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134
results.
Updated on
20/08/2026 [07:01:00]
Results 50 to 75 of 134
Absstract of: US20260238155A1
Mount and clamp assemblies employed in solar power installations are disclosed. In some embodiments, a mount assembly having a rail and opposing wings extending outwardly from the rail is disclosed. Each wing includes a top surface and a bottom surface for creating a chemical flashing, a groove and a sealant-receiving cavity extending away the bottom surface and upwardly into the wing, and a compressible seal with a circumferential pressure relief passageway. In some embodiments, a clamp having an upper member and a lower member with two horizontal flanges and a vertical flange is disclosed; in this embodiment, adjacent modules may be clamped together without an underlying structure mounted directly below to an installation surface. In another embodiment, a fourth flange is included in the mount assembly; in this embodiment, adjacent modules may be clamped together while being mounted directly to an installation surface.
Absstract of: EP4790890A2
0001 The present invention discloses a main shaft of a photovoltaic tracking support and the photovoltaic tracking support itself. A cross-section of the main shaft is of a compact cross-section. This cross-section includes four planar segments and four arc segments. The four planar segments and the four arc segments are alternately arranged circumferentially to form a square tubular structure. Widths of the four planar segments are equal, and radians of the four arc segments are also equal, making the square tubular structure formed by the four planar segments and the four arc segments centrally symmetric about an axis of the main shaft. A ratio of the width x' of the planar segment to a wall thickness t of the main shaft, i.e., a width-to-thickness ratio x'/t, falls within a range of 20 to 25, which achieves a balance and compromise between torsional strength and bending strength, thereby providing better stability.
Absstract of: EP4790892A2
0001 A system for protecting solar tracking components from excessive forces, the system comprising a sensor secured to a component of the solar tracking system, which sensor is configured to monitor a force on or a movement of the component. The system further comprising means to receive data from the sensor and determine whether the force on or the displacement of or more solar panels in a first position exceeds a first threshold, and triggering remedial action to rotate the one or more solar panels to a second position where the force on or displacement of the one or more solar panels is less than a second threshold.
Absstract of: WO2025073601A1
The invention relates to a method of testing at least one photovoltaic cell (2) of a solar charge arrangement (4) for a vehicle (1) using a test arrangement (5), wherein the test arrangement (5) comprises an optical sensor (6), in particular a camera (7), wherein a reverse current (11) is applied to the at least one photovoltaic cell (2), wherein the photovoltaic cell (2) in response to the reverse current (11) emits light, wherein the optical sensor (6) generates sensor data (14) by capturing the emitted light, in particular makes an image of the at least one photovoltaic cell (2), wherein the test arrangement (5) comprises a control unit (15) for outputting and/or analyzing the sensor data (14), wherein the solar charge arrangement (4) comprises a solar charge controller (16), wherein the at least one photovoltaic cell (2) is controlled by the solar charge controller (16), wherein the solar charge controller (16) controls the photovoltaic cell (2) while the photovoltaic cell (2) generates energy from sunlight, wherein the solar charge controller (16) applies the reverse current (11) to the at least one photovoltaic cell (2).
Absstract of: WO2026104075A1
A solar wing (1) for a spacecraft (100), the solar wing (1) being configured to be movable between a stowed position and a deployed position and comprising: − a solar array (10) comprising a plurality of solar panels (2) comprising solar cells for generating electrical current and configured to be movable between the stowed position and the deployed position, the solar panels being arranged adjacent to one another and along a longitudinal axis (X) in the deployed position, − a plurality of stiffening assemblies (3) extending in at least one line (L1 or L2), each stiffening assembly (3) comprising at least one stiffening panel (30), said stiffening panel (30) of each stiffening assembly (3) being mechanically and electrically linked to one of said solar panels (2), each stiffening assembly (3) being configured to be movable between the stowed position and the deployed position, each stiffening panel (30) forming a predetermined non-zero and non-planar angle (A) with said solar panel (2) in the deployed position, said stiffening assemblies (3) of said at least one line comprising a plurality of mechanical and electrical links (4) in the form of electrically conductive C-shaped tape springs (5), at least one pair of mechanical and electrical links (4) being fastened to adjacent stiffening panels (30) and extending therebetween, at least some of the mechanical and electrical links (4) extending parallel to said line in the deployed position, each mechanical and electrical lin
Absstract of: EP4790891A1
Die Erfindung betrifft eine Solarzellenanordnung mit einer Anordnung von Solarzellen (1). Die Solarzellen (1) werden in einem Arbeitspunkt mit negativem differenziellem Widerstand betrieben und die Solarzellen (1) werden mit Wechselstrom betrieben. Weiterhin betrifft die Erfindung ein Verfahren zum Betrieb einer Energiewandleranordnung.
Absstract of: EP4791150A1
An IBC cell, an IBC cell assembly, and a production method are provided, and belong to the technical field of solar cells. An IBC cell body includes a first cell segment, a rectangular transition zone and a second cell segment. The first cell segment and the second cell segment are distributed on two sides of the rectangular transition zone respectively and arranged mirror-symmetrically arranged, the length of the rectangular transition zone in a transverse direction is a first preset distance 2d, and backlight sides of the first cell segment and the second cell segment are provided with positive electrodes and a negative electrodes. In the IBC cell assembly, first cell row units and second cell row units arranged alternately in a longitudinal direction, the first cell row unit includes N IBC cell bodies arranged in the transverse direction, and the second cell row unit includes N-1 IBC cell bodies rotated by 180° and arranged in the transverse direction, and includes the first cell segment and the second cell segment that are rotated by 180° and arranged on two end sides of the N-1 IBC cell bodies respectively.
Absstract of: EP4791155A2
An embodiment of the present disclosure provides a solar cell and a photovoltaic module. A solar cell includes: a substrate having a front surface and a rear surface opposite to the front surface, and doped with a second dopant element; a first dielectric layer formed over the rear surface of the substrate; a first doped conductive layer formed over a surface of the first dielectric layer away from the substrate and doped with a first dopant element; grooves arranged alternatingly in a first direction, penetrating the first doped conductive layer and the first dielectric layer, and extending into the substrate; a second dielectric layer formed over a bottom surface of the grooves; a second doped conductive layer formed over a surface of the second dielectric layer away from the substrate and doped with the second dopant element; and a doped layer aligned with the second doped conductive layer, located between the second dielectric layer and the substrate, and doped with the first dopant element. The solution is at least beneficial to improve the open-circuit voltage and the photoelectric conversion efficiency of the solar cell.
Absstract of: EP4790727A1
The present application relates to the field of conductive paste and discloses a silver-coated nickel paste and a preparation method thereof, as well as a high-temperature sintering metallization method for crystalline silicon solar cells. The silver-coated nickel paste includes the following components by weight percentage: 80-95% of conductive powder, consisting of silver-coated nickel powder and micron-sized silver powder; 1-6% of glass powder; 0.1-3% of organic resin; 0.5-0.8% of a thixotropic agent; 0-1% of other auxiliaries and balance is solvent. Among them, the conductive powder is a mixture of silver-coated nickel powder and silver powder at a weight ratio of 1:(0-50). The silver-coated nickel powder used has a resistivity of ≤ 96 µΩ·cm, an oxidation-resistant resistivity of ≤ 205 µΩ·cm, and a titrated nickel content of ≤ 0.01 mol/L. When the silver-coated nickel paste is used for single-backside printing the crystalline silicon solar cells, compared with pure silver paste, the line resistance is slightly higher, the contact resistance is substantially the same, and the printed wet weight is substantially the same. After adjustment, the photoelectric conversion efficiency is 0%-2% lower than that of pure silver paste, and the silver-coated nickel paste can be used as a substitute for pure silver powder paste for crystalline silicon solar cells. Correspondingly, the present application discloses a preparation method of a silver-coated nickel paste and a hi
Absstract of: FR3171946A1
L’invention présente un avantage déterminant par rapport aux éoliennes verticales classiques. Le dispositif utilise un système de concentration du vent qui dirige l’air sur une partie des éoliennes, afin d’améliorer l’efficacité énergétique et de réduire les pertes. De plus, l’intégration de panneaux solaires sur les façades de la structure permet une production hybride, assurant une continuité même en conditions de vent faible. Le caractère modulaire de l’invention permet son adaptation à différents contextes, allant de modules compacts en toiture urbaine à des tours multi-étages pour de grandes infrastructures. Figure de l’abrégé: Fig. 5
Absstract of: WO2026164514A1
A rope locking device for locking two crossing ropes together. The rope locking device has a first set of wedges for positioning around a first rope, where the first set of wedges is configured to squeeze against the first rope when pulled in either direction. It also has a second set of wedges for positioning around a second rope, and the second set of wedges is configured to squeeze against the second rope when pulled in either direction. The first rope and the second rope are separated in two different layers within the rope locking device.
Absstract of: US20260230029A1
Embodiments of the present disclosure provide a photovoltaic (PV) module mounting system configured to secure a PV module to a support structure, such as a torque tube.
Absstract of: US20260231556A1
0000 In the present application, a tunnel oxide layer is deposited by means of a combination of PECVD and PEALD. A thin oxide layer with a thickness of 0.1 nm to 0.5 nm is pre-deposited by means of PECVD. In a subsequent PEALD process, the thin oxide layer chemically passivates a surface of a substrate, and then the PEALD process is configured to uniformly deposit a tunnel oxide layer on the basis of the oxide layer. The basic principle of such growth mode is atomic layer deposition.
Absstract of: ES1325633U
A low-height photovoltaic system for agricultural plantations, where the plants are arranged in rows, characterized in that it comprises at least one row of vertical posts (2) fixed to the ground; at least one row comprising at least one photovoltaic module located between posts, the rows being arranged at different heights between posts; wherein the maximum height (Hm) of the photovoltaic modules (1) is less than the height (Hf) of the agricultural plants from which branches with their leaves and fruit develop; and wherein the photovoltaic modules (1) are arranged in the free space (Ep) between the trunks of the plants. (Machine-translation by Google Translate, not legally binding)
Absstract of: US20260230027A1
0000 A solar energy racking system for a plurality of solar panels for generation of electrical energy comprising a pair of opposing elongated rails for disposing in spaced-apart relation on a surface and secured thereto with a pair of anchors for each elongated rail, said anchors for connecting to the surface and to respective opposing portions of the elongated rail; and a solar photovoltaic module for securing to the pair of rails with a plurality of clips. A plurality of solar panels mount to the rails in a dense-space array having a low-profile relative to the surface. Optionally an intermediate engaging member attached to the rails intermediate the anchors further secures the rails to the surface.
Absstract of: AU2025212200A1
Disclosed in the present application are a solar cell and a manufacturing method therefor, and a photovoltaic module. The solar cell comprises: a semiconductor substrate, which has a first surface and a second surface opposite to each other; and a first semiconductor layer, which is arranged on the first surface, and comprises a first part and a second part that is closely adjacent to the first part in a second direction, wherein the degree of crystallization of the first part is greater than that of the second part, and the first semiconductor layer is made of at least one of amorphous silicon, nanocrystalline silicon and microcrystalline silicon. By providing a rational crystallized area and a rational non-crystallized area on the first semiconductor layer, the overall cell efficiency of the solar cell is optimized by means of the higher degree of crystallization of the first part, thereby improving the cell efficiency; in addition, the passivation effect of the second part is ensured by means of the lower degree of crystallization of the second part, thereby preventing electric leakage.
Absstract of: AU2025211076A1
A solar module frame coupling assembly (900) includes a solar module frame (908) and a rail (904). The solar module frame (908) includes a frame side portion (903) having a protruded guide structure (901). The rail (904) includes a first rail side (930) and a second rail side (931) that is opposite the first rail side (930). The second rail side (930) is configured to interface with a torque tube (14), and the first rail side (930) includes an alignment slot (902). The alignment slot (902) is configured to receive the protruded guide structure (901) to couple the solar module frame (908) to the rail (904).
Absstract of: AU2025212253A1
A support structure (200, 300, 400, 500a, 500b, 600a, 600b) for solar trackers with thermal expansion mitigation includes a frame (212, 312, 412, 512, 612a, 612b) rotatably coupled to one or more ground piles (216, 316, 416, 516, 616a, 616b). The support structure (200, 300, 400, 500a, 500b, 600a, 600b) further includes a pivot bracket (206, 306, 406, 606a, 606b) rotatably coupled to a portion of the frame (212, 312, 412, 512, 612a, 612b) with the pivot bracket (206, 306, 406, 606a, 606b) including a pivot pin (244) to which torque tube clamps (232, 332, 432, 532) are rotatably coupled. The torque tube clamps (232, 332, 432, 532) are affixed to a torque tube (204, 304, 404, 504) and solar modules are affixed to the torque tube (204, 304, 404, 504) via one or more mounting brackets. Thermal expansion/contraction of the torque tube (204, 304, 404, 504) is translated into rotational movement of the frame (212, 312, 412, 512, 612a, 612b) relative to the one or more ground piles (216, 316, 416, 516, 616a, 616b) via the rotatable couplings including the pivot bracket (206, 306, 406, 606a, 606b). The rotational movement of the frame (212, 312, 412, 512, 616a, 612b) relative to the one or more ground piles (216, 316, 416, 516, 616a, 616b) enables the torque tube (204, 304, 404, 504) to expand/contract while mitigating mechanical stress of the support structure (200, 300, 400, 500a, 500b, 600a, 600b).
Absstract of: US20260228374A1
A solar panel system proposal system includes a remote device configured to display various steps of the solar panel system proposal process and receive input from a user. The user input received from the user allows the user, via the solar panel system proposal system, to create one or more solar panel system layout designs, compare savings for different solar panel system layout designs, select a solar panel system layout design from the one or more solar panel system layout designs, and generate a solar panel system proposal based on the selected solar panel system layout design.
Absstract of: AU2025210482A1
A solar module frame is configured to bound a plurlaity of photovoltaic cells. This solar module frame includes a first sidewall at a first side of the frame and a second sidewall at a second side of the frame. Extending out from the first sidewall is a first outward facing lower flange that includes at least one fastening aperture, and extending out from the first sidewall is a first inward facing upper flange that defines a first side photovoltaic cell receptacle. Extending out from the second sidewall is a second outward facing lower flange that includes at least one fastening aperture, and extending out from the second sidewall is a second inward facing upper flange that defines a second side photovoltaic cell receptacle.
Absstract of: AU2025208746A1
A self-centering rail includes a first side portion and a second side portion that is opposite the first side portion. The first side portion is configured to couple to a first solar module frame when a first flange of the first solar module frame is received at the first rail clamp and the second rail clamp and when a frame self-centering member of the first solar module frame is received at the first rail self-centering member. The second side portion is configured to couple to a second solar module frame when a second flange of the second solar module frame is received at the third rail clamp and the fourth rail clamp and when a frame self-centering member of the second solar module frame is received at the second rail self-centering member.
Absstract of: AU2024411312A1
A floating photovoltaic (PV) arrangement for supporting at least one PV module having at least one support region, the arrangement including a first elongate float; and a second elongate float having an end that is interconnected to a side of the first elongate float, wherein at least one of the floats comprises at least one mounting location for supporting the PV module via the at least one support region thereof.
Absstract of: AU2026206126A1
A modular sensor system comprising a plurality of modules, the plurality of modules comprising one or more sensors, one or more energy harvesters, one or more energy storage devices, one or more wireless radios, and one or more electronics devices, wherein the one or more energy harvesters comprise a photovoltaic cell; and one or more blind-mate connectors contained within each of the plurality of modules, wherein the one or more blind-mate connectors comprise an electrical connector to transmit power and/or data and configured to connect two modules of the plurality of modules together. ul u l
Absstract of: US20260230031A1
The invention relates to a system and a method for mounting at least one solar panel on a substantially flat mounting surface. The system comprises thereto a base element, a support structure configured for supporting at least part of at least one solar panel, which is connected to the base element and wherein the support structure comprises a retaining element for retaining at least part of an upper edge of the solar panel and a clamping element configured for clampingly engaging at least part of a lower edge the solar panel.
Nº publicación: US20260229643A1 06/08/2026
Applicant:
HUAWEI DIGITAL POWER TECH CO LTD [CN]
Huawei Digital Power Technologies Co., Ltd.
Absstract of: US20260229643A1
A heat exchanger includes a refrigerant substrate, a plurality of condenser plate heat exchangers, and a plurality of evaporator plate heat exchangers. Each condenser plate heat exchanger and each evaporator plate heat exchanger are arranged on a same side of the refrigerant substrate in a first direction. A side surface of each condenser plate heat exchanger that faces the refrigerant substrate includes a refrigerant inlet and a refrigerant outlet. A side surface of each evaporator plate heat exchanger that faces the refrigerant substrate includes a refrigerant inlet and a refrigerant outlet. The refrigerant substrate includes two condensation refrigerant flow channels and two evaporation refrigerant flow channels.
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