mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid damper for modulating a retaining force of a seat belt, a. the fluid damper comprising an outer cylinder and an inner cylinder arranged in the outer cylinder coaxial to a common longitudinal axis (LA), b. the inner cylinder enclosing an inner space filled with a damping fluid, c. the fluid damper comprising a piston shiftable in the inner space along the longitudinal axis (LA) along a stroke length (HS), d. the fluid damper comprising at least one duct , e. the at least one duct connecting for the damping fluid conductively a front fluid chamber disposed in front of the piston along the longitudinal axis (LA) to a rear fluid chamber disposed behind the piston along the longitudinal axis (LA), f. the at least one duct comprising an outer duct portion in a shell wall of the outer cylinder and an inner duct portion in a shell wall of the inner cylinder , g. an outer shell surface of the inner cylinder abutting on an inner shell surface of the outer cylinder to be sealing for the damping fluid, and h. the inner cylinder being deflectable relative to the outer cylinder from a rest position by a force acting on the piston along the longitudinal axis (LA), i. so that the deflection of the inner cylinder causes an adjustment of an overlap of the outer duct portion and the inner duct portion along the shell surfaces depending on the magnitude of the force, characterised in that j. the at least one duct comprises a groove in the shell wall of the inner cylinder and of the outer cylinder for guiding the damping fluid past the piston from the front fluid chamber into the rear fluid chamber . a. the fluid damper comprising an outer cylinder and an inner cylinder arranged in the outer cylinder coaxial to a common longitudinal axis (LA), b. the inner cylinder enclosing an inner space filled with a damping fluid, c. the fluid damper comprising a piston shiftable in the inner space along the longitudinal axis (LA) along a stroke length (HS), d. the fluid damper comprising at least one duct , e. the at least one duct connecting for the damping fluid conductively a front fluid chamber disposed in front of the piston along the longitudinal axis (LA) to a rear fluid chamber disposed behind the piston along the longitudinal axis (LA), f. the at least one duct comprising an outer duct portion in a shell wall of the outer cylinder and an inner duct portion in a shell wall of the inner cylinder , g. an outer shell surface of the inner cylinder abutting on an inner shell surface of the outer cylinder to be sealing for the damping fluid, and h. the inner cylinder being deflectable relative to the outer cylinder from a rest position by a force acting on the piston along the longitudinal axis (LA), i. so that the deflection of the inner cylinder causes an adjustment of an overlap of the outer duct portion and the inner duct portion along the shell surfaces depending on the magnitude of the force, characterised in that j. the at least one duct comprises a groove in the shell wall of the inner cylinder and of the outer cylinder for guiding the damping fluid past the piston from the front fluid chamber into the rear fluid chamber .
A pneumatic tire, comprising: a tread surface ; a plurality of grooves, formed in the tread surface , including a plurality of widthwise grooves each extending from a corresponding tread end TE on the inner side in the tread width direction and a plurality of circumferential grooves each extending in the tread circumferential direction to intersect the widthwise grooves ; blocks demarcated by the plurality of grooves; a chamfered portion formed at a corner , on the trailing edge side and on the outer side in the tread width direction, of each block ; wherein a first circumferential groove of the plurality of circumferential grooves extends in the tread circumferential direction in a tire center portion; and characterised in that : each widthwise groove is provided with a raised-bottom portion formed in a connection portion at which an inner end portion in the tread width direction of each widthwise groove is connected with the circumferential groove ; and in that 0 mm ≤ w1 ≤ 2 mm and 1 mm ≤ h1 ≤ 9.2 mm, provided that w1 is a groove width at a cross section of the connection portion and that h1 is the maximum groove depth at the cross section of the connection portion . a tread surface ; a plurality of grooves, formed in the tread surface , including a plurality of widthwise grooves each extending from a corresponding tread end TE on the inner side in the tread width direction and a plurality of circumferential grooves each extending in the tread circumferential direction to intersect the widthwise grooves ; blocks demarcated by the plurality of grooves; a chamfered portion formed at a corner , on the trailing edge side and on the outer side in the tread width direction, of each block ; wherein a first circumferential groove of the plurality of circumferential grooves extends in the tread circumferential direction in a tire center portion; and characterised in that : each widthwise groove is provided with a raised-bottom portion formed in a connection portion at which an inner end portion in the tread width direction of each widthwise groove is connected with the circumferential groove ; and in that 0 mm ≤ w1 ≤ 2 mm and 1 mm ≤ h1 ≤ 9.2 mm, provided that w1 is a groove width at a cross section of the connection portion and that h1 is the maximum groove depth at the cross section of the connection portion . each widthwise groove is provided with a raised-bottom portion formed in a connection portion at which an inner end portion in the tread width direction of each widthwise groove is connected with the circumferential groove ; and in that 0 mm ≤ w1 ≤ 2 mm and 1 mm ≤ h1 ≤ 9.2 mm, provided that w1 is a groove width at a cross section of the connection portion and that h1 is the maximum groove depth at the cross section of the connection portion .
A method for wireless communications by a base station, comprising: determining a transmission configuration of a first synchronization signal, SS, and/or a second SS based, at least in part, on a frequency band on which the base station is to transmit the first and second SS; and transmitting the first and second SS in accordance with the determined transmission configuration, characterized in that the transmission configuration indicates : one or more antenna ports used for transmission of the SS; and/or precoding used to generate the transmitted SS. determining a transmission configuration of a first synchronization signal, SS, and/or a second SS based, at least in part, on a frequency band on which the base station is to transmit the first and second SS; and transmitting the first and second SS in accordance with the determined transmission configuration, characterized in that the transmission configuration indicates : one or more antenna ports used for transmission of the SS; and/or precoding used to generate the transmitted SS. one or more antenna ports used for transmission of the SS; and/or precoding used to generate the transmitted SS.
A path switching method, applied to a terminal device, wherein the terminal device has a packet data convergence protocol, PDCP, layer with a split bearer in a Dual Connection, DC, the PDCP layer is capable of sending uplink data to a first cell group or a second cell group, the first cell group and the second cell group are different cell groups, and the PDCP layer currently sends uplink data to the first cell group; the method characterised by : switching , by the terminal device, the PDCP layer from sending uplink data to the first cell group to sending uplink data to the second cell group; and sending , by the terminal device, first uplink data to the second cell group, wherein the first uplink data comprises at least first data, and the first data are data that have been sent to a radio link control protocol, RLC, layer of the first cell group by the terminal device; wherein the first cell group is a Master Cell Group of the split bearer and the second cell group is a Secondary Cell Group of the split bearer. switching , by the terminal device, the PDCP layer from sending uplink data to the first cell group to sending uplink data to the second cell group; and sending , by the terminal device, first uplink data to the second cell group, wherein the first uplink data comprises at least first data, and the first data are data that have been sent to a radio link control protocol, RLC, layer of the first cell group by the terminal device; wherein the first cell group is a Master Cell Group of the split bearer and the second cell group is a Secondary Cell Group of the split bearer.
An allocation method (F) for allocating an available maximum power (PMAX) from at least one power supply source (R; B) to electrical equipment of a crane (G), in which the electrical equipment are powered by the available maximum power (PMAX) which corresponds to a maximum power that can be delivered by the at least one power supply source (R; B), said electrical equipment comprising: - actuation equipment defined according to a configuration of the crane (G) and which are equipment suitable for actuating a movement of the crane or a crane element; - accessory equipment which are equipment that are not actuation equipment, that says equipment which are not involved in moving the crane or a crane element; said allocation method being characterized in that it comprises a step of selecting between: - a raw mode (MBRUT) in which the available maximum power (PMAX) is allocated over the actuation equipment and the accessory equipment without distinction between the actuation equipment and the accessory equipment , as long as the electrical equipment are in demand for electric power; and - an optimized mode (MOPT) in which the available maximum power (PMAX) is allocated over the predefined actuation equipment , and also over the accessory equipment but according to cut-off conditions associated to the accessory equipment , so that according to their respective cut-off conditions the accessory equipment are powered or not. - actuation equipment defined according to a configuration of the crane (G) and which are equipment suitable for actuating a movement of the crane or a crane element; - accessory equipment which are equipment that are not actuation equipment, that says equipment which are not involved in moving the crane or a crane element; said allocation method being characterized in that it comprises a step of selecting between: - a raw mode (MBRUT) in which the available maximum power (PMAX) is allocated over the actuation equipment and the accessory equipment without distinction between the actuation equipment and the accessory equipment , as long as the electrical equipment are in demand for electric power; and - an optimized mode (MOPT) in which the available maximum power (PMAX) is allocated over the predefined actuation equipment , and also over the accessory equipment but according to cut-off conditions associated to the accessory equipment , so that according to their respective cut-off conditions the accessory equipment are powered or not.
A wireless communication device , comprising: a transceiver adapted to receive a plurality of partial key data by a plurality of wireless transmission channels (161, 162, 163; 361, 362, 363), wherein the plurality of partial key data corresponds to a key; wherein the transceiver comprises an antenna system adapted to receive the plurality of partial key data from a plurality of different spatial locations, wherein the transceiver is configured to adapt an antenna beam of the antenna system in order to receive wireless signals from the direction of a further wireless communication device, wherein the transceiver is adapted to determine respective angles of arrival of the plurality of partial key data received by the plurality of wireless transmission channels, a data processor configured to verify whether or not the respective angles of arrival are different, wherein the wireless communication device is configured to discard the key data received by the wireless transmission channels , if at least a predetermined number of the wireless transmission channels have a same angle of arrival, and otherwise combine the plurality of partial key data to obtain the key; and wherein the data processor is adapted to decrypt, based on the key, encrypted data which are received from said further wireless communication device and encrypted with the key. a transceiver adapted to receive a plurality of partial key data by a plurality of wireless transmission channels (161, 162, 163; 361, 362, 363), wherein the plurality of partial key data corresponds to a key; wherein the transceiver comprises an antenna system adapted to receive the plurality of partial key data from a plurality of different spatial locations, wherein the transceiver is configured to adapt an antenna beam of the antenna system in order to receive wireless signals from the direction of a further wireless communication device, wherein the transceiver is adapted to determine respective angles of arrival of the plurality of partial key data received by the plurality of wireless transmission channels, a data processor configured to verify whether or not the respective angles of arrival are different, wherein the wireless communication device is configured to discard the key data received by the wireless transmission channels , if at least a predetermined number of the wireless transmission channels have a same angle of arrival, and otherwise combine the plurality of partial key data to obtain the key; and wherein the data processor is adapted to decrypt, based on the key, encrypted data which are received from said further wireless communication device and encrypted with the key.
An absorbent article comprising a topsheet , a backsheet joined to the topsheet ; and an absorbent core positioned between the topsheet and the backsheet , the absorbent core having longitudinal edges and end edges; the absorbent article having a leg cuff extending along each longitudinal edge of the absorbent core, the leg cuff having a lifted position and a flat position, the leg cuff having a height (H), a width (W), a length, a volume , an upper surface , an inner barrier , an outer barrier , a lower surface , and a cross-sectional area that is a generally quadrilateral shape in the lifted position, the cross-sectional area being defined by the upper surface , the inner barrier , the outer barrier , and the lower surface , wherein the lower surface is attached to the topsheet using adhesive , and wherein the upper surface comprises an elastic material , characterized in that the elastic material containing portion of the leg cuff is folded back onto leg cuff to form a triple layer body contacting surface .
An apparatus for wireless communications, comprising: a first interface configured to: obtain monitoring information for a downlink control channel while operating in an active state of a discontinuous reception, DRX, mode; and the apparatus is characterised in that the first interface configured to: obtain a downlink control information, DCI, message scheduling a downlink data message based at least in part on the monitoring information, wherein the DCI message indicates a feedback transmission opportunity, TxOP, for the downlink data message; and a processing system configured to: activate a first timer subsequent to the feedback TxOP for the downlink data message and based at least in part on an end of the feedback TxOP; and activate a second timer upon expiration of the first timer, wherein the processing system remains in the active state of the DRX mode while the second timer is running. a first interface configured to: obtain monitoring information for a downlink control channel while operating in an active state of a discontinuous reception, DRX, mode; and the apparatus is characterised in that the first interface configured to: obtain a downlink control information, DCI, message scheduling a downlink data message based at least in part on the monitoring information, wherein the DCI message indicates a feedback transmission opportunity, TxOP, for the downlink data message; and obtain monitoring information for a downlink control channel while operating in an active state of a discontinuous reception, DRX, mode; and the apparatus is characterised in that the first interface configured to: obtain a downlink control information, DCI, message scheduling a downlink data message based at least in part on the monitoring information, wherein the DCI message indicates a feedback transmission opportunity, TxOP, for the downlink data message; and a processing system configured to: activate a first timer subsequent to the feedback TxOP for the downlink data message and based at least in part on an end of the feedback TxOP; and activate a second timer upon expiration of the first timer, wherein the processing system remains in the active state of the DRX mode while the second timer is running. activate a first timer subsequent to the feedback TxOP for the downlink data message and based at least in part on an end of the feedback TxOP; and activate a second timer upon expiration of the first timer, wherein the processing system remains in the active state of the DRX mode while the second timer is running.
A wet shaving device comprising: a motor ; an actuator configured to vary the speed of the motor; a rotary blade module having at least one cutting element ; and a drive train assembly including a first shaft , a second shaft , and a third shaft operatively coupling the motor and the rotary blade module , the first, second and third shafts being configured to transfer the rotational movement of the motor to the rotary blade module; characterized in that the third shaft is sealingly connected to the rotary blade module . a motor ; an actuator configured to vary the speed of the motor; a rotary blade module having at least one cutting element ; and a drive train assembly including a first shaft , a second shaft , and a third shaft operatively coupling the motor and the rotary blade module , the first, second and third shafts being configured to transfer the rotational movement of the motor to the rotary blade module; characterized in that the third shaft is sealingly connected to the rotary blade module .
A panel as a construction element comprising two parallel skin plates made of wood or a wood material, between which ribs extend for stiffening the panel, characterised in that the ribs are made of MDF and extend the same distance at the side of one of the skin plates and extend the same distance at the side of the other skin plate, wherein the ribs have a thickness of 0.5 to 2 mm, wherein the ribs are attached to the skin plates, wherein the ribs are glued to the skin plates, and wherein a fibre mat is provided between the ribs and the skin plates for stiffening purposes, wherein the ribs jointly form a pattern of squares, and wherein the ribs are provided with equally spaced notches , via which the ribs are interlocked in a fixed orientation with respect to each other, in which crosswise, interlocked orientation the ribs are spaced a fixed distance apart.
A jaw support device, comprising: a headrest mount assembly structured and configured to attach to a dental chair headrest; a split sphere assembly comprising a first locking mechanism, wherein the split sphere assembly attaches to the headrest mount assembly ; a ball joint assembly comprising a second locking mechanism, wherein the ball joint assembly connects to the split sphere assembly ; and a jaw rest assembly structured configured to attach to the ball joint assembly . a headrest mount assembly structured and configured to attach to a dental chair headrest; a split sphere assembly comprising a first locking mechanism, wherein the split sphere assembly attaches to the headrest mount assembly ; a ball joint assembly comprising a second locking mechanism, wherein the ball joint assembly connects to the split sphere assembly ; and a jaw rest assembly structured configured to attach to the ball joint assembly .
A product display unit for displaying products, the product display unit comprising: a track defining a non-linear path ; and a pusher that moves along the non-linear path and is configured to move the products along the non-linear path; characterized in that : the track has a first leg and a second leg that extends transverse to the first leg, and the pusher moves along the first leg and the second leg; and the pusher extends along a pusher axis and has a spring with a first end coiled at the pusher and a second end connected to the track. a track defining a non-linear path ; and a pusher that moves along the non-linear path and is configured to move the products along the non-linear path; characterized in that : the track has a first leg and a second leg that extends transverse to the first leg, and the pusher moves along the first leg and the second leg; and the pusher extends along a pusher axis and has a spring with a first end coiled at the pusher and a second end connected to the track.
A compound of Formula (I): wherein either R 1 and R 2 each independently represent hydrogen or a group -O-CR 5 R 6 -CR 7 R 8 -O(C 1-3 -alkyl) wherein R 5 , R 6 , R 7 and R 8 each independently represent hydrogen or methyl; or one of R 5 or R 6 represents -CH 2 OMe; with the proviso that R 1 and R 2 cannot both represent hydrogen; or R 2 represents hydrogen and R 1 represents (i) a group selected from or (ii) a group selected from or (iii) a group selected from or R 2 represents hydrogen and R 1 represents or R 2 represents hydrogen and R 1 represents a group -O(CH 2 ) 3 OMe; or one of R 1 and R 2 represents a group -O(CH 2 ) 2 OMe and the other represents -O(CH 2 ) 2 F; and R 3 represents hydrogen or fluoro; with the proviso that where R 1 and R 2 both represent other than hydrogen then R 3 represents hydrogen; or a pharmaceutically acceptable salt thereof. either R 1 and R 2 each independently represent hydrogen or a group -O-CR 5 R 6 -CR 7 R 8 -O(C 1-3 -alkyl) wherein R 5 , R 6 , R 7 and R 8 each independently represent hydrogen or methyl; or one of R 5 or R 6 represents -CH 2 OMe; with the proviso that R 1 and R 2 cannot both represent hydrogen; or R 2 represents hydrogen and R 1 represents (i) a group selected from or (ii) a group selected from or (iii) a group selected from (i) a group selected from or (ii) a group selected from or (iii) a group selected from or R 2 represents hydrogen and R 1 represents or R 2 represents hydrogen and R 1 represents a group -O(CH 2 ) 3 OMe; or one of R 1 and R 2 represents a group -O(CH 2 ) 2 OMe and the other represents -O(CH 2 ) 2 F; and R 3 represents hydrogen or fluoro; with the proviso that where R 1 and R 2 both represent other than hydrogen then R 3 represents hydrogen; or a pharmaceutically acceptable salt thereof.