mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a user equipment, UE , for wireless communication, comprising: receiving a data packet from another UE over an inter-device communication link using physical downlink shared channel, PDSCH, resources; and transmitting a hybrid automatic repeat request, HARQ, signal to a base station , the HARQ signal indicating whether the data packet received over the inter-device communication link has been successfully decoded; wherein the data packet is received over the inter-device communication link using long term evolution, LTE, downlink radio resources; wherein a guard time , which accounts for transmit timing offset between the inter-device communication link and a network-device link, is used on the PDSCH for a transmission of the data packet. receiving a data packet from another UE over an inter-device communication link using physical downlink shared channel, PDSCH, resources; and transmitting a hybrid automatic repeat request, HARQ, signal to a base station , the HARQ signal indicating whether the data packet received over the inter-device communication link has been successfully decoded; wherein the data packet is received over the inter-device communication link using long term evolution, LTE, downlink radio resources; wherein a guard time , which accounts for transmit timing offset between the inter-device communication link and a network-device link, is used on the PDSCH for a transmission of the data packet.
An apparatus comprising: a controller; a sensor unit coupled to the controller and configured to sense one or more parameters in a plurality of connection paths, wherein the plurality of connection paths comprise paths between a plurality of electrical power sources and a plurality of electrical loads; a selection unit, controlled by the controller, configured to select one of the plurality of connection paths to provide power from one of the plurality of electrical power sources to one of the plurality of electrical loads, wherein the selection is based on the one or more parameters sensed by the sensing unit; characterized in that the apparatus further comprises: a circuit breaker configured to impose a first current limit for a first current flowing through a first connection path of the plurality of connection paths and a second current limit for a second current flowing through a second connection path of the plurality of connection paths. a controller; a sensor unit coupled to the controller and configured to sense one or more parameters in a plurality of connection paths, wherein the plurality of connection paths comprise paths between a plurality of electrical power sources and a plurality of electrical loads; a selection unit, controlled by the controller, configured to select one of the plurality of connection paths to provide power from one of the plurality of electrical power sources to one of the plurality of electrical loads, wherein the selection is based on the one or more parameters sensed by the sensing unit; characterized in that the apparatus further comprises: a circuit breaker configured to impose a first current limit for a first current flowing through a first connection path of the plurality of connection paths and a second current limit for a second current flowing through a second connection path of the plurality of connection paths.
A trace element solution, which comprises at least the following metals: (a) zinc in a concentration of at least 60mg/ml; (b) manganese in a concentration of at least 10mg/ml; (c) selenium in a concentration of at least 5mg/ml; and (d) copper in a concentration of at least 15mg/ml; and which comprises a concentration of the metals of at least 90 mg/ml. (a) zinc in a concentration of at least 60mg/ml; (b) manganese in a concentration of at least 10mg/ml; (c) selenium in a concentration of at least 5mg/ml; and (d) copper in a concentration of at least 15mg/ml;
Electronic circuit for providing a digital signal (Sn), an analog signal obtained by digital-to-analog conversion of the digital signal comprising a succession of ramps, the electronic circuit being clocked by a clock signal, the electronic circuit being configured to supply a number Nout of successive digital values of the digital signal at each cycle of the clock signal, Nout being greater than 1, the electronic circuit comprising a first memory in which are stored, for each ramp, first data comprising a start value of the ramp, the slope of the ramp, and a remaining duration of the ramp in the last cycle of the clock signal in which the ramp extends, and a second memory in which are stored second data relative to the numbers of cycles of the clock signal over which some of the ramps extend, and a first circuit configured to read from the first memory the first data relative to a plurality of successive ramps and from the second memory the second data associated with said plurality of successive ramps, and to provide said digital values based on the first and second read data.
An active system for emitting ultrasonic sounds from a wind turbine , the system comprising: a nozzle mounted on or within a non-blade component of the wind turbine , the nozzle including an inlet and an outlet ; and a pressurized fluid source in fluid communication with the inlet , wherein the nozzle is configured to accelerate a fluid flow derived from the pressurized fluid source through the outlet such that an ultrasonic sound emission is produced by the nozzle ; and wherein the outlet extends through a wall of the non-blade component. a nozzle mounted on or within a non-blade component of the wind turbine , the nozzle including an inlet and an outlet ; and a pressurized fluid source in fluid communication with the inlet , wherein the nozzle is configured to accelerate a fluid flow derived from the pressurized fluid source through the outlet such that an ultrasonic sound emission is produced by the nozzle ; and wherein the outlet extends through a wall of the non-blade component.
A method for deleting a cascaded snapshot, wherein the method is applied to a storage device , the storage device comprises a logical volume and a plurality of cascaded snapshots taken from each other in a cascaded manner, the plurality of cascaded snapshots comprise at least a first snapshot, a second snapshot, and a third snapshot, wherein the first snapshot is the child snapshot of the logical volume and the parent snapshot of the second snapshot, and the third snapshot is the child snapshot of the second snapshot, and the method comprises: receiving an instruction for deleting the first snapshot, wherein the first snapshot comprises target data; migrating the target data to the second snapshot; setting a parent snapshot identifier corresponding to the third snapshot to an identifier of the second snapshot, wherein the set parent snapshot identifier corresponding to the third snapshot indicates that the parent snapshot of the third snapshot is the second snapshot; and deleting the first snapshot, characterized in that the target data comprise a timestamp of the first snapshot, and the timestamp of the first snapshot is set when the first snapshot is created, wherein each cascaded snapshot of the logical volume has one timestamp, and the timestamp of each cascaded snapshot is unique, and wherein the timestamp of each snapshot is the sum of an original timestamp of the logical volume and a preset threshold, such that the equidistant timestamp values are in descending order from the logical volume to the third snapshot. receiving an instruction for deleting the first snapshot, wherein the first snapshot comprises target data; migrating the target data to the second snapshot; setting a parent snapshot identifier corresponding to the third snapshot to an identifier of the second snapshot, wherein the set parent snapshot identifier corresponding to the third snapshot indicates that the parent snapshot of the third snapshot is the second snapshot; and deleting the first snapshot, characterized in that the target data comprise a timestamp of the first snapshot, and the timestamp of the first snapshot is set when the first snapshot is created, wherein each cascaded snapshot of the logical volume has one timestamp, and the timestamp of each cascaded snapshot is unique, and wherein the timestamp of each snapshot is the sum of an original timestamp of the logical volume and a preset threshold, such that the equidistant timestamp values are in descending order from the logical volume to the third snapshot.
A method of wireless communication performed by a user equipment, UE , comprising: determining a first set of synchronization signal blocks, SSBs , for a first subscription of the UE and a second set of SSBs for a second subscription of the UE ; selecting a first SSB, from the first set of SSBs , for communications of the first subscription; characterised by : identifying a third set of SSBs by modifying the second set of SSBs to remove one or more SSBs from the second set of SSBs , at least one SSB of the one or more SSBs overlapping in time with the first SSB; selecting a second SSB from the third set of SSBs ; and monitoring the second SSB for paging messages of the second subscription. determining a first set of synchronization signal blocks, SSBs , for a first subscription of the UE and a second set of SSBs for a second subscription of the UE ; selecting a first SSB, from the first set of SSBs , for communications of the first subscription; characterised by : identifying a third set of SSBs by modifying the second set of SSBs to remove one or more SSBs from the second set of SSBs , at least one SSB of the one or more SSBs overlapping in time with the first SSB; selecting a second SSB from the third set of SSBs ; and monitoring the second SSB for paging messages of the second subscription. identifying a third set of SSBs by modifying the second set of SSBs to remove one or more SSBs from the second set of SSBs , at least one SSB of the one or more SSBs overlapping in time with the first SSB; selecting a second SSB from the third set of SSBs ; and monitoring the second SSB for paging messages of the second subscription.
A method for coating a plurality of optical lenses having at least one main surface at least partly covered with lenslets , the method comprising: - dipping (DIP) at least one first optical lens from the plurality of optical lenses into a coating fluid , - withdrawing (WDW) the at least one first optical lens from the coating fluid at a controlled withdrawal speed, - measuring (MEAS) a thickness of a coating layer deposited on the at least one first optical lens , - determining (ADJ) an adjusted withdrawal speed based on the measured thickness, and - repeating the steps of dipping (DIP), withdrawing (WDW), measuring (MEAS) and determining (ADJ) on at least other optical lenses from the plurality of optical lenses , using the adjusted withdrawal speed during the withdrawing step (WDW). - dipping (DIP) at least one first optical lens from the plurality of optical lenses into a coating fluid , - withdrawing (WDW) the at least one first optical lens from the coating fluid at a controlled withdrawal speed, - measuring (MEAS) a thickness of a coating layer deposited on the at least one first optical lens , - determining (ADJ) an adjusted withdrawal speed based on the measured thickness, and - repeating the steps of dipping (DIP), withdrawing (WDW), measuring (MEAS) and determining (ADJ) on at least other optical lenses from the plurality of optical lenses , using the adjusted withdrawal speed during the withdrawing step (WDW).
A mobile object control system comprising: an SfM unit (2; 101) for detecting distance to an object imaged by a monocular camera which captures forward images in a movement direction of a mobile object by using an SfM algorithm; a first-stop-position output unit (3; 104) for outputting a first stop position satisfying a predetermined safety criterion; a second-stop-position calculating unit (4; 105) for calculating a second stop position closer by a predetermined distance than the first stop position; and a control unit (5; 106) for controlling travel of the mobile object, wherein the control unit (5; 106) controls so that the mobile object stops at the second stop position and, when a predetermined starting condition is satisfied, controls so that the mobile object starts from the second stop position, wherein the SfM unit (2; 101) detects distance to the object by using an image captured by the monocular camera after the mobile object starts from the second stop position, and wherein when a detection result of the distance of the object by the SfM unit (2; 101) is obtained, the control unit (5; 106) uses the detection result for control of travel of the mobile object, characterized in that : the predetermined distance is a predetermined movement distance that will be required by the SfM algorithm if the mobile object in a stopped state starts again and moves in order that the SfM algorithm becomes able to detect a distance to a stationary object. an SfM unit (2; 101) for detecting distance to an object imaged by a monocular camera which captures forward images in a movement direction of a mobile object by using an SfM algorithm; a first-stop-position output unit (3; 104) for outputting a first stop position satisfying a predetermined safety criterion; a second-stop-position calculating unit (4; 105) for calculating a second stop position closer by a predetermined distance than the first stop position; and a control unit (5; 106) for controlling travel of the mobile object, wherein the control unit (5; 106) controls so that the mobile object stops at the second stop position and, when a predetermined starting condition is satisfied, controls so that the mobile object starts from the second stop position, wherein the SfM unit (2; 101) detects distance to the object by using an image captured by the monocular camera after the mobile object starts from the second stop position, and wherein when a detection result of the distance of the object by the SfM unit (2; 101) is obtained, the control unit (5; 106) uses the detection result for control of travel of the mobile object, characterized in that : the predetermined distance is a predetermined movement distance that will be required by the SfM algorithm if the mobile object in a stopped state starts again and moves in order that the SfM algorithm becomes able to detect a distance to a stationary object.
A method for detecting a signal propagation type, comprising: calculating a similarity value, SV, of a currently received pulse response, IN, and a reference pulse response, MR, when a certain positioning base station, Bi, of a UWB positioning system currently receives a pulse response, IN, from a certain positioning tag, Ti, the similarity value indicating the degree of similarity between the currently received pulse response, IN, and the reference pulse response, MR, wherein the reference pulse response (MR) is a pulse response previously received by the positioning base station, Bi, from the positioning tag, Ti; determining the current type of signal propagation between the positioning base station, Bi, (Di) and the positioning tag, Ti, on the basis of the similarity value, SV; and storing the currently received pulse response, IN, as the reference pulse response, MR, if the determined signal propagation type is not the same as the type of signal propagation between the positioning base station, Bi, and the positioning tag, Ti, when the reference pulse response, MR, was received. calculating a similarity value, SV, of a currently received pulse response, IN, and a reference pulse response, MR, when a certain positioning base station, Bi, of a UWB positioning system currently receives a pulse response, IN, from a certain positioning tag, Ti, the similarity value indicating the degree of similarity between the currently received pulse response, IN, and the reference pulse response, MR, wherein the reference pulse response (MR) is a pulse response previously received by the positioning base station, Bi, from the positioning tag, Ti; determining the current type of signal propagation between the positioning base station, Bi, (Di) and the positioning tag, Ti, on the basis of the similarity value, SV; and storing the currently received pulse response, IN, as the reference pulse response, MR, if the determined signal propagation type is not the same as the type of signal propagation between the positioning base station, Bi, and the positioning tag, Ti, when the reference pulse response, MR, was received.
A liquid chromatograph mass spectrometer, comprising: a first flow path that passes through a separation column ; a second flow path that does not pass through the separation column ; a mass spectrometry unit that is provided on a downstream side of the first flow path and the second flow path and analyzes a sample that has passed through the first flow path ; a first valve that connects any one of the first flow path and the second flow path to the mass spectrometry unit ; a first liquid feed pump that feeds liquid to the first flow path ; a second liquid feed pump that feeds liquid to the second flow path ; a controller that controls driving of the first valve, the first liquid feed pump, and the second liquid feed pump; and a pressure gauge that measures a pressure of the second flow path and outputs the pressure to the controller, characterized in that the controller connects the first flow path to the mass spectrometry unit when the sample is analyzed in the mass spectrometry unit and feeds liquid to the mass spectrometry unit from the first liquid feed pump through the first flow path , and connects the second flow path to the mass spectrometry unit , and drives the first valve, the first liquid feed pump, and the second liquid feed pump to feed liquid from the second liquid feed pump to the mass spectrometry unit through the second flow path in a case where it is determined to be abnormal when a measured value of the mass spectrometry unit and a predetermined threshold value are compared. a first flow path that passes through a separation column ; a second flow path that does not pass through the separation column ; a mass spectrometry unit that is provided on a downstream side of the first flow path and the second flow path and analyzes a sample that has passed through the first flow path ; a first valve that connects any one of the first flow path and the second flow path to the mass spectrometry unit ; a first liquid feed pump that feeds liquid to the first flow path ; a second liquid feed pump that feeds liquid to the second flow path ; a controller that controls driving of the first valve, the first liquid feed pump, and the second liquid feed pump; and a pressure gauge that measures a pressure of the second flow path and outputs the pressure to the controller, characterized in that the controller connects the first flow path to the mass spectrometry unit when the sample is analyzed in the mass spectrometry unit and feeds liquid to the mass spectrometry unit from the first liquid feed pump through the first flow path , and connects the second flow path to the mass spectrometry unit , and drives the first valve, the first liquid feed pump, and the second liquid feed pump to feed liquid from the second liquid feed pump to the mass spectrometry unit through the second flow path in a case where it is determined to be abnormal when a measured value of the mass spectrometry unit and a predetermined threshold value are compared.
A pouch type secondary battery comprising: an electrode assembly in which an electrode comprising a positive electrode and a negative electrode and a separator are laminated; a battery case having a pouch shape to accommodate the electrode assembly; an electrode tab connected to the electrode and protruding from one side of the electrode; a first electrode lead having one end connected to the electrode tab ; a second electrode lead having one end connected to the other end of the first electrode lead and the other end protruding to the outside of the battery case ; and a connection part bonding the first electrode lead to the second electrode lead to connect the first and second electrode leads to each other, wherein, in at least one of the first and second electrode leads, a plurality of notches are provided on a boding surface on which the first and second electrode leads are bonded to each other through the connection part , and the plurality of notches being arranged in a line at predetermined intervals in a longitudinal direction from one end to the other end of the first or second electrode lead; and a warning notification device configured to notify n-different warnings to a user according to the nth-stages in which the first and second leads are detached from each other up to the portion on which a nth-notch is disposed wherein the number of warnings corresponds to the number of notches . an electrode assembly in which an electrode comprising a positive electrode and a negative electrode and a separator are laminated; a battery case having a pouch shape to accommodate the electrode assembly; an electrode tab connected to the electrode and protruding from one side of the electrode; a first electrode lead having one end connected to the electrode tab ; a second electrode lead having one end connected to the other end of the first electrode lead and the other end protruding to the outside of the battery case ; and a connection part bonding the first electrode lead to the second electrode lead to connect the first and second electrode leads to each other, wherein, in at least one of the first and second electrode leads, a plurality of notches are provided on a boding surface on which the first and second electrode leads are bonded to each other through the connection part , and the plurality of notches being arranged in a line at predetermined intervals in a longitudinal direction from one end to the other end of the first or second electrode lead; and a warning notification device configured to notify n-different warnings to a user according to the nth-stages in which the first and second leads are detached from each other up to the portion on which a nth-notch is disposed wherein the number of warnings corresponds to the number of notches .