mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a client station , the method comprising: receiving, by the client station , persistent resource allocation information (430-K), the persistent resource allocation information (430-K) including an indication of downlink, DL, persistent resources, a first identifier associated with the client station , an indication of a DL allocation period, an indication of uplink, UL, persistent resources, and an indication of an UL allocation period, wherein the DL allocation period is separately indicated from the UL allocation period; periodically receiving, by the client station , DL user data associated with the first identifier, the DL user data being received via the DL persistent resources and based on the DL allocation period, and the DL persistent resources repeating at an interval defined by the DL allocation period; and persistently transmitting, by the client station , UL user data via the UL persistent resources and based on the UL allocation period, the UL persistent resources repeating at an interval defined by the UL allocation period. receiving, by the client station , persistent resource allocation information (430-K), the persistent resource allocation information (430-K) including an indication of downlink, DL, persistent resources, a first identifier associated with the client station , an indication of a DL allocation period, an indication of uplink, UL, persistent resources, and an indication of an UL allocation period, wherein the DL allocation period is separately indicated from the UL allocation period; periodically receiving, by the client station , DL user data associated with the first identifier, the DL user data being received via the DL persistent resources and based on the DL allocation period, and the DL persistent resources repeating at an interval defined by the DL allocation period; and persistently transmitting, by the client station , UL user data via the UL persistent resources and based on the UL allocation period, the UL persistent resources repeating at an interval defined by the UL allocation period.
An optical waveguide unit , comprising: at least one group of total reflection layers , each group comprising at least one type of total reflection layer, and each type of total reflection layer comprising at least one single total reflection layer; and at least two sub-waveguides , one group being arranged between every two adjacent sub-waveguides , wherein a number of the sub-waveguides is four, a number of the groups is three, and the groups comprise: a first type of total reflection layer in middle; and two second types of total reflection layers, a refractive index of the second type of total reflection layer #+t is different from a refractive index of the first type of total reflection layer, and the two second types of total reflection layers are located on both sides of the first type of total reflection layer along a stacking direction of the group and the sub-waveguide , wherein heights of the four sub-waveguides are GH1, GH2, GH3, GH4 in order along the stacking direction, where GH1=GH4=GH2+GH3, GH2 =GH3, GH1+GH2=GH3+GH4. at least one group of total reflection layers , each group comprising at least one type of total reflection layer, and each type of total reflection layer comprising at least one single total reflection layer; and at least two sub-waveguides , one group being arranged between every two adjacent sub-waveguides , wherein a number of the sub-waveguides is four, a number of the groups is three, and the groups comprise: a first type of total reflection layer in middle; and two second types of total reflection layers, a refractive index of the second type of total reflection layer #+t is different from a refractive index of the first type of total reflection layer, and the two second types of total reflection layers are located on both sides of the first type of total reflection layer along a stacking direction of the group and the sub-waveguide , wherein heights of the four sub-waveguides are GH1, GH2, GH3, GH4 in order along the stacking direction, where GH1=GH4=GH2+GH3, GH2 =GH3, GH1+GH2=GH3+GH4. a first type of total reflection layer in middle; and two second types of total reflection layers, a refractive index of the second type of total reflection layer #+t is different from a refractive index of the first type of total reflection layer, and the two second types of total reflection layers are located on both sides of the first type of total reflection layer along a stacking direction of the group and the sub-waveguide , wherein heights of the four sub-waveguides are GH1, GH2, GH3, GH4 in order along the stacking direction, where GH1=GH4=GH2+GH3, GH2 =GH3, GH1+GH2=GH3+GH4.
A method for configuring a plurality of operating setpoints for a vapour compression system , the method comprising the steps of: - dividing the plurality of operating setpoints into a first group of operating setpoints to be generated manually and a second group of operating setpoints to be generated automatically, - generating the operating setpoints of the first group manually, and generating the operating setpoints of the second group automatically, - providing the manually generated operating setpoints and the automatically generated operating setpoints to a setpoint manager , - the setpoint manager checking if the provided operating setpoints are in compliance with a set of rules, - in the case that at least some of the provided operating setpoints are not in compliance with the set of rules, the setpoint manager adjusting at least some of the provided operating setpoints in accordance with the set of rules, thereby obtaining an adjusted set of operating setpoints, and - controlling the vapour compression system in accordance with the adjusted set of operating setpoints. - dividing the plurality of operating setpoints into a first group of operating setpoints to be generated manually and a second group of operating setpoints to be generated automatically, - generating the operating setpoints of the first group manually, and generating the operating setpoints of the second group automatically, - providing the manually generated operating setpoints and the automatically generated operating setpoints to a setpoint manager , - the setpoint manager checking if the provided operating setpoints are in compliance with a set of rules, - in the case that at least some of the provided operating setpoints are not in compliance with the set of rules, the setpoint manager adjusting at least some of the provided operating setpoints in accordance with the set of rules, thereby obtaining an adjusted set of operating setpoints, and - controlling the vapour compression system in accordance with the adjusted set of operating setpoints.
A power supply for converting alternating current AC, into direct current, DC, for powering a device, the power supply comprising: an AC circuit adapted for coupling to a source of alternating current and having a first common reference point that defines an AC reference point; a DC circuit coupled to the AC circuit and providing direct current terminals for coupling to the powered device and having a second common reference point that defines a DC reference point; the AC and DC reference points being electrically isolated to substantially inhibit the flow of direct current there between; a first attachment point that provides an energy pathway to the AC reference point; a second attachment point that provides an energy pathway to the DC reference point; a spark gap structure coupled to the first and second attachment points, the spark gap structure being configured to substantially inhibit the flow of direct current between the first and second attachment points while providing a static electricity energy path between the first and second attachment points, characterized in that : the DC circuit includes a first metal heat sink structure and the AC circuit includes a second metal heat sink structure , wherein the first metal heat sink structure defines a first portion of the spark gap structure , the second metal heat sink structure defines a second portion of the spark gap structure , and the first metal heat sink structure dissipates heat from a component of the DC circuit portion other than the spark gap structure itself. an AC circuit adapted for coupling to a source of alternating current and having a first common reference point that defines an AC reference point; a DC circuit coupled to the AC circuit and providing direct current terminals for coupling to the powered device and having a second common reference point that defines a DC reference point; the AC and DC reference points being electrically isolated to substantially inhibit the flow of direct current there between; a first attachment point that provides an energy pathway to the AC reference point; a second attachment point that provides an energy pathway to the DC reference point; a spark gap structure coupled to the first and second attachment points, the spark gap structure being configured to substantially inhibit the flow of direct current between the first and second attachment points while providing a static electricity energy path between the first and second attachment points, the DC circuit includes a first metal heat sink structure and the AC circuit includes a second metal heat sink structure , wherein the first metal heat sink structure defines a first portion of the spark gap structure , the second metal heat sink structure defines a second portion of the spark gap structure , and the first metal heat sink structure dissipates heat from a component of the DC circuit portion other than the spark gap structure itself.
Part comprising at least two sets of elements assembled together, each set including a first , a second and a third element with the first element and the second element disposed on either side of the third element , the first and the second elements each including a first and a second blind recess and the third element including a first and a second through hole, the first through hole of the third element being placed facing the first blind recess of the first and second elements in each set , the second through hole of the third element of a set being placed facing the second blind recess of the first and second elements of another set , the attachment within each set and between the two sets being respectively provided by: - a first rod mounted in the first through hole of the third element and secured at its ends in the first blind recess of the first and second elements, - a second rod mounted in the second through hole of the third element and secured at its ends in the second blind recess of the first and second elements, - said first rod and said second rod are respectively secured in the first blind recess and in the second blind recess with a glue , - said first blind recess and said second blind recess form a longitudinal zone for respectively housing the ends of the first and of the second rod, said longitudinal zone emerging on at least one cavity extending laterally with respect to said longitudinal zone , said cavity accommodating the glue and providing a mechanical attachment of the glue in the first and second elements, the part being characterised in that said longitudinal zone emerges on two cavities extending laterally with respect to the longitudinal zone , the two cavities being respectively positioned on each side of the longitudinal zone . - a first rod mounted in the first through hole of the third element and secured at its ends in the first blind recess of the first and second elements, - a second rod mounted in the second through hole of the third element and secured at its ends in the second blind recess of the first and second elements, - said first rod and said second rod are respectively secured in the first blind recess and in the second blind recess with a glue , - said first blind recess and said second blind recess form a longitudinal zone for respectively housing the ends of the first and of the second rod, said longitudinal zone emerging on at least one cavity extending laterally with respect to said longitudinal zone , said cavity accommodating the glue and providing a mechanical attachment of the glue in the first and second elements, the part being characterised in that said longitudinal zone emerges on two cavities extending laterally with respect to the longitudinal zone , the two cavities being respectively positioned on each side of the longitudinal zone .
A working vehicle comprising: a running vehicle body ; a floor forming a bottom portion of an operation part of the running vehicle body ; a fuel tank arranged below the floor ; a lawn mower suspended from a lower part of the running vehicle body ; a front suspension arm for suspending a front portion of the lawn mower ; and a rear suspension arm for suspending a rear portion of the lawn mower , wherein the rear suspension arm is arranged to avoid the fuel tank , characterized in that the rear suspension arm has a suspension arm bracket that is fixed to a lower portion of the running vehicle body and protrudes outward from the lower portion in a left and right direction, and a rear suspension arm body that has an L shape in a plan view and that has one end pivotably attached to a tip of the suspension arm bracket and the other end pivotably connected to the rear portion of the lawn mower , and a pivot fulcrum (R1) at the tip of the suspension arm bracket is located outside an outer surface of the fuel tank in the left and right direction, and a pivot fulcrum (R2) at a connection portion of the rear suspension arm body on the rear portion of the lawn mower is located inside the outer surface of the fuel tank in the left and right direction. a running vehicle body ; a floor forming a bottom portion of an operation part of the running vehicle body ; a fuel tank arranged below the floor ; a lawn mower suspended from a lower part of the running vehicle body ; a front suspension arm for suspending a front portion of the lawn mower ; and a rear suspension arm for suspending a rear portion of the lawn mower , wherein the rear suspension arm is arranged to avoid the fuel tank , characterized in that the rear suspension arm has a suspension arm bracket that is fixed to a lower portion of the running vehicle body and protrudes outward from the lower portion in a left and right direction, and a rear suspension arm body that has an L shape in a plan view and that has one end pivotably attached to a tip of the suspension arm bracket and the other end pivotably connected to the rear portion of the lawn mower , and a pivot fulcrum (R1) at the tip of the suspension arm bracket is located outside an outer surface of the fuel tank in the left and right direction, and a pivot fulcrum (R2) at a connection portion of the rear suspension arm body on the rear portion of the lawn mower is located inside the outer surface of the fuel tank in the left and right direction.
An isolated anti-RGMa antibody, or an antigen-binding fragment thereof, wherein the amino acid sequence of each of the light chain complementarity determining region 1 (LCDR1), the light chain complementarity determining region 2 (LCDR2), the light chain complementarity determining region 3 (LCDR3), the heavy chain complementarity determining region 1 (HCDR1), the heavy chain complementarity determining region 2 (HCDR2) and the heavy chain complementarity determining region 3 (HCDR3) comprises the following: LCDR1: RASQDISSYLN (SEQ ID NO: 30 in Sequence Listing), LCDR2: YTSRLHS (SEQ ID NO: 31 in Sequence Listing), LCDR3: QQLNTLP (SEQ ID NO: 32 in Sequence Listing), HCDR1: DAWMD (SEQ ID NO: 33 in Sequence Listing), HCDR2: EIRSKANNHATYYAESVKG (SEQ ID NO: 34 in Sequence Listing) and HCDR3: RDGAY (SEQ ID NO: 35 in Sequence Listing); or LCDR1: RSSQSLVHSNGNTYLH (SEQ ID NO: 36 in Sequence Listing) LCDR2: KVSNRFS (SEQ ID NO: 37 in Sequence Listing) LCDR3:SQSTHVP (SEQ ID NO: 38 in Sequence Listing) HCDR1: TSYYWN (SEQ ID NO: 39 in Sequence Listing) HCDR2: YISYDGTNNYNPSLKN (SEQ ID NO: 40 in Sequence Listing) and HCDR3: SFG LCDR1: RASQDISSYLN (SEQ ID NO: 30 in Sequence Listing), LCDR2: YTSRLHS (SEQ ID NO: 31 in Sequence Listing), LCDR3: QQLNTLP (SEQ ID NO: 32 in Sequence Listing), HCDR1: DAWMD (SEQ ID NO: 33 in Sequence Listing), HCDR2: EIRSKANNHATYYAESVKG (SEQ ID NO: 34 in Sequence Listing) and HCDR3: RDGAY (SEQ ID NO: 35 in Sequence Listing); or LCDR1: RSSQSLVHSNGNTYLH (SEQ ID NO: 36 in Sequence Listing) LCDR2: KVSNRFS (SEQ ID NO: 37 in Sequence Listing) LCDR3:SQSTHVP (SEQ ID NO: 38 in Sequence Listing) HCDR1: TSYYWN (SEQ ID NO: 39 in Sequence Listing) HCDR2: YISYDGTNNYNPSLKN (SEQ ID NO: 40 in Sequence Listing) and HCDR3: SFG
Method for generating a representation of a working area of an autonomous lawn mower , the method comprising the steps of: - positioning the autonomous lawn mower in a home position at a base station (Si); - leaving the home position and determining that the home position has been left (S3); - following a boundary wire until the base station is reached again (S4); - recording measured values from movement sensors of the autonomous lawn mower while moving; - maneuvering the autonomous lawn mower into the home position and determining that the home position in base station is reached again on the basis of an interaction between the base station and the autonomous lawn mower (S5); - generating a trajectory of the autonomous lawn mower on the basis of the recorded measured values, the trajectory being defined by positions and corresponding orientations of the autonomous lawn mower (S7); - correcting the positions and corresponding orientations by a position error and an orientation error respectively (S7),; - storing the corrected trajectory as the representation of the working area; characterized in that correcting the orientations and positions is performed in two successive computational steps, wherein correction of orientations along the trajectory is performed before correction of the positions along the trajectory is performed on positions calculated on the basis of the corrected orientations, and correcting the orientations and position is performed by weighting each orientation and position according to some criteria, preferably such as orientation changes, acceleration or a combination of multiple criteria. - positioning the autonomous lawn mower in a home position at a base station (Si); - leaving the home position and determining that the home position has been left (S3); - following a boundary wire until the base station is reached again (S4); - recording measured values from movement sensors of the autonomous lawn mower while moving; - maneuvering the autonomous lawn mower into the home position and determining that the home position in base station is reached again on the basis of an interaction between the base station and the autonomous lawn mower (S5); - generating a trajectory of the autonomous lawn mower on the basis of the recorded measured values, the trajectory being defined by positions and corresponding orientations of the autonomous lawn mower (S7); - correcting the positions and corresponding orientations by a position error and an orientation error respectively (S7),; - storing the corrected trajectory as the representation of the working area; characterized in that correcting the orientations and positions is performed in two successive computational steps, wherein correction of orientations along the trajectory is performed before correction of the positions along the trajectory is performed on positions calculated on the basis of the corrected orientations, and correcting the orientations and position is performed by weighting each orientation and position according to some criteria, preferably such as orientation changes, acceleration or a combination of multiple criteria.
A wireless terminal for locating a set of candidate links (CLK1, CLK2, CLK3) in a wireless communication network when communicating with a serving network node via a serving link (SLK), the wireless terminal comprising a processor circuit acting on computer instructions wherein said wireless terminal is operative to: obtain search limitation data (SLD) that defines limits on a link search for a set of candidate links with respect to one or more time offsets and/or frequency offsets from a current link search setting, set limitations for the link search based on the search limitation data, search for candidate links (CLK1, CLK2, CLK3) starting with a current link search setting used with the serving link (SLK), and continue searching for candidate links with an offset from the current link search setting, wherein the offset is a time offset or a frequency offset that grows until the search limitations have been met. obtain search limitation data (SLD) that defines limits on a link search for a set of candidate links with respect to one or more time offsets and/or frequency offsets from a current link search setting, set limitations for the link search based on the search limitation data, search for candidate links (CLK1, CLK2, CLK3) starting with a current link search setting used with the serving link (SLK), and continue searching for candidate links with an offset from the current link search setting, wherein the offset is a time offset or a frequency offset that grows until the search limitations have been met.
An apparatus to be implemented in a user equipment, UE, residing in a cell included in a cell cluster, the apparatus comprising: transceiver circuitry configured to receive a discovery signal from a node associated with the cell , the discovery signal to include a base sequence that distinguishes the cell cluster that includes the cell from other cell clusters and an orthogonal sequence that distinguishes the cell from other cells in the cell cluster that includes the cell , wherein the base sequence is a Zadoff-Chu sequence or a pseudo-random sequence; and processing circuitry , communicatively coupled with the transceiver circuitry , and configured to determine an identity of the cell cluster that includes the cell based on the base sequence and to determine an identity of the cell based on the orthogonal sequence; and measurement circuitry , communicatively coupled with the transceiver circuitry , to measure a Radio Resource Management, RRM, metric value associated with the cell ; wherein the transceiver circuitry is further to transmit the measured RRM metric value to an eNB that is to serve the UE where a Radio Resource Control, RRC, state of the UE is connected, and the processing circuitry is further to compare the measured RRM metric value with a threshold value where a RRC state of the UE is idle, the comparison to the threshold value enabling the UE to determine whether to camp on the cell. transceiver circuitry configured to receive a discovery signal from a node associated with the cell , the discovery signal to include a base sequence that distinguishes the cell cluster that includes the cell from other cell clusters and an orthogonal sequence that distinguishes the cell from other cells in the cell cluster that includes the cell , wherein the base sequence is a Zadoff-Chu sequence or a pseudo-random sequence; and processing circuitry , communicatively coupled with the transceiver circuitry , and configured to determine an identity of the cell cluster that includes the cell based on the base sequence and to determine an identity of the cell based on the orthogonal sequence; and measurement circuitry , communicatively coupled with the transceiver circuitry , to measure a Radio Resource Management, RRM, metric value associated with the cell ; wherein the transceiver circuitry is further to transmit the measured RRM metric value to an eNB that is to serve the UE where a Radio Resource Control, RRC, state of the UE is connected, and the processing circuitry is further to compare the measured RRM metric value with a threshold value where a RRC state of the UE is idle, the comparison to the threshold value enabling the UE to determine whether to camp on the cell.