Abstract: Electrodes for batteries, active stacks for batteries, batteries and methods of fabrication are described where the electrode has an LiCoO2 (LCO) electrode layer with a (110), (101), (104), or (003) crystallographic orientation or combinations thereof.

Abstract: An amplifying circuit includes a first transistor, a second transistor, and a switching circuit. A control terminal of the first transistor is coupled to an input terminal of the amplifying circuit, and a first terminal of the first transistor is coupled to a first reference end. The input terminal of the amplifying circuit receives a first radio frequency (RF) signal. A first terminal of the second transistor is coupled to a second terminal of the first transistor, and a second terminal of the second transistor is coupled to an output terminal of the amplifying circuit. The output terminal of the amplifying circuit outputs an amplified signal. The first transistor amplifies the first RF signal to generate a second RF signal. The switching circuit performs a switching operation to transmit the second RF signal to one of the first terminal and the control terminal of the second transistor.

Abstract: A ringing suppression circuit applicable to a transmitter module in a controller area network is provided, which includes a CANH driver circuit, a CANL driver circuit, a first operable circuit transmitting a CAN high signal, a second operable circuit transmitting a CAN low signal, and a termination component connected between the first operable circuit and the second operable circuit. By sequentially turning on a first, second, and third transistor of the CANH driver circuit and sequentially turning on a fourth, fifth, and sixth transistor of the CANL driver circuit, conventional ringing phenomenon is effectively suppressed. A plurality of transistors may also be configured for implementing the CANH driver circuit or the CANL driver circuit for further reducing a glitch. The transmitter module employing the proposed ringing suppression circuit is able to pull the bus to a recessive state and meanwhile suppress the ringing and improve the maximum data rate.

Abstract: A recording-medium processing apparatus includes: a mobile body that supports a to-be-pressed portion against which a first end portion of a recording medium that is to undergo a folding process is pressed, the mobile body allowing the to-be-pressed portion to move relative to the mobile body; and a moving mechanism that includes a driving source, and moves the to-be-pressed portion relative to the mobile body.

Abstract: Provided are a wireless communication method and a terminal device. The wireless communication method includes: a first terminal device transmits M CSI-RSs to a second terminal device in a first slot using at least one spatial domain transmission filter, wherein the M CSI-RSs are configured for selecting a target spatial domain transmission filter, or the M CSI-RSs are configured for selecting a target spatial domain reception filter, and each of the M CSI-RSs occupies N time domain symbol(s), M and N are positive integers, and M>1.

Abstract: Disclosed herein is an apparatus for identifying a movement. The apparatus including an indoor camera having a field of view inside a vehicle and obtain image data; an indoor radar having a sensing area inside the vehicle and obtaining radar data; a controller including a first processor and a second processor, the first processor obtaining location information of a region including a driver's hand based on processing gesture image data of the driver obtained from the indoor camera; and a second processor identifying the driver's gesture by processing the location information and gesture radar data of the driver obtained from the indoor radar. The first controller determining a region of interest (ROI), to which a driver's gaze is directed, among a plurality of predetermined control target regions inside the vehicle from the image data of the driver obtained from the indoor camera and transmitting a command corresponding to the identified gesture to a control target corresponding to the ROI.

Abstract: A semiconductor structure including a substrate, buried word line structures, a transistor structure, a first hard mask layer, hard mask marks, a second hard mask layer, and contacts. The substrate includes a first region and a second region. The buried word line structures are located in the substrate in the first region. The transistor structure is located on the substrate in the second region. The first hard mask layer is located on the transistor structure. The first hard mask layer has recesses. The hard mask marks are located in the recesses. The second hard mask layer is located on the substrate in the first region. The second hard mask layer has openings. The contacts are located in the openings.

Abstract: A control box for charging includes: a first connector connected to a supply cable having a plug, which is connected to an external power source, at a first end, and having a plurality of connection pins; and a control board having a first switch mounted therein and configured to control the first switch in a first state such that an input signal is transmitted to an output terminal of the control box when power is supplied in a first mode in which a signal is input from the first connector. In particular, the control board is configured to control the first switch in a second state to transmit and receive signals to and from a vehicle connected to the output terminal when power is supplied in a second mode in which a signal is not input from the first connector.

Abstract: Embodiments of the present application provide a wireless communication method and related apparatuses. The wireless communication method includes: transmitting, by a first terminal device, M channel state information reference signals (CSI-RSs) to a second terminal device through at least one spatial domain transmission filter; wherein the M CSI-RSs are configured to select a target spatial domain transmission filter; wherein the M CSI-RSs correspond to a plurality of CSI-RS resources in a target CSI-RS resource set, and M is a positive integer.

Abstract: In an embodiment, an antenna subsystem includes a sparse receive antenna and an electronically steerable transmit antenna. The sparse receive antenna includes an array of electronically steerable receive elements each configured to receive a respective signal having a wavelength and each spaced apart from each adjacent one of the receive elements by a respective first distance that is more than one half of the wavelength, has an aperture, and is configured to generate a receive beam pattern. And the electronically steerable transmit antenna includes an array of transmit elements each configured to radiate a respective signal having the wavelength and each spaced apart from each adjacent one of the transmit elements by a respective second distance that is less than one half of the wavelength, has an aperture that is significantly smaller than the aperture of the sparse receive antenna, and is configured to filter, spatially, the receive beam pattern.

Abstract: The present disclosure relates to a shield rotation controlling means. The shield rotation controlling means according to the present disclosure comprises: a support member (100) supporting a shield (20) and rotating about a base member (300); and a stopping means (200) coupled to the support member (100) and provided with elasticity in the direction of the base member (300), the support member (100) stopped by means of the elasticity of the stopping means (200).

Abstract: A digital-to-analog converter includes an amplifier, a voltage relaxation circuit, a base current source, a first weighting current source, and at least one second weighting current source. The amplifier receives a reference voltage and a feedback voltage, and generates an output voltage according to the reference voltage and the feedback voltage. The base current source is coupled to an output end of the amplifier through the voltage relaxation circuit, and is configured to generate an adjustable base current. The first weighting current source generates an adjustable first weighting current between a reference ground end and one of a current load and the voltage relaxation circuit according to a first bit of input data. The second weighting current source generates at least one second weighting current according to at least one second bit of the input data.

Abstract: Proposed is a separator tension control device for stacking a separator of a secondary battery, the device including a separator stacking member (110) having a separator stacking unit (112) installed on an upper surface of a table (111) such that negative and positive plates of a secondary battery are alternately stacked by a separator (132), and a fixing plate (114) which allows a separator supply member (130) and a separator dancer member (150) to be installed thereon, the separator supply member (130) installed on one side of the separator stacking unit (112) so as to supply the separator (132) to the separator stacking unit (112), and the separator dancer member (150) installed on an upper side of the separator stacking member (110) such that the separator (132) supplied from the separator supply member (130) is supplied with constant tension.

Abstract: Embodiments of the present disclosure provide a wireless communication method, a terminal device, a network device, and a chip. the method includes a terminal device determining a precoding matrix from a preconfigured codebook based on one or more Transmit Precoding Matrix Indicator (TPMI) indicated by a network device; wherein the precoding matrix includes N rows, N is a multiple of 2 and greater than 4, the precoding matrix satisfies a first condition or a second condition, the first condition is that each column of the precoding matrix includes two non-zero elements, and the second condition is that each column of the precoding matrix includes four non-zero elements; employing the precoding matrix to precode data; and transmitting precoded data.

Abstract: Disclosed herein method and apparatus for detecting changes between heterogeneous image data for identifying disaster damage. The method includes obtaining observation image data of an event occurrence region and reference image data that occurs before an event and has a heterogeneous type of an image from the observation image data; processing the observation image data and the reference image data according to an attribute of the observation image data and preprocessing the observation image data and the reference image data to determine whether or not there is an exceptional object to be excluded from a change analysis in the processed observation image data and the processed reference image data based on an event type and to process the exceptional object; and detecting a change area of the event occurrence region based on the preprocessed observation image data and the preprocessed reference image data.

Abstract: A wireless communication method and device are provided. In the method, a second device sends a first trigger frame to at least one sensing and response device. The first trigger frame is used for triggering the at least one sensing and response device to measure a target type.

Abstract: A method for forming a semiconductor structure for a memory device, including providing a substrate comprising a memory cell region and a peripheral circuit region defined thereon, and the peripheral circuit region comprising at least an active region formed therein, forming at least a buried gate structure in the active region, and an insulating layer being formed on a top of the buried gate structure, and forming a conductive line structure on the buried gate structure, and the conductive line structure and the buried gate structure being physically spaced apart and electrically isolated from each other by the insulating layer.

Abstract: A resistive memory device includes a dielectric layer, a first via connection structure, a first stacked structure, and a first insulating structure. The first via connection structure is disposed in the dielectric layer. The first stacked structure is disposed on the first via connection structure and the dielectric layer. The first insulating structure penetrates through a portion of the first stacked structure in a vertical direction and divides the first stacked structure into a first cell unit and a second cell unit. The first cell unit and the second cell unit include a first shared bottom electrode, and the first insulating structure is disposed directly on the first shared bottom electrode.

Abstract: An information transmission method, a terminal device and a network device are provided. The method includes: a terminal device receives a first synchronization signal block and a physical downlink control channel sent by a network device in a first time slot or a first mini-slot, the first time slot or the first mini-slot includes N symbols, the first synchronization signal block occupies M consecutive symbols in the first time slot or the first mini-slot, the first synchronization signal block includes a synchronization signal and a physical broadcast channel, M and N are positive integers, and M?N.

Abstract: A terminal device, a unified data management network element, and a first network element are provided. The terminal device includes a processor and a memory. The memory is configured to store a computer program, and the processor is configured to call and run the computer program stored in the memory to perform: determining, by the terminal device, a first Public Land Mobile Network PLMN according to first slice information, and accessing the first PLMN.