Abstract: A dynamic D flip-flop with an inverted output involves an input end (101) used for receiving input data; an output end (102) used for providing output data to respond to the input data; a clock signal end (103) used for receiving a clock signal; a first latch (104) used for latching the input data from the input end (101) and performing inverting transmission on the input data under the control of the clock signal; a second latch (105) used for latching data from the first latch (104) and performing inverting transmission on the data latched by the first latch (104) under the control of the clock signal; and an inverter (106) used for performing inverting output on the data received from the second latch (105), the first latch (104), the second latch (105), and the inverter (106) being sequentially connected in series between the input end and the output end.

Abstract: A battery cell includes a shell, an electrode terminal, and a blocking member. The shell includes a wall portion having a lead-out hole. The electrode terminal includes an insertion portion and a flange portion connected in an axial direction of the electrode terminal. The insertion portion is in the lead-out hole, the flange portion is at the side of the insertion portion away from the inside of the shell in a radial direction of the electrode terminal, an outer peripheral surface of the flange portion is partially beyond an outer peripheral surface of the insertion portion, and the electrode terminal has a recessed portion arranged in the axial direction. The blocking member blocks the recessed portion and includes a body that covers the side of the flange portion away from the insertion portion and connected to the flange portion. The battery cell is electrically connected externally through the blocking member.

Abstract: Disclosed are a battery cell, a battery, and an electric apparatus. The battery cell includes: a housing having an opening; and an end cover assembly for closing the opening, where the end cover assembly includes an electrode terminal. An electrode assembly, an adapter, and an insulating member are also disposed in the housing. The electrode assembly includes an electrode tab, the adapter is configured to electrically connect the electrode tab and the electrode terminal, and the insulating member is configured to insulate the adapter from the housing. The battery cell, the battery, and the electric apparatus provided in this application can mitigate the thermal failure of the battery cell caused by thermal diffusion during the use of the battery cell, thereby improving the safety performance of the battery cell and the battery to which the battery cell is applied.

Abstract: Provided are a battery cell, a battery and an electricity consumption device. The battery cell includes: an electrode assembly which includes a body portion and a tab extending from the body portion; a housing configured to accommodate the electrode assembly and provided with a first opening; a first end cover configured to cover the first opening; and a tab support located between the first end cover and the body portion and configured to support the tab, wherein the first end cover is provided with a first clamping structure, the tab support is provided with a second clamping structure, and the first clamping structure is clamped with the second clamping structure. By means of the technical solutions in the embodiments of the present application, the reliability of the battery cell can be improved.

Abstract: Provided are a battery cell, a battery, and a power consuming device. The battery cell includes: a shell including a plurality of side plates that enclose an end opening of the shell; an electrode assembly arranged in the shell; and an end cap arranged at the end opening, the end cap including a plurality of edge portions that are fixedly connected to an end surface of the end opening and respectively correspond to the plurality of side plates, wherein the plurality of side plates include a first side plate and a second side plate with different thicknesses, and the plurality of edge portions include a first edge portion corresponding to the first side plate and a second edge portion corresponding to the second side plate.

Abstract: An end cover includes: a cover body and a reinforcing portion. The cover body is configured to close an opening of a case of the battery cell, and the cover body has a first surface along a thickness direction of the cover body. The reinforcing portion protrudes from the first surface, and the reinforcing portion is configured to reinforce the cover body.

Abstract: Provided are a battery cell, battery, and electrical device, relating to the technology field of batteries, which include a shell, an electrode assembly, and an end cap. The shell is provided with an opening; the electrode assembly is accommodated within the shell; the end cap is arranged at one end of the shell along a first direction and closing the opening, wherein the end cap include a cover body and a connecting part; the connecting part is arranged around an outer side of the cover body; and the connecting part is sealingly connected to the shell. Along the first direction, the cover body is provided with a first outer surface away from the electrode assembly; the first outer surface is a surface of the end cap farthest from the electrode assembly; and the connecting part is closer to the electrode assembly than the first outer surface.

Abstract: The present disclosure relates to clock circuits, computing chips, hash boards and data processing devices. A clock circuit comprises M stages of clock drive circuits that are connected in series, M being an integer that is no less than 2, wherein N inverters connected in series are arranged between an input port and an output port of each stage of the M stages of clock drive circuits, N being an odd number that is no less than 3. The clock circuit may provide clock signals with excellent performance.

Abstract: A D flip-flop, a processor including the D flip-flop, and a computing apparatus. A D flip-flop is provided, including: an input stage configured to receive a flip-flop input; an output stage configured to output a flip-flop output; an intermediate node disposed between an output of the input stage and an input of the output stage, where the output stage is configured to receive a signal at the intermediate node as an input; an intermediate stage configured to receive the output of the input stage and provide the output to the intermediate node; and a feedback stage configured to receive the flip-flop output and provide a feedback to the intermediate node, where the feedback stage assumes a logic-high state, a logic-low state, and a high-impedance state.

Abstract: A silicon wafer transfer auxiliary device includes blowpipes disposed on a side of a sorting wheel. Nozzles of the blowpipes are inclined towards the side of the sorting wheel. The blowpipes are capable of spraying liquid or gas towards a silicon wafer during transfer to increase an adsorption force between the silicon wafer and the sorting wheel and to successfully complete a turning of the silicon wafer from a vertical direction to a side close to the sorting wheel.

Abstract: A battery cell includes a shell, an electrode terminal, an electrode assembly, a current collector component, and an insulating member. The shell has a wall portion, and electrode terminal is provided on the wall portion. The electrode assembly is located inside the shell, and has a first tab. The current collector component is connected to the first tab and the electrode terminal. The insulating member is installed between the current collector component and the wall portion, and is used to insulate and isolate the current collector component and the wall portion. Along the thickness direction of the wall portion, the insulating member has a first surface facing and closest to the current collector component, and the projection of the outer edge of the current collector component is located within the first surface.

Abstract: A battery cell includes: an electrode assembly; and a housing, configured to accommodate the electrode assembly. An injection hole is created on a first wall of the housing. The electrode assembly includes a body portion. An orthographic projection of an opening, close to an interior of the housing, of the injection hole is staggered from an orthographic projection of the body portion on the first wall.

Abstract: A battery shell, a battery cell, a battery and an electrical device are provided. The battery shell has an accommodation cavity, the accommodation cavity includes a bearing bottom wall, a plurality of side walls and inner corner portions, and each inner corner portion is connected between the bearing bottom wall and the corresponding side walls, where the inner corner portions are provided with receding grooves in a concave manner.

Abstract: This application discloses an end cover assembly, a battery cell, a battery, and an electric apparatus. The end cover assembly is applied to the battery cell, including an end cover and an electrode terminal. The end cover is provided with a lead-out hole. The electrode terminal is mounted on the end cover, a portion of the electrode terminal passes through the lead-out hole, and a bottom surface of the electrode terminal extends out of the lead-out hole and is used to be fixed to an adapting component of the battery cell by welding. According to the end cover assembly of this application, when the end cover assembly is applied to the battery cell and connected to the adapting component of the battery cell, the adapting component that facilitates removal of metal shavings can be used when the electrode terminal is fixed to the adapting component by welding.

Abstract: This application discloses a method for processing a face image performed by an electronic device. In this application, when a camera component acquires a face image of a human being in response to a trigger operation, identification information can be read from a memory of the electronic device. The identification information uniquely corresponds to a quantity of all face images acquired by the camera component during a predefined time period. The identification information is embedded into the face image to obtain the face image carrying the identification information. The face image carrying the identification information is transmitted to a remote server for authenticating the human being using the identification information. Therefore, the security of the face image acquired by the camera component is improved, and the security of the face image transmission process is effectively ensured.

Abstract: The present application relates to a battery cell, a battery, a power consumption apparatus, and a manufacturing method and device of a battery cell. The battery cell includes: a shell comprising a wall part; an electrode assembly disposed within the shell; and an insulating member disposed between the electrode assembly and the wall part to isolate the wall part from the electrode assembly in an insulating manner. The insulating member is configured to elastically support the electrode assembly to buffer vibration of the electrode assembly within the shell.

Abstract: The present application provide a connection component, a battery cell, a battery, and an electric device. The connection component includes a body, a convex portion, a concave portion and a gap control portion, and the body includes a first surface and a second surface opposite to each other in a thickness direction thereof; and the gap control portion is configured to be when the associated connection component is stacked on the other connection component, said gap control portion is in contact with said the other connection component, so as to control a dimension of a gap D between the two connection components to be greater than 0.6H, wherein H is the height of the convex portion protruding from the first surface. According to the connection component provided by the present application, the gap between two adjacent connection components can be controlled when material is stuck.

Abstract: The present disclosure relates to a circuit unit, a logic circuit, a processor, and a computing apparatus. A circuit unit is provided, including: an output terminal (OUT); an output stage (105), configured to provide an output signal to the output terminal; a first node (A), to which an input of the output stage is connected; and a feedback stage (107) that receives the output signal at the output terminal and selectively provides feedback to the node. A logic circuit is further provided, including an input stage that receives a signal input, and the circuit unit. The first node receives a signal based on an output of the input stage.

Abstract: The present disclosure relates to a latch, a processor including the latch, and a computing apparatus. A latch with an inverted output is provided, including: an input stage configured to receive a latch input; an output stage configured to output a latch output; an intermediate node disposed between an output of the input stage and an input of the output stage, wherein the output stage is configured to receive a signal at the intermediate node as an input; and a feedback stage configured to receive the latch output and provide a feedback to the intermediate node, wherein feedback stage assumes a logic-high state, a logic-low state, and a high-impedance state, wherein the latch output is inverted from the latch input.

Abstract: A nuclide identification method, a system and an electronic device are provided, which relates to the field of nuclide identification. According to statistical characteristics, a background probability density function and a Compton probability density function in a ROI are determined. An energy Bayesian factor and a time Bayesian factor are determined based on energy and time interval information in a sequence of the nuclear detection events obtained by measurement. By combining the two factors, Compton plateau can be effectively identified and distinguished.