mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting hybrid automatic repeat request acknowledgement, HARQ-ACK, information by a user equipment, UE, the method comprising: receiving, from a base station, control signaling that conveys a downlink control information, DCI, which indicates a scheduling for a reception of a physical downlink shared channel, PDSCH, in a cell or for a semi-persistent scheduling, SPS, release, wherein the DCI includes a counter downlink assignment indicator, DAI, and a total counter DAI, the counter DAI indicating a counter of DCI across cells and transmission time intervals, TTIs, for a physical downlink control channel, PDCCH, up to the cell and a current TTI for the PDCCH, and the total counter DAI indicating a total number of DCI across the cells and the TTIs for the PDCCH up to the current TTI for the PDCCH; generating a HARQ-ACK codeword including HARQ-ACK information in response to the reception of the PDSCH or the DCI for the SPS release based on the counter DAI and the total counter DAI; and transmitting, to the base station, the HARQ-ACK codeword. receiving, from a base station, control signaling that conveys a downlink control information, DCI, which indicates a scheduling for a reception of a physical downlink shared channel, PDSCH, in a cell or for a semi-persistent scheduling, SPS, release, wherein the DCI includes a counter downlink assignment indicator, DAI, and a total counter DAI, the counter DAI indicating a counter of DCI across cells and transmission time intervals, TTIs, for a physical downlink control channel, PDCCH, up to the cell and a current TTI for the PDCCH, and the total counter DAI indicating a total number of DCI across the cells and the TTIs for the PDCCH up to the current TTI for the PDCCH; generating a HARQ-ACK codeword including HARQ-ACK information in response to the reception of the PDSCH or the DCI for the SPS release based on the counter DAI and the total counter DAI; and transmitting, to the base station, the HARQ-ACK codeword.
A geodetic surveying instrument , in particular a total station, to be stationed at ground coordinates in a stationing height above ground, whereby instrument center coordinates are defined, comprising a sighting unit for aiming a measurement target point , comprising an opto-electronic distance meter built to determine a target distance and two axes for aiming the sighting unit , each with a goniometer built to determine a target direction , and comprising a tilt sensor built to determine a tilt value of the instrument and comprising a measurement-controller configured to derive measured coordinates of the measurement target point based on the target direction and the target distance of the measurement target point , characterized by a target point correction unit configured to derive a spatial location displacement (x,y,z) of the instrument center coordinates based on the tilt value and the stationing height and configured to apply the derived location displacement (x,y,z) of the instrument center coordinates on the measured coordinates of the measurement target point , to result in corrected target point coordinates referenced to the instrument center coordinates without tilt, which are provided as measurement results for the target point .
A method for fabricating a laminate, the method comprising: laying up a first set of layers comprising tows of unidirectional thermoplastic fiber-reinforced material for the laminate; and characterized by laying up a second set of layers comprising tows of braided thermoplastic fiber-reinforced material, wherein the fibers are electrically conductive, for the laminate. laying up a first set of layers comprising tows of unidirectional thermoplastic fiber-reinforced material for the laminate; and characterized by laying up a second set of layers comprising tows of braided thermoplastic fiber-reinforced material, wherein the fibers are electrically conductive, for the laminate.
A vehicle-body rear structure (S) comprising: a promoting portion provided in a rear part of a wheel house in which a rear wheel is placed, the promoting portion including a vertical wall portion formed so as to extend toward the vehicle upper side, and a first opening formed in the vertical wall portion , the promoting portion being configured to promote air flowing from a vehicle side part into the wheel house to flow toward the vehicle rear side; and a second opening formed at a vehicle rear side relative to the wheel house ; the vehicle-body rear structure being characterized in that it further comprises an inclined wall portion provided in a rear end of the wheel house , so as to be inclined toward a vehicle rear side as it goes toward a vehicle lower side in a side view; the vertical wall portion is formed at a vehicle upper side relative to the inclined wall portion so as to be connected to the inclined wall portion ; the promoting portion is configured to promote air flowing from a vehicle side part into the wheel house to flow toward the vehicle rear side along the inclined wall portion ; the second opening is formed in an underfloor at a vehicle rear side relative to the wheel house ; and the second opening is placed at an inner side, in a vehicle width direction, relative to the first opening . a promoting portion provided in a rear part of a wheel house in which a rear wheel is placed, the promoting portion including a vertical wall portion formed so as to extend toward the vehicle upper side, and a first opening formed in the vertical wall portion , the promoting portion being configured to promote air flowing from a vehicle side part into the wheel house to flow toward the vehicle rear side; and a second opening formed at a vehicle rear side relative to the wheel house ; the vehicle-body rear structure being characterized in that it further comprises an inclined wall portion provided in a rear end of the wheel house , so as to be inclined toward a vehicle rear side as it goes toward a vehicle lower side in a side view; the vertical wall portion is formed at a vehicle upper side relative to the inclined wall portion so as to be connected to the inclined wall portion ; the promoting portion is configured to promote air flowing from a vehicle side part into the wheel house to flow toward the vehicle rear side along the inclined wall portion ; the second opening is formed in an underfloor at a vehicle rear side relative to the wheel house ; and the second opening is placed at an inner side, in a vehicle width direction, relative to the first opening .
A hydrogen fueling method performed by a dispenser , comprising: obtaining initial state values from a hydrogen supply unit of the dispenser and at least one hydrogen tank of a compressed hydrogen storage system, CHSS ; calculating (S4000) a mass flow, a temperature of the hydrogen tank and a pressure of the hydrogen tank , and a state of charge, SOC, using a pre-stored thermodynamic model based on the initial state values; obtaining each difference, if the calculated SOC is equal to or more than a preset SOC (S3300), wherein the each difference comprises: a first difference between the calculated mass flow and a prestored first safety threshold, a second difference between the calculated temperature of the hydrogen tank and a prestored second safety threshold, and a third difference between the calculated pressure of the hydrogen tank and a prestored third safety threshold; determining (53400, S3500), based on the each difference, whether to reduce, increase, or maintain a pressure ramp rate applied when the mass flow, the temperature and the pressure is calculated, wherein the hydrogen fueling method further comprises: when a preset time elapses, repeating steps of the calculating (S4000), the obtaining and the determining (S3400, S3500). obtaining initial state values from a hydrogen supply unit of the dispenser and at least one hydrogen tank of a compressed hydrogen storage system, CHSS ; calculating (S4000) a mass flow, a temperature of the hydrogen tank and a pressure of the hydrogen tank , and a state of charge, SOC, using a pre-stored thermodynamic model based on the initial state values; obtaining each difference, if the calculated SOC is equal to or more than a preset SOC (S3300), wherein the each difference comprises: a first difference between the calculated mass flow and a prestored first safety threshold, a second difference between the calculated temperature of the hydrogen tank and a prestored second safety threshold, and a third difference between the calculated pressure of the hydrogen tank and a prestored third safety threshold; determining (53400, S3500), based on the each difference, whether to reduce, increase, or maintain a pressure ramp rate applied when the mass flow, the temperature and the pressure is calculated, wherein the hydrogen fueling method further comprises: when a preset time elapses, repeating steps of the calculating (S4000), the obtaining and the determining (S3400, S3500). a first difference between the calculated mass flow and a prestored first safety threshold, a second difference between the calculated temperature of the hydrogen tank and a prestored second safety threshold, and a third difference between the calculated pressure of the hydrogen tank and a prestored third safety threshold; determining (53400, S3500), based on the each difference, whether to reduce, increase, or maintain a pressure ramp rate applied when the mass flow, the temperature and the pressure is calculated, wherein the hydrogen fueling method further comprises: when a preset time elapses, repeating steps of the calculating (S4000), the obtaining and the determining (S3400, S3500).
A method for remote monitoring of operating characteristics of a load cell , the method comprising: • providing a remote monitoring system on a load cell , the remote monitoring system having a main unit , including a processor module, and first sub-unit with a plurality of sensors coupled to a scale of the load cell in wired communication with the main unit • receiving from the plurality of sensors, at the main unit , sensed data indicative of a plurality of operating characteristics of the load cell ; • analyzing at the processor module of the main unit the sensed data by the sensors of the first sub-unit for monitoring and checking critical data points, for checking all data points and for regularly recalculating quality control statistics to continually and automatically adjust preset thresholds that would generate a condition alert; and • sending alerts to a remote computing device when sensed data of an operating characteristic is outside of a preset or adjusted threshold. • providing a remote monitoring system on a load cell , the remote monitoring system having a main unit , including a processor module, and first sub-unit with a plurality of sensors coupled to a scale of the load cell in wired communication with the main unit • receiving from the plurality of sensors, at the main unit , sensed data indicative of a plurality of operating characteristics of the load cell ; • analyzing at the processor module of the main unit the sensed data by the sensors of the first sub-unit for monitoring and checking critical data points, for checking all data points and for regularly recalculating quality control statistics to continually and automatically adjust preset thresholds that would generate a condition alert; and • sending alerts to a remote computing device when sensed data of an operating characteristic is outside of a preset or adjusted threshold.
A combine harvester comprising a threshing mechanism for threshing picked-up crop material to give grain material and a driver assist system for actuation of the threshing mechanism , wherein the driver assist system includes a memory for the storage of data and a computing device for processing the data stored in the memory , characterised in that stored in the memory is a functional system model for at least a part of the combine harvester, wherein the functional system model represents at least a part of the functional relationships within the combine harvester and the computing device is adapted to effect in particular autonomous determination of at least one machine parameter, namely a threshing mechanism parameter , based on the system model , and for representing the functional relationships at least one set of characteristics (A-J) is associated with at least one harvesting process parameter and said harvesting process parameter is defined as an output value of the at least one set of characteristics (A-J), and wherein the threshing mechanism together with the driver assist system forms an automated threshing arrangement by a plurality of selectable harvesting process strategies being stored in the memory and by the computing device being adapted for implementation of the respectively selected harvesting process strategy to autonomously ascertain at least one threshing mechanism parameter and preset it for the threshing mechanism .
Wiper arm spraying device (10a; 10b) for coupling to a wiper arm (12a; 12b), comprising at least one valve unit (14a; 14b) which is provided for supplying a nozzle unit (16a; 16b) with wiper fluid, wherein the valve unit (14a; 14b) is provided to be integrated in a wiper arm hose unit (18a; 18b), comprising a nozzle unit (16a; 16b) which is provided for applying wiper fluid to a vehicle window, wherein the valve unit (14a; 14b) has a housing (20a; 20b) which is formed separately from a housing (22a; 22b) of the nozzle unit (16a; 16b), wherein the nozzle unit has at least one coupling element which is provided for coupling the nozzle unit to a wiper arm adapter of the wiper arm , characterized in that the nozzle unit (16a; 16b) has at least one further coupling element (34a; 34b) which is provided for coupling the nozzle unit (16a; 16b) to a wiper rod (26a; 26b) of the wiper arm (12a; 12b).
Bolometer, comprising: - a first and a second suspension beam and - a semiconductor portion that is suspended by the first and the second suspension beam and comprises a first region of a first conductivity type and a second region of a second conductivity type, wherein the first region comprises at least two stripes which each contribute to a non-short-circuited diode with the second region and are electrically connected to each other and to the first suspension beam by a metal connection , wherein the second region comprises at least one stripe , wherein the at least one stripe of the second region is arranged between the at least two stripes of the first region , and wherein the at least one stripe of the second region is electrically connected to the second suspension beam , characterized in that the at least two stripes of the first region and the at least one stripe of the second region are tapered. - a first and a second suspension beam and - a semiconductor portion that is suspended by the first and the second suspension beam and comprises a first region of a first conductivity type and a second region of a second conductivity type, wherein the first region comprises at least two stripes which each contribute to a non-short-circuited diode with the second region and are electrically connected to each other and to the first suspension beam by a metal connection , wherein the second region comprises at least one stripe , wherein the at least one stripe of the second region is arranged between the at least two stripes of the first region , and wherein the at least one stripe of the second region is electrically connected to the second suspension beam , characterized in that the at least two stripes of the first region and the at least one stripe of the second region are tapered.
A method for operating timing advance timers, TATs, of a terminal in a wireless communication system operating with a primary cell, PCell, and at least one secondary cell, SCell, based on a carrier aggregation, the method comprising: receiving, from a base station, first timing advance, TA, information associated with a primary timing advance group, PTAG, which is a group of serving cells having same uplink timing and including the PCell; starting or restarting a first TAT associated with the PTAG based on the first TA information; receiving , from the base station, second TA information associated with a secondary timing advance group, STAG, which is a group of serving cells having same uplink timing and does not include the PCell; starting or restarting a second TAT associated with the STAG based on the second TA information; receiving downlink data on at least one serving cell in the STAG; determining whether the first TAT associated with the PTAG is running and whether the second TAT associated with the STAG is running; characterized by delivering, if the first TAT associated with the PTAG is running and the second TAT associated with the STAG expires , positive or negative acknowledgement information corresponding to the downlink data received on the at least one serving cell in the STAG to a physical, PHY, layer of the terminal. receiving, from a base station, first timing advance, TA, information associated with a primary timing advance group, PTAG, which is a group of serving cells having same uplink timing and including the PCell; starting or restarting a first TAT associated with the PTAG based on the first TA information; receiving , from the base station, second TA information associated with a secondary timing advance group, STAG, which is a group of serving cells having same uplink timing and does not include the PCell; starting or restarting a second TAT associated with the STAG based on the second TA information; receiving downlink data on at least one serving cell in the STAG; determining whether the first TAT associated with the PTAG is running and whether the second TAT associated with the STAG is running; characterized by delivering, if the first TAT associated with the PTAG is running and the second TAT associated with the STAG expires , positive or negative acknowledgement information corresponding to the downlink data received on the at least one serving cell in the STAG to a physical, PHY, layer of the terminal.
A data transmission method, wherein the method comprises the following steps performed in a radio acess network device : determining configuration information of a preset data bearer, wherein the preset data bearer is used to transmit data, and the configuration information comprises a data transmission mode of data transmitted over a radio interface through the preset data bearer; and sending the configuration information of the preset data bearer to a mobile terminal before establishment of a radio resource control, RRC, connection to the mobile terminal is completed, wherein the configuration information of the preset data bearer is configured to be used by the mobile terminal to transmit data through the preset data bearer, and the sending of the configuration information of the preset data bearer comprises broadcasting system information, wherein the system information comprises the configuration information of the preset data bearer. determining configuration information of a preset data bearer, wherein the preset data bearer is used to transmit data, and the configuration information comprises a data transmission mode of data transmitted over a radio interface through the preset data bearer; and sending the configuration information of the preset data bearer to a mobile terminal before establishment of a radio resource control, RRC, connection to the mobile terminal is completed, wherein the configuration information of the preset data bearer is configured to be used by the mobile terminal to transmit data through the preset data bearer, and the sending of the configuration information of the preset data bearer comprises broadcasting system information, wherein the system information comprises the configuration information of the preset data bearer.
An overlay system for providing a movable interface between an ultrasound probe holder and a couch for radiotherapy, the overlay system comprising: a substantially planar overlay base including a top side, the base defining a handle receptacle including a handle capture section having a tapered profile; a centrally located elongated guide extending longitudinally along the top side of the base to guide translational movement of the ultrasound probe holder along a longitudinal axis of the base; a handle configured to be attached and detached, by a user without requiring using a tool, with the handle receptacle of the base, wherein: the handle defines a channel having a wedge profile that corresponds to the tapered profile of the handle receptacle; engagement of the channel to the capture section of the handle receptacle attaches the handle to the base. a substantially planar overlay base including a top side, the base defining a handle receptacle including a handle capture section having a tapered profile; a centrally located elongated guide extending longitudinally along the top side of the base to guide translational movement of the ultrasound probe holder along a longitudinal axis of the base; a handle configured to be attached and detached, by a user without requiring using a tool, with the handle receptacle of the base, wherein: the handle defines a channel having a wedge profile that corresponds to the tapered profile of the handle receptacle; engagement of the channel to the capture section of the handle receptacle attaches the handle to the base. the handle defines a channel having a wedge profile that corresponds to the tapered profile of the handle receptacle; engagement of the channel to the capture section of the handle receptacle attaches the handle to the base.
A display member comprising: a surface which is an observation object; a first image pattern which is covered by the surface and displays, through the surface, a first image including one or more first information elements for identifying an owner of the display member; and a second image pattern which is covered by the surface and in which one or more second information elements are embedded, a part of the second image pattern restricting identification of the one or more second information elements , the second image pattern including a second image that differs from the first image and is for identifying the owner of the display member; and a concealment pattern that is located between the second image pattern and the surface and removes the restriction on identification of the one or more second information elements by concealing the part of the second image pattern ; and a diffraction portion , characterized in that the diffraction portion is located between the concealment pattern and the surface , and has asperities and is configured to emit diffracted light, and in that in plan view of the surface , the diffraction portion covers at least a part of at least one of the first image pattern and the concealment pattern . a surface which is an observation object; a first image pattern which is covered by the surface and displays, through the surface, a first image including one or more first information elements for identifying an owner of the display member; and a second image pattern which is covered by the surface and in which one or more second information elements are embedded, a part of the second image pattern restricting identification of the one or more second information elements , the second image pattern including a second image that differs from the first image and is for identifying the owner of the display member; and a concealment pattern that is located between the second image pattern and the surface and removes the restriction on identification of the one or more second information elements by concealing the part of the second image pattern ; and a diffraction portion , characterized in that the diffraction portion is located between the concealment pattern and the surface , and has asperities and is configured to emit diffracted light, and in that in plan view of the surface , the diffraction portion covers at least a part of at least one of the first image pattern and the concealment pattern .