mhurhangee/patent-ind-claim-en huggingface dataset:
A document feeder device configured to turn by a hinge with respect to a reading unit which includes a reader configured to read an image on a sheet, the document feeder device comprising: a pressing plate arranged to press a sheet on the reading glass against the reading glass when the document feeder device is at a position closing the reading glass ; a conveying roller arranged to convey a sheet; a motor (M) arranged to rotate the conveying roller ; and an attachment part to which is attached communication means arranged to receive data from outside of the image reading device , wherein, in a direction perpendicular to the turning axis line direction of the hinge , the motor (M) is disposed on one side from a center of the document feeder device , and the attachment part is disposed on another side from the center of the document feeder device . a pressing plate arranged to press a sheet on the reading glass against the reading glass when the document feeder device is at a position closing the reading glass ; a conveying roller arranged to convey a sheet; a motor (M) arranged to rotate the conveying roller ; and an attachment part to which is attached communication means arranged to receive data from outside of the image reading device , wherein, in a direction perpendicular to the turning axis line direction of the hinge , the motor (M) is disposed on one side from a center of the document feeder device , and the attachment part is disposed on another side from the center of the document feeder device .
A cathode active material for a secondary battery, wherein the cathode active material is represented by Chemical Formula 1 below: [Chemical Formula 1] Li 1+a Ni 1-(x+y+z) Co x Al y Mn z M1 b O 2 where 0<x≤0.1, 0<y≤0.02, 0<z≤0.0006, 0≤a≤0.1, 0≤b≤0.1 and M1 is one or more elements selected from the group consisting of Al, Ni, Mn, Cr, Fe, Mg, Sr, V, Zn, W, Zr, B, Ba, Sc, Cu, Ti, Co, a rare earth element, and combinations thereof, characterized in that the cathode active material comprises: a secondary particle formed as a plurality of primary particles cohere and including a manganese oxide on a surface portion of each of the primary particles.
An antenna for a ground-penetration radar system, the antenna comprising: a housing defining a cavity having an opening , the cavity containing: a radiator on a first surface of a planar substrate , the radiator comprising a planar, bow-tie shaped conducting layer on or adjacent to the first surface of the substrate; wherein the antenna further comprises: a wear-block formed of a solid dielectric located between the radiator and the opening to the cavity for providing mechanical protection to the radiator, the wear-block abutting the radiator; and an absorber assembly located on an opposite side of the radiator from the opening, the absorber assembly comprising a microwave absorber and a first dielectric layer , wherein the first dielectric layer is located between the radiator and the microwave absorber. a radiator on a first surface of a planar substrate , the radiator comprising a planar, bow-tie shaped conducting layer on or adjacent to the first surface of the substrate; wherein the antenna further comprises: a wear-block formed of a solid dielectric located between the radiator and the opening to the cavity for providing mechanical protection to the radiator, the wear-block abutting the radiator; and an absorber assembly located on an opposite side of the radiator from the opening, the absorber assembly comprising a microwave absorber and a first dielectric layer , wherein the first dielectric layer is located between the radiator and the microwave absorber. a wear-block formed of a solid dielectric located between the radiator and the opening to the cavity for providing mechanical protection to the radiator, the wear-block abutting the radiator; and an absorber assembly located on an opposite side of the radiator from the opening, the absorber assembly comprising a microwave absorber and a first dielectric layer , wherein the first dielectric layer is located between the radiator and the microwave absorber.
A method for determining a resource of a communication by a terminal in a wireless communication system, the method comprising: receiving, from a base station, information indicating a minimum number of subframes for monitoring; determining a number of a plurality of subframes to be monitored based on the minimum number of subframes, the number of the plurality of subframes being greater than or equal to the minimum number of subframes for monitoring; determining the plurality of subframes to be monitored in a predetermined time interval based on the determined number of the plurality of subframes to be monitored; monitoring the plurality of subframes by measuring a sidelink-received signal strength indicator, S-RSSI, of a sidelink signal received in each of the plurality of subframes; determining, among the plurality of subframes, a subframe to be included in a set of subframes for a sidelink transmission, based on the S-RSSI measured in each of the plurality of subframes; and transmitting, to an upper layer of the terminal, information indicating the set of subframes for the sidelink transmission. receiving, from a base station, information indicating a minimum number of subframes for monitoring; determining a number of a plurality of subframes to be monitored based on the minimum number of subframes, the number of the plurality of subframes being greater than or equal to the minimum number of subframes for monitoring; determining the plurality of subframes to be monitored in a predetermined time interval based on the determined number of the plurality of subframes to be monitored; monitoring the plurality of subframes by measuring a sidelink-received signal strength indicator, S-RSSI, of a sidelink signal received in each of the plurality of subframes; determining, among the plurality of subframes, a subframe to be included in a set of subframes for a sidelink transmission, based on the S-RSSI measured in each of the plurality of subframes; and transmitting, to an upper layer of the terminal, information indicating the set of subframes for the sidelink transmission.
A method of data channel transmission, the method being executed by an apparatus and comprising: allocating available power to a data channel for transmitting data, after power has been allocated to active channels for communication; determining an amount of power allocated to the data channel ; determining a total amount of power the data channel requires for transmitting the data ; determining additional power the data channel requires as the total amount of power the data channel requires for transmitting the data less the amount of power allocated to the data channel; selecting an active channel for power stealing based on a selection algorithm, the active channel being selected in response to the data channel requiring additional power; and stealing power from the selected active channel and allocating the stolen power to the data channel, wherein stealing power comprises using a puncturing method whereby a single active channel provides the required additional power to the data channel during a portion of the data transmission and another single active channel provides the required additional power to the data channel during another portion of the data transmission. allocating available power to a data channel for transmitting data, after power has been allocated to active channels for communication; determining an amount of power allocated to the data channel ; determining a total amount of power the data channel requires for transmitting the data ; determining additional power the data channel requires as the total amount of power the data channel requires for transmitting the data less the amount of power allocated to the data channel; selecting an active channel for power stealing based on a selection algorithm, the active channel being selected in response to the data channel requiring additional power; and stealing power from the selected active channel and allocating the stolen power to the data channel, wherein stealing power comprises using a puncturing method whereby a single active channel provides the required additional power to the data channel during a portion of the data transmission and another single active channel provides the required additional power to the data channel during another portion of the data transmission.
A Leuconostoc mesenteroides CJLM181 strain deposited under accession No. KCTC 13042BP.
Cluster pack, comprising at least two containers , each having a container wall , wherein the two containers are connected to each other by an adhesive point, wherein in each case a container wall of a container exhibits in the region of the adhesive point or adjacent to the adhesive point a wall reinforcement in the form of a larger cross-section wall thickness, characterised in that the transition from the wall reinforcement to the container wall is configured as a tapering wall section.
A method of making Scanning Probe and Electron Microscope_probes, comprising: mounting a plurality of wire pieces to a rotatable stage ; rotating the stage with mounted wire pieces and simultaneously milling the plurality of wire pieces with an ion beam having an ion energy in the range of 1 to 3500 eV to produce the probe tips mounted to the stage ; wherein the rotating stage has an axis of rotation that is perpendicular to a top surface of the stage ; wherein the plurality of wire pieces are mounted so that the long axes of the wire pieces are approximately parallel to the central axis of rotation ; wherein the angle between the axis of rotation and the ion beam is from 5° to 70°; where the angle is defined with respect to the axis of rotation such that 0° is defined to be the angle if the ion beam originates from directly above the stage and the beam direction is parallel to the axis of rotation . mounting a plurality of wire pieces to a rotatable stage ; rotating the stage with mounted wire pieces and simultaneously milling the plurality of wire pieces with an ion beam having an ion energy in the range of 1 to 3500 eV to produce the probe tips mounted to the stage ; wherein the rotating stage has an axis of rotation that is perpendicular to a top surface of the stage ; wherein the plurality of wire pieces are mounted so that the long axes of the wire pieces are approximately parallel to the central axis of rotation ; wherein the angle between the axis of rotation and the ion beam is from 5° to 70°; where the angle is defined with respect to the axis of rotation such that 0° is defined to be the angle if the ion beam originates from directly above the stage and the beam direction is parallel to the axis of rotation .
An ultrasound alerting system comprising: an ultrasound transmitter having a transmission intensity configured to be detectable within a specified range , the ultrasound transmitter being configured to transmit at least one ultrasound signal at at least one specified frequency, wherein the at least one ultrasound signal is associated with at least one baby seat status of a baby seat in a vehicle, a controller associated with the baby seat and configured to generate the at least one ultrasound signal with respect to at least one seat baby status of the baby seat and to control the transmitter accordingly, an audio receiver configured to detect the at least one ultrasound signal when the audio receiver is within the specified range and to indicate failure to detect the at least one ultrasound signal, when the audio receiver is outside the specified range and after the detection thereof, to create a respective alert . an ultrasound transmitter having a transmission intensity configured to be detectable within a specified range , the ultrasound transmitter being configured to transmit at least one ultrasound signal at at least one specified frequency, wherein the at least one ultrasound signal is associated with at least one baby seat status of a baby seat in a vehicle, a controller associated with the baby seat and configured to generate the at least one ultrasound signal with respect to at least one seat baby status of the baby seat and to control the transmitter accordingly, an audio receiver configured to detect the at least one ultrasound signal when the audio receiver is within the specified range and to indicate failure to detect the at least one ultrasound signal, when the audio receiver is outside the specified range and after the detection thereof, to create a respective alert .
A content display method , comprising: determining a display extent for a display device ; determining the display device overscans; receiving a value indicative of a display mode from an executing application ; sending , to the executing application , a display buffer size value equal to the display extent when the display mode is a first mode; sending , to the executing application , a display buffer size value less than the display extent when the display mode is a second mode; sending , to the executing application , a first display buffer size value and a second display buffer size value when the display mode is a third mode, the first display buffer size value equal to the display extent and the second display buffer size value less than the display extent; receiving display buffer contents from the executing application ; scaling the display buffer contents to a size less than the display extent and causing the scaled display buffer contents to be centered in a frame buffer when the display mode is the first mode; causing the display buffer contents to be centered in the frame buffer when the display mode is the second mode; and causing the display buffer contents to be written to the frame buffer when the display mode is the third mode. determining a display extent for a display device ; determining the display device overscans; receiving a value indicative of a display mode from an executing application ; sending , to the executing application , a display buffer size value equal to the display extent when the display mode is a first mode; sending , to the executing application , a display buffer size value less than the display extent when the display mode is a second mode; sending , to the executing application , a first display buffer size value and a second display buffer size value when the display mode is a third mode, the first display buffer size value equal to the display extent and the second display buffer size value less than the display extent; receiving display buffer contents from the executing application ; scaling the display buffer contents to a size less than the display extent and causing the scaled display buffer contents to be centered in a frame buffer when the display mode is the first mode; causing the display buffer contents to be centered in the frame buffer when the display mode is the second mode; and causing the display buffer contents to be written to the frame buffer when the display mode is the third mode.
Device for handling bills , having a dispensing compartment for retrieving bills which comprises a depositing element that delimits the dispensing compartment on a first side, and a delimiting element that delimits the dispensing compartment on a second side; having a control unit , wherein the device comprises at least one first sensor unit for detecting an initializing position of the depositing element ; that the first sensor unit is configured to generate a first sensor signal and to transmit the latter to the control unit ; that the control unit is configured to actuate a first drive unit for moving the depositing element ; wherein the control unit , proceeding from the first sensor signal, actuates the first drive unit in such a manner that the depositing element is moved into the dispensing compartment by a predetermined distance away from the delimiting element , from the initializing position to a first feeding position for feeding the bills , characterized in that the one predetermined distance is a preset distance which is predefined by a preset number of steps of a stepper motor of the drive unit . having a dispensing compartment for retrieving bills which comprises a depositing element that delimits the dispensing compartment on a first side, and a delimiting element that delimits the dispensing compartment on a second side; having a control unit , wherein the device comprises at least one first sensor unit for detecting an initializing position of the depositing element ; that the first sensor unit is configured to generate a first sensor signal and to transmit the latter to the control unit ; that the control unit is configured to actuate a first drive unit for moving the depositing element ; wherein the control unit , proceeding from the first sensor signal, actuates the first drive unit in such a manner that the depositing element is moved into the dispensing compartment by a predetermined distance away from the delimiting element , from the initializing position to a first feeding position for feeding the bills , characterized in that the one predetermined distance is a preset distance which is predefined by a preset number of steps of a stepper motor of the drive unit .
A method for executing instructions in a central processing unit, CPU, comprising: forming , from a current thread queue an instruction block and transmitting the instruction block to a CPU execution unit for execution, wherein the instruction block contains one jump instruction, and the jump instruction is a last instruction in the instruction block; replenishing the current thread queue with at least one instruction to form a thread queue to be executed; suspending renaming and allocation of executable resources for subsequent instructions in the thread queue to be executed before determining a target instruction of the jump instruction according to an execution result of the CPU execution unit; determining whether the target instruction is contained in the thread queue to be executed; if the target instruction is not contained in the thread queue to be executed, flushing the thread queue to be executed, obtaining the target instruction and adding the target instruction to the thread queue to be executed; and executing the thread queue to be executed by a respective execution unit of the CPU. forming , from a current thread queue an instruction block and transmitting the instruction block to a CPU execution unit for execution, wherein the instruction block contains one jump instruction, and the jump instruction is a last instruction in the instruction block; replenishing the current thread queue with at least one instruction to form a thread queue to be executed; suspending renaming and allocation of executable resources for subsequent instructions in the thread queue to be executed before determining a target instruction of the jump instruction according to an execution result of the CPU execution unit; determining whether the target instruction is contained in the thread queue to be executed; if the target instruction is not contained in the thread queue to be executed, flushing the thread queue to be executed, obtaining the target instruction and adding the target instruction to the thread queue to be executed; and executing the thread queue to be executed by a respective execution unit of the CPU.
A method for receiving uplink data symbols, the method performed by a receiving end and comprising: receiving, from a transmitting end, uplink data symbols in at least two subcarrier groups; de-mapping the uplink data symbols from the at least two subcarrier groups; and demodulating the de-mapped uplink data symbols, wherein the uplink data symbols are de-mapped from at least two subcarrier groups that are not contiguous to each other in a frequency domain, and wherein the uplink data symbols are de-mapped from subcarriers included in the at least two subcarrier groups and to which they have been mapped by the transmitting end, wherein each of the at least two subcarrier groups includes contiguous subcarriers in the frequency domain, and wherein, starting with a first uplink data symbol of the uplink data symbols, the uplink data symbols have been mapped in sequence to the at least two subcarrier groups in increasing order of a subcarrier index. receiving, from a transmitting end, uplink data symbols in at least two subcarrier groups; de-mapping the uplink data symbols from the at least two subcarrier groups; and demodulating the de-mapped uplink data symbols, wherein the uplink data symbols are de-mapped from at least two subcarrier groups that are not contiguous to each other in a frequency domain, and wherein the uplink data symbols are de-mapped from subcarriers included in the at least two subcarrier groups and to which they have been mapped by the transmitting end, wherein each of the at least two subcarrier groups includes contiguous subcarriers in the frequency domain, and wherein, starting with a first uplink data symbol of the uplink data symbols, the uplink data symbols have been mapped in sequence to the at least two subcarrier groups in increasing order of a subcarrier index.
A method of generating a power schedule for a wind turbine , the power schedule indicating how the turbine maximum power level varies over time, the method comprising: receiving input indicative of a target minimum wind turbine lifetime; determining a value indicative of the current remaining fatigue lifetime of the wind turbine or one or more turbine components, based on measured wind turbine site and/or operating data; receiving an initial predefined power schedule which specifies how the turbine maximum power level varies over time; and calculating an adjusted power schedule by varying a parameter of the initial predefined power schedule by performing the following steps: i) adjusting the parameter of the initial predefined power schedule; ii) estimating the future fatigue lifetime consumed by the wind turbine or the one or more turbine components, over the duration of the adjusted power schedule, based upon the adjusted power schedule; and iii) repeating steps (i) and (ii) until the estimated future fatigue lifetime consumed by the wind turbine or each of the one or more turbine components, based on the adjusted power schedule, is sufficient to allow the target minimum wind turbine life to be reached, thereby to calculate a determined power schedule and, providing the determined power schedule to a wind turbine controller to control the power output of a wind turbine . receiving input indicative of a target minimum wind turbine lifetime; determining a value indicative of the current remaining fatigue lifetime of the wind turbine or one or more turbine components, based on measured wind turbine site and/or operating data; receiving an initial predefined power schedule which specifies how the turbine maximum power level varies over time; and i) adjusting the parameter of the initial predefined power schedule; ii) estimating the future fatigue lifetime consumed by the wind turbine or the one or more turbine components, over the duration of the adjusted power schedule, based upon the adjusted power schedule; and iii) repeating steps (i) and (ii) until the estimated future fatigue lifetime consumed by the wind turbine or each of the one or more turbine components, based on the adjusted power schedule, is sufficient to allow the target minimum wind turbine life to be reached, thereby to calculate a determined power schedule