC combiner box that has improved field installation capabilities and has decoupled thermal load between input fuses. The DC combiner box can be a junction box that includes a backplate; an input bus mounted to the backplate; an output bus mounted to the backplate; a crimp connector mounted to the backplate and electrically connected to the output bus, wherein the crimp connector includes a viewing window located proximate to an end of a barrel section of the crimp connector, thereby providing visibility of a stripped wire that is fully inserted through the barrel section; and a housing at least partially enclosing the output bus and the crimp connector.