Resumen de: MX2025008624A
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Resumen de: WO2024156670A1
The invention relates to a method for cleaning solid-state elements (8), such as grains of sand or dust particles, that may be found on a surface of a body (5), the cleaning method using at least one transducer (11) acoustically coupled to the body and comprising the steps of: - generating an electrical signal; - applying the electrical signal across the terminals of the transducer; - thereby producing an acoustic wave that propagates through the body, the acoustic wave being a surface wave or a Lamb wave and being such that, under the effect of the acoustic wave, the solid-state elements are moved over the surface of the body in order to be cleared from this surface.
Resumen de: AU2023426105A1
The outdoor photovoltaic system according to the invention has a plurality of photovoltaic modules (1) which are free of glass panes and have a bifacial design. Each photovoltaic module (1) has a stabilization layer (1.4) in order to make the photovoltaic module capable of resisting external forces and in order to make the photovoltaic module mechanically flexible. The photovoltaic system additionally has a plurality of posts (2) which are designed such that the posts can be anchored in the ground (4), wherein each of the photovoltaic modules (1) is arranged between a respective pair of posts (2).
Resumen de: EP4658024A1
The present disclosure provides a bifacial reflective gap film, including: a back bonding layer, an intermediate support layer, a front reflective structure, and a back reflective structure. The front reflective structure is disposed on one side of the intermediate support layer and includes a plurality of inverted V-shaped toothed members arranged side by side, and the front reflective structure is coated with a front reflective layer, the back reflective structure is disposed on the other side of the intermediate support layer, and the back bonding layer has a thickness not less than a height of the back reflective structure so that the back reflective structure is completely located in the back bonding layer. The present disclosure further provides a bifacial photovoltaic module with the bifacial reflective gap film.
Resumen de: EP4657696A1
A power converter, a power system, and a method for controlling the power converter are provided. The power converter includes a DC voltage conversion circuit, a DC-AC voltage conversion circuit connected to the DC voltage conversion circuit, a switching circuit and a controller communicatively connected to the DC voltage conversion circuit, the DC-AC voltage conversion circuit and the switching circuit. The DC voltage conversion circuit is configured for converting DC power outputted by a DC power supply to output converted DC power to the DC-AC voltage conversion circuit. The controller is configured for, when operation of the power grid is abnormal: controlling the switching circuit to disconnect the DC-AC voltage conversion circuit electrically from a power grid and a load, stopping operation of the DC-AC voltage conversion circuit and keeping operation of the DC voltage conversion circuit.
Resumen de: EP4657750A2
L'invention concerne un procédé d'alerte mis en œuvre par un dispositif électronique de supervision (200) connecté à un ou plusieurs dispositifs de production d'énergie (100). Le procédé comprend : une détermination, par un modèle de classification de cause de déviations prenant en entrée un historique de déviations entre une valeur représentative d'une prédiction d'une quantité d'énergie produite par ce ou ces dispositifs de production d'énergie et une valeur représentative d'une quantité d'énergie effectivement produite par ce ou ces dispositifs de production d'énergie, d'une occurrence d'une défaillance d'au moins un composant du ou des dispositifs de production d'énergie ; et une génération d'une alerte selon laquelle au moins un composant du ou des dispositifs de production d'énergie est défaillant.
Resumen de: EP4658028A1
A solar module includes a plurality of solar cells and a carrier plate. The carrier plate includes a front cover and a back cover. The plurality of solar cells are welded and connected in series to define a plurality of solar battery string groups. The plurality of solar cells are connected in series at a predetermined spacing distance therebetween in a first direction to form each of the plurality of solar battery string groups. A width of each of the plurality of solar cells in the first direction is a first length, a length of each of the plurality of solar cells in a second direction is a second length, and a ratio of the second length to the first length is greater than 10. The plurality of solar battery string groups are pressed between the front cover and the back cover via a plurality of bus strips.
Resumen de: EP4657749A1
Ensemble de couverture (1) pour couvrir au moins un premier module de construction (10) ayant une toiture (10a), l'ensemble de couverture (1) comportant :- un premier panneau photovoltaïque (Pv1) pour capter de l'énergie solaire :- un premier support (S1) du premier panneau photovoltaïque (Pv1), le premier panneau (Pv1) définissant une partie d'une surface de couverture au-dessus de la toiture (10a).Le premier support (S1) comporte une pluralité de poteaux (S1a, S1b, S1c, S1d) pour supporter le premier panneau (Pv1), un garde-corps (G) porté par certains au moins des poteaux (S1a, S1b, S1c, S1d) présente une lisse supérieure (G1) définissant une limite périphérique d'une zone centrale (Zc) de captation d'énergie où se trouve le premier panneau photovoltaïque (Pv1).
Resumen de: EP4658029A1
The present application provides a solar cell, including: a silicon substrate, and a plurality of fingers formed on a surface of the silicon substrate. The silicon substrate is doped with antimony; and when a grid line density of fingers with the same polarity on a unit length in a direction perpendicular to the plurality of fingers is n/cm and a concentration of antimony in the silicon substrate is a atom/cm<3>, n and a meet the following relationship: n≥35-klg a, where k is less than or equal to 2. The present application further provides a photovoltaic module formed by the solar cell provided in the present application.
Resumen de: EP4656113A1
The present invention provides a sweeping robot, which belongs to the technical field of household appliances. The sweeping robot includes a main body (1), a first cleaning mechanism (2), and a second cleaning mechanism (3). The first cleaning mechanism (2) is connected to the main body (1) and is located below the main body (1), and the first cleaning mechanism (2) is used to clean the floor. The second cleaning mechanism (3) is rotatably connected to the main body (1), and the second cleaning mechanism (3) has a first state and a second state. In the first state, the second cleaning mechanism (3) retracts relative to the side of the main body (1). In the second state, the second cleaning mechanism (3) protrudes relative to the side of the main body (1).
Resumen de: EP4656623A1
This application discloses an ambipolar molecule, a preparation method thereof, and an application thereof. The chemical structure general formula of the ambipolar molecule provided by this application is represented by formula I:where R includes a Lewis base group, X<sub>1</sub>, X<sub>2</sub>, X<sub>3</sub>, X<sub>4</sub>, and X<sub>5</sub> each include at least one of a hydrogen atom and a halogen atom, X<sub>1</sub>, X<sub>2</sub>, X<sub>3</sub>, X<sub>4</sub>, and X<sub>5</sub> are not simultaneously hydrogen, and n is an integer greater than or equal to 1. The ambipolar molecule of this application simultaneously possesses a Lewis acid group and a Lewis base group, enabling it to passivate two types of defects at perovskite grain boundaries, namely undercoordinated anions and undercoordinated cations. Thus, when used in perovskite materials, such an ambipolar molecule can significantly improve the conversion efficiency and stability of perovskite.
Resumen de: EP4656779A1
This application relates to a silicon wafer, where a concentration of an antimony element in the silicon wafer ranges from 4E+14 cm<sup>-3</sup> to 2E+16 cm<sup>-3</sup>, preferably ranges from 4.30E+14 cm<sup>-3</sup> to 1.9E+16 cm<sup>-3</sup>, and further preferably ranges from 4.45E+14 cm<sup>-3</sup> to 1.87E+16 cm<sup>-3</sup>; and a minority carrier lifetime of the silicon wafer is greater than or equal to 200 µs, preferably greater than or equal to 300 µs, and further preferably greater than or equal to 500 µs. This application further relates to another silicon wafer, where a concentration of an antimony element in the silicon wafer ranges from 4E+14 cm<sup>-3</sup> to 2E+16 cm<sup>-3</sup>, preferably ranges from 4.30E+14 cm<sup>-3</sup> to 1.9E+16 cm<sup>-3</sup>, and further preferably ranges from 4.45E+14 cm<sup>-3</sup> to 1.87E+16 cm<sup>-3</sup>; and a minority carrier lifetime of the silicon wafer is greater than or equal to 300 µs, preferably greater than or equal to 400 µs, and further preferably greater than or equal to 600 µs.
Resumen de: CA3256219A1
A photovoltaic distribution network system and a network configuration method therefor are provided. The photovoltaic distribution network system includes a distribution network control device, multiple photovoltaic devices and a router. The distribution network control device is configured to generate a device list including device information of to-be-configured devices, and transmit the device list and network configuration information to the to-be-configured devices. The to-be-configured device is configured to broadcast device information of the to-be-configured devices based on the network configuration information. The router is configured to receive the device information broadcast by the to-be-configured devices, and establish a communication connection with a first distribution network device among the to-be-configured devices based on device information of the first distribution network device. The first distribution network device is configured to receive device information broadcast by a to-be-configured device not in a communication connection, and establish a direct or indirect communication connection with the to-be-configured device not in the communication connection. With the method, the communication quality between the photovoltaic device and the router is improved, and the hardware cost of the photovoltaic distribution network system is reduced.
Resumen de: US2025350180A1
Systems to induce current flow in a circuit formed by intersecting molten metal streams are provided. The systems involve induction type electromagnetic pumps that produce each molten metal stream. In some embodiments, the current induced through the molten metal streams is induction current.
Resumen de: AU2025256149A1
One embodiment can provide a photovoltaic roof tile. The photovoltaic roof tile can include a transparent front cover, a transparent back cover, and a plurality of polycrystalline Si-based photovoltaic structures positioned between the front cover and the back cover. A 5 respective polycrystalline-Si-based photovoltaic structure has a front surface facing the front cover and a back surface facing the back cover. The photovoltaic roof tile can further include a paint layer positioned on a back surface of the back cover facing away from the front cover. A color of the paint layer substantially matches a color of the front surface of the respective polycrystalline-Si-based photovoltaic structure. One embodiment can provide a photovoltaic roof tile. The photovoltaic roof tile can include a transparent front cover, a transparent back cover, and a plurality of polycrystalline- Si-based photovoltaic structures positioned between the front cover and the back cover. A 5 respective polycrystalline-Si-based photovoltaic structure has a front surface facing the front cover and a back surface facing the back cover. The photovoltaic roof tile can further include a paint layer positioned on a back surface of the back cover facing away from the front cover. A color of the paint layer substantially matches a color of the front surface of the respective polycrystalline-Si-based photovoltaic structure. ct c t
Resumen de: CH721822A2
Die Erfindung betrifft ein U-Profil (11) zur Befestigung eines PV-Moduls (13) an einer Haltekonstruktion (15). Das U-Profil umfasst einen Basissteg (17) und einen ersten und zweiten an den Basissteg (17) anschliessenden Schenkel (19,21). Der zweite Schenkel (21) ist niedriger als der erste Schenkel (19). An der Aussenseite (23) des zweiten Schenkels (21) ist ein dritter Schenkel (25) befestigt, welcher höher als der zweite Schenkel (21) ist.
Resumen de: CH721825A1
Die Erfindung betrifft ein U-Profil (11) zur Befestigung eines PV-Moduls (13) an einer Haltekonstruktion (15). Das U-Profil umfasst einen Basissteg (17) und einen ersten und zweiten an den Basissteg (17) anschliessenden Schenkel (19,21). Der zweite Schenkel (21) ist niedriger als der erste Schenkel (19). An der Aussenseite (23) des zweiten Schenkels (21) ist ein dritter Schenkel (25) befestigt, welcher höher als der zweite Schenkel (21) ist.
Resumen de: WO2025245026A1
A method, including obtaining a plurality of components, including at least a frontsheet, solar cells, and a backsheet; positioning the plurality of components such that a first row of solar cells is above the backsheet, a second row of solar cells is above the backsheet, and the frontsheet is above at least one of the first row of solar cells or the second row of solar cells; and laminating the plurality of components to form a photovoltaic module. The photovoltaic module includes a first portion and a second portion, where the first portion of the photovoltaic module includes the first row of solar cells, where the second portion of the photovoltaic module includes the second row of solar cells, where the first portion of the photovoltaic module extends along a first plane, where the second portion of the photovoltaic module extends along a second plane, and where the second plane is offset from the first plane.
Resumen de: WO2025244301A1
The present invention provides a wire transfer device for a solar cell, an apparatus and a method for manufacturing a solar module. The wire transfer device for a solar cell comprises: a base plate on which a wire for a solar cell having a compressed part is disposed; a loading unit for loading the wire and moving the wire to the base plate; a jig unit disposed above the base plate to overlap the wire; an alignment unit for applying force to the jig unit so that the jig unit aligns the wire for a solar cell on the base unit; and an unloading unit for discharging the wire for a solar cell aligned with the jig unit.
Resumen de: WO2025244297A1
The present invention relates to a solar power generation apparatus capable of, by collecting light regardless of the position of the sun and generating power with a plurality of solar panels arranged three-dimensionally, maximizing power production compared to the installation area, improving solar power generation efficiency, and generating more power even in a narrow place restricted by topographical factors or surrounding buildings and, more specifically, a solar power generation apparatus comprising: a light collecting unit (1) having an inner reflective surface (13) in an elliptical shape with both ends opened in the long axis direction; and a solar array unit (2) having an inner space surrounded by a plurality of solar panels (21) and connected to the light collecting unit (1) to generate power with sunlight incident through the light collecting unit (1).
Resumen de: WO2025244161A1
The present invention relates to a high-efficiency lighting device and, particularly, to a high-efficiency lighting device comprising: a lighting main body which has, therein, an LED module for emitting light downward, and into which air can be introduced from the outside and from which air can be discharged toward the outside; and a lighting heat power generation structure which is provided in the lighting main body and generates electric energy by using heat generated from the LED module, wherein the lighting heat power generation structure comprises a heat collecting module, a main thermoelectric element, and a main cooling module. The heat collecting module includes: a first heat collecting plate formed to have a size and shape corresponding to at least the LED module and provided to be in contact with the top surface of the LED module; and a second heat collecting plate formed to have a size corresponding to at least the first heat collecting plate, provided above the first heat collecting plate to receive heat directly or indirectly from the first heat collecting plate, and having a top surface being in contact with one surface of the main thermoelectric element.
Resumen de: US2025361246A1
The present disclosure relates to an organic electroluminescent material having a structural formula as shown in formula (A) or (B). Based on a conventional B-N resonance structure, in such material, an aromatic ring that does not participate in the resonance is fixed to a resonance ring by means of a dimethyl-substituted methylene group to form a larger rigid structure, thereby decreasing non-radiative vibration, reducing delayed fluorescence lifetime and reducing efficiency roll-off. Moreover, the introduction of the dimethyl-substituted methylene distorts the B-N planar skeleton, which can reduce fluorescence quenching at high concentrations, thereby obtaining relatively high efficiency. In addition, when Cy1 and Cy2 are different, especially after a heteroatom is introduced, this type of asymmetric structure can further distort the molecular plane, reduce film aggregation and quenching, and achieve a higher current efficiency.
Resumen de: US2025361008A1
A drone deployable modular system for remote solar energy generation utilizes remote-controlled multi-rotor drones configured to deliver and maintain modular heliostat units for assembly into heliostat fields in remote locations. The drone deployable modular heliostat unit may include a frame that supports at least one deployable, mirrored surface controlled by a heliostat driver. In one embodiment, the deployable, mirrored surface is a Mylar film tensioned over a mirror frame portion supported and controlled by the heliostat driver to orient a working face of the mirrored surface in various positions. The drone deployable modular heliostat unit may include a deployable stand arrangement and/or an anchor system. The modular heliostat units May be configured to be deployed in heliostat fields in a generally peripheral arrangement to provide reflected solar energy to a centrally located concentrating solar collector/energy utilization system.
Nº publicación: US2025360461A1 27/11/2025
Solicitante:
AIRBUILD INC [US]
Airbuild Inc
Resumen de: US2025360461A1
A carbon sequestration device configured to remove carbon dioxide from environmental air in an exterior environment has a housing forming a concave region with an open top, and a panel covering the open top. At least a portion of the panel is light-transmitting and also includes at least one solar cell. The panel and concave region together form an interior chamber configured to contain water and algae. The device also has an environmental air inlet formed in the housing for receiving pressurized environmental air from the exterior environment, as well as a temperature sensor in thermal communication with the interior chamber to sense the temperature in the interior chamber. The device also has a thermal regulator in thermal communication with the interior chamber. The thermal regulator is configured to control the temperature in the interior chamber as a function of the temperature sensed by the temperature sensor.