Abstract: The present application provides a sealing member, a battery, and an electrical apparatus. The sealing member includes a main body and a securing structure disposed on the main body. The securing structure is connected to a positioning structure on a member to be sealed to secure the sealing member on the member to be sealed. A surface of the securing structure facing the member to be sealed is provided with a recess, and the recess is recessed in a direction away from the positioning structure to prevent the sealing member from being fitted reversely. The sealing member provided by the present application can prevent the sealing member from being fitted reversely.

Abstract: Embodiments of the present application relate to the technical field of batteries, and in particular relates to a battery, an electric device, and a production method and a manufacturing die of the battery. The battery includes a frame body, a plurality of battery cells, and a bonding agent, where the frame body is provided with an accommodating cavity, and the accommodating cavity is provided with an opening in a first direction; the plurality of battery cells are arranged in the accommodating cavity, and electrode terminals of the plurality of battery cells face towards the opening; and the bonding agent is arranged in the accommodating cavity, and the bonding agent is used to connect the plurality of battery cells and the frame body. The battery provided by the present application can prevent or reduce a relative displacement among battery cells, and improve the electrical connection stability of the battery.

Abstract: The present application relates to a method for manufacturing a solar cell. In the method, a wafer including a substrate and a doped conducting layer is provided. A doped conducting layer is disposed at least on the first surface and the portion of the first side surface, thereby covering the textured structure. A passivating contact layer is formed on the second surface of the substrate. A first passivation layer is formed on the doped conducting layer. The first passivation layer covers the first surface and at least the portion of the first side surface, thereby covering at least the doped conducting layer. A second passivation layer is formed on the passivating contact layer. The second passivation layer covers the second surface, thereby covering the passivating contact layer.

Abstract: Excess electric energy or unstable electric energy in a renewable energy power generation device is processed through a water electrolysis device for hydrogen production to generate hydrogen and oxygen for energy storage, and the hydrogen can be output to an external demand end or generate green hydrogen and green ammonia for energy storage and utilization. The embodiment is further provided with a hydrogen-oxygen combustion device and a turbine power generation device, wherein the turbine power generation device can select a high-temperature and high-pressure gas output from the hydrogen-oxygen combustion device to generate electricity, or select a normal-temperature and high-pressure oxygen directly output from an oxygen storage unit to generate the electricity so that the generated electric energy can be output to a grid-connected end or to the water electrolysis device for hydrogen production and a liquid air separation device.

Abstract: By arranging a liquid ammonia supply portion, a gasification portion, an ammonia decomposition portion, a hydrogen storage portion, and a gas-turbine power generation set connected in sequence, the liquid ammonia outputted by the liquid ammonia supply portion is gasified in the gasification portion to form gaseous ammonia. The gaseous ammonia is delivered to the ammonia decomposition portion and decomposed into a hydrogen-mixed gas containing hydrogen, nitrogen and gaseous ammonia. The hydrogen-mixed gas is stored in the hydrogen storage portion. The hydrogen storage portion stably outputs the hydrogen-mixed gas to the gas-turbine power generation set. The gas-turbine power generation set uses hydrogen as a fuel, and hydrogen is obtained by ammonia decomposition. The power generation system uses liquid ammonia as a fuel supply. The gas-turbine power generation set can simultaneously combust and utilize the ammonia that has not been completely decomposed to generate no “carbon”.

Abstract: Provided are a battery and an electrical apparatus. The battery comprises: a case for accommodating battery cells; a first insulating component disposed in the case and sleeved on the battery cells, the first insulating component comprising a first substrate and a first extending portion extending from a surface of the first substrate toward the battery cells, and a second extending portion extending from an outer edge of the first substrate toward the battery cells, the first extending portion is used to position the battery cells, and an extension length of the second extending portion is greater than an extension length of the first extending portion.

Abstract: The embodiment of the present application relates to the field of battery, and in particular relates to a battery, an electric apparatus, and a method for producing a battery. The battery of the present application includes: a battery cell; a box body configured for accommodating the battery cell and comprising a sleeve, and a first end cover and a second end cover for sealing both ends of the sleeve in a height direction respectively; a first insulating member, at least part of the first insulating member being located between the first end cover and the battery cell; and a second insulating member, at least part of the second insulating member being located between the second end cover and the battery cell; where an inner wall of the sleeve is provided with a fixing portion configured to fix the first insulating member and the second insulating member.

Abstract: The application relates to a battery pack case and a battery pack. The battery pack case includes: a bottom plate and a side plate connected with the bottom plate, the bottom plate and the side plate surround to form an accommodating portion configured to accommodate a unit cell; the bottom plate is provided with a plurality of first grooves and a plurality of second grooves opening toward the accommodating portion, the plurality of first grooves are spaced apart from each other, the plurality of second grooves are spaced apart from each other, and the first grooves and the second grooves are arranged to cross each other. The bottom plate of the battery pack itself has good rigidity, is not prone to warp deformation, and can prevent the overflow of structural glue from contaminating the wiring harness or electrical components.

Abstract: The present application relates to a method for manufacturing a solar cell. In the method, a wafer including a substrate and a doped conducting layer is provided. A doped conducting layer is disposed at least on the first surface and the portion of the first side surface, thereby covering the textured structure. A passivating contact layer is formed on the second surface of the substrate. A first passivation layer is formed on the doped conducting layer. The first passivation layer covers the first surface and at least the portion of the first side surface, thereby covering at least the doped conducting layer. A second passivation layer is formed on the passivating contact layer. The second passivation layer covers the second surface, thereby covering the passivating contact layer.

Abstract: The present disclosure relates to a solar battery including a first cell, and a second cell, and a first charge transport layer, a transparent conductive layer, a second charge transport layer and a polysilicon layer are disposed between the first photoelectric conversion layer of the first cell and the second photoelectric conversion layer of the second cell, and the second charge transport layer is disposed between the polysilicon layer and the transparent conductive layer, and the charge transport property of the second charge transport layer is the same as that of the polysilicon layer. In the solar battery of the present disclosure, a first charge transport layer, a transparent conductive layer, a second charge transport layer and a polysilicon layer are sequentially arranged between the first photoelectric conversion layer and the second photoelectric conversion layer.

Abstract: The present application relates to a solar cell and a method for manufacturing same, a photovoltaic module, and a photovoltaic system. The solar cell includes a substrate, a doped conducting layer, a first passivation layer, a passivating contact layer, and a second passivation layer. At least a first surface and a portion of a first side surface of the substrate include a textured structure. The doped conducting layer is disposed at least on the first surface and the first side surface to cover the textured structure. The first passivation layer is stacked on the doped conducting layer and covers the first surface and the first side surface to cover the doped conducting layer. The passivating contact layer is disposed on a second surface of the substrate. The second passivation layer is stacked on the passivating contact layer and covers the second surface to cover the passivating contact layer.

Abstract: The present application relates to a method for manufacturing a solar cell. In the method, a wafer including a substrate and a doped conducting material layer is provided. A first surface and a portion of a first side surface of the substrate include a textured structure. The doped conducting material layer covers the textured structure. A passivating contact material layer is formed on each surface of the wafer. The wafer formed with the passivating contact material layer is cut along the thickness direction of the substrate to form a sub-wafer, so as to form a doped conducting layer. The passivating contact material layer is etched to form a passivating contact layer. A first passivation layer is formed on the doped conducting layer, and further covers at least a portion of a cut edge side surface which is a side surface of the sub-wafer formed by cutting the wafer.

Abstract: The application provides a solar cell, a manufacturing method, a photovoltaic device and a photovoltaic system. The solar cell includes a substrate, a doped conducting layer, a first passivation layer, an anti-reflection layer, a passivation contact layer, and a second passivation layer. The substrate includes opposite first and second surfaces, and side surfaces between the first and second surfaces. The doped conducting layer and the first passivation layer are sequentially stacked on the first surface. The anti-reflection layer is stacked on the first passivation layer and covers the first surface to cover the first passivation layer. The passivation contact layer is stacked on the second surface. The second passivation layer is stacked on the passivation contact layer and covers the second surface to cover the passivation contact layer. The anti-reflection layer or the second passivation layer covers at least part of at least one side surface of the substrate.

Abstract: A storage apparatus includes a controller and a storage medium. The storage medium includes a command decoder and a plurality of storage units. The controller is connected to the command decoder of the storage medium. The controller is configured to send a first processing command to the command decoder of the storage medium, where the first processing command includes first information and second information, the first information indicates a processing manner, and the second information indicates a data length of data to be processed.

Abstract: The present disclosure provides a solar cell including a substrate, a first emitter, a second emitter, an insulating spacing structure, a first electrode, and a second electrode. The substrate includes a front surface and a back surface opposite to each other. The first emitter and the second emitter are disposed on the back surface of the substrate. The first electrode is disposed on a side of the first emitter away from the substrate, and the first electrode is electrically connected to the first emitter. The second electrode is disposed on a side of the second emitter away from the substrate, and the second electrode is electrically connected to the second emitter. The insulating spacing structure is disposed between the first emitter and the second emitter, and the first emitter and the second emitter are spaced from each other by the insulating spacing structure.

Abstract: A laminated passivation structure of solar cell and a preparation method thereof are disclosed herein. The laminated passivation structure of solar cell includes a P-type silicon substrate, a first dielectric layer, a second dielectric layer, a third dielectric layer and a fourth dielectric layer sequentially arranged on the back surface of the P-type silicon substrate from inside to outside. The preparation method includes generating a first dielectric layer on the back surface of the P-type silicon substrate, and then sequentially depositing a second dielectric layer, a third dielectric layer and a fourth dielectric layer on the first dielectric layer.

Abstract: A solar cell and preparation method thereof. The solar cell includes a silicon substrate having first or second polarity, where the substrate includes first and second sides opposite to each other; a first passivation structure on first side of the substrate, where a portion of first structure farthest from the substrate has first polarity and a position where first structure is located is first electrode region; a second passivation structure on a side of first structure away from the substrate and in at least second electrode region, where a portion of second structure farthest from the substrate has second polarity and second structure has a process temperature lower than first structure; and a first electrode in first electrode region on a side of second structure away from the substrate, and a second electrode in second electrode region on a side of second structure away from the substrate.

Abstract: According to various embodiments, a gaming controller for a mobile device includes a first hardware gaming controller configured to be manipulated by a user’s left thumb and/or fingers to generate a left controller input; and a second hardware gaming controller configured to be manipulated by a user’s right thumb and/or fingers to generate a right controller input. The first hardware gaming controller is mechanically securable to a side portion of a housing, and the second hardware gaming controller is mechanically securable to an opposing side portion of the housing. One of the first hardware gaming controller and the second hardware gaming controller is a primary game controller configured to combine the left controller input and the right controller input into a single controller input representation for providing to the mobile device.

Abstract: A case, a battery, a power consuming device, and a method for assembling a case are provided. The case includes a first case body, an accommodating groove, a sealant, and a second case body. The first case body is provided with an opening. The accommodating groove is provided in a peripheral direction of the opening. The sealant is accommodated in the accommodating groove. The second case body is provided with a peripherally-arranged joint part. The joint part is configured to extend into the accommodating groove and be joined with the sealant when the second case body covers the opening, so as to form a sealed connection between the first case body and the second case body. The accommodating groove can limit the sealant, the sealant does not shift in the accommodating groove, and a sealing failure is less likely to occur, thus ensuring the sealing performance of the sealant.

Abstract: A laminated passivation structure of solar cell and a preparation method thereof are disclosed herein. The laminated passivation structure of solar cell includes a P-type silicon substrate, a first dielectric layer, a second dielectric layer, and a third dielectric layer sequentially arranged on the back side of the P-type silicon substrate from inside to outside. The preparation method includes generating a first dielectric layer on the back surface of the P-type silicon substrate, and then sequentially depositing a second dielectric layer and a third dielectric layer on the first dielectric layer.