mhurhangee/patent-ind-claim-en huggingface dataset:
Adjustable seat device , characterized in that it comprises: - a linear mount ; - at least one upper means for supporting the linear mount configured to rest on a horizontal surface at the edge of a swimming pool, and at least one lower means for supporting the linear mount configured to rest on an inner wall of the pool; - a seat ; - an upper seat bar , having one extremity equipped with a first seat slider configured to slide along the linear mount, and a means for locking the first slider in position on the linear mount; - a lower seat bar , having one extremity equipped with a second seat slider configured to slide along the linear mount, and a means for locking the second slider in position on the linear mount; characterized in that the two seat bars jointly bear the seat and are linked to each other by a pivoting connection , such that the seat sliders slide independently along the linear mount, the height of the seat being adjusted by sliding both seat sliders, and at least the spacing between the seat and the linear mount being adjusted by the respective sliding of the seat sliders. - a linear mount ; - at least one upper means for supporting the linear mount configured to rest on a horizontal surface at the edge of a swimming pool, and at least one lower means for supporting the linear mount configured to rest on an inner wall of the pool; - a seat ; - an upper seat bar , having one extremity equipped with a first seat slider configured to slide along the linear mount, and a means for locking the first slider in position on the linear mount; a first seat slider configured to slide along the linear mount, and a means for locking the first slider in position on the linear mount; - a lower seat bar , having one extremity equipped with a second seat slider configured to slide along the linear mount, and a means for locking the second slider in position on the linear mount; a second seat slider configured to slide along the linear mount, and a means for locking the second slider in position on the linear mount;
An electronic device comprising: a touchscreen configured to display; and a processor configured to: display at least a first application in a first window and a second application in a second window on the touchscreen , detect a touchscreen input via the touchscreen , and change the second window according to the touchscreen input, wherein the first window is changed to a full-screen configuration , and the second window is changed to a pop-up window displayed over at least a part of the first window . a touchscreen configured to display; and a processor configured to: display at least a first application in a first window and a second application in a second window on the touchscreen , detect a touchscreen input via the touchscreen , and change the second window according to the touchscreen input, wherein the first window is changed to a full-screen configuration , and the second window is changed to a pop-up window displayed over at least a part of the first window . display at least a first application in a first window and a second application in a second window on the touchscreen , detect a touchscreen input via the touchscreen , and change the second window according to the touchscreen input, wherein the first window is changed to a full-screen configuration , and the second window is changed to a pop-up window displayed over at least a part of the first window .
A method of determining, with a Near-Field electronic reader comprising at least two antennas , a location of a selected electronic tag amongst an array of closely stacked tags , the method comprising: generating at least two magnetic fields using the at least two antennas, the at least two magnetic fields causing intersecting lines of magnetic flux relative to the array of closely stacked tags, the intersecting lines of magnetic flux defining at least one detection zone ; sequentially switching each antenna to receive sequential antenna signals indicative of tags within each magnetic field, the antenna signals including detection zone readings; characterised in that the method further comprises: responsive to at least two successive sequential switching operations, obtaining a difference in two successive detection zone readings; and generating an output signal indicative of the location of the selected electronic tag relative to the at least one detection zone . generating at least two magnetic fields using the at least two antennas, the at least two magnetic fields causing intersecting lines of magnetic flux relative to the array of closely stacked tags, the intersecting lines of magnetic flux defining at least one detection zone ; sequentially switching each antenna to receive sequential antenna signals indicative of tags within each magnetic field, the antenna signals including detection zone readings; responsive to at least two successive sequential switching operations, obtaining a difference in two successive detection zone readings; and generating an output signal indicative of the location of the selected electronic tag relative to the at least one detection zone .
An input display device comprising: a display configured to display an image; a capacitive touch panel configured to be attached onto the display and include at least one three-dimensional operation portion on a surface of the touch panel ; and a detection unit configured to detect an operation on the touch panel , wherein the three-dimensional operation portion includes a pulling portion imitating a shape of a pulling type switch , and the detection unit is configured to determine whether or not there is a pulling operation by detecting a change in a capacitance in response to a change in a distance to the touch panel from a finger touching the pulling portion . a display configured to display an image; a capacitive touch panel configured to be attached onto the display and include at least one three-dimensional operation portion on a surface of the touch panel ; and a detection unit configured to detect an operation on the touch panel , wherein the three-dimensional operation portion includes a pulling portion imitating a shape of a pulling type switch , and the detection unit is configured to determine whether or not there is a pulling operation by detecting a change in a capacitance in response to a change in a distance to the touch panel from a finger touching the pulling portion .
Electrical assembly , having an electronic switching element , which is electrically contacted on its underside and is arranged on a flexible first wiring support of the electrical assembly and has at least one power semiconductor , wherein - the electronic switching element is additionally electrically contacted on an upper side lying opposite the underside, - the electrical assembly has a second wiring support , which is arranged lying opposite the first wiring support on the upper side electrical contacting area of the electronic switching element , - the first and the second wiring supports are each formed at least in part from a permanently elastic, electrically insulating, thermally conductive material , characterised in that - in all connection planes of the electrical assembly , in which in each case at least two components are connected to one another, the respective components are connected to each other by a force fit while foregoing an integrally bonded connection. - the electronic switching element is additionally electrically contacted on an upper side lying opposite the underside, - the electrical assembly has a second wiring support , which is arranged lying opposite the first wiring support on the upper side electrical contacting area of the electronic switching element , - the first and the second wiring supports are each formed at least in part from a permanently elastic, electrically insulating, thermally conductive material , characterised in that - in all connection planes of the electrical assembly , in which in each case at least two components are connected to one another, the respective components are connected to each other by a force fit while foregoing an integrally bonded connection.
A data storage method, comprising: receiving, by a terminal equipment, configuration signaling sent by a base station (S110); and determining, by the terminal equipment, a first parameter according to the configuration signaling, a number of Transport Blocks, TBs, stored in a buffer by the terminal equipment being not smaller than the first parameter when a number of TBs received by the terminal equipment and failed to be decoded is not smaller than the first parameter (S120); the method further comprising: determining, by the terminal equipment, a minimum to-be-stored bit number n SB of each Coded Block, CB, in the to-be-stored TBs which are failed to be decoded, according to the first parameter; wherein determining the minimum to-be-stored bit number n SB of each CB comprises: for a correctly decoded CB, determining n SB = min K Π ⌊ N ′ soft C ⋅ N num _ TB ⌋ , and for other CBs, determining n SB = min N cb ⌊ N ′ soft C ⋅ N num _ TB ⌋ , where min represents minimalization, └ ̇┘ represents rounding-down, K Π represents a system information length of the corresponding CB ,N cb represents the coded bit length input for the corresponding CB in the rate matcher of the base station, C represents the number of the CBs comprised in the to-be-stored TBs which are failed to be decoded, N' soft represents one of the total lengths of the multiple buffers reported by the terminal equipment, and N num_TB is the first parameter. receiving, by a terminal equipment, configuration signaling sent by a base station (S110); and determining, by the terminal equipment, a first parameter according to the configuration signaling, a number of Transport Blocks, TBs, stored in a buffer by the terminal equipment being not smaller than the first parameter when a number of TBs received by the terminal equipment and failed to be decoded is not smaller than the first parameter (S120); the method further comprising: determining, by the terminal equipment, a minimum to-be-stored bit number n SB of each Coded Block, CB, in the to-be-stored TBs which are failed to be decoded, according to the first parameter; wherein determining the minimum to-be-stored bit number n SB of each CB comprises: for a correctly decoded CB, determining n SB = min K Π ⌊ N ′ soft C ⋅ N num _ TB ⌋ , and for other CBs, determining n SB = min N cb ⌊ N ′ soft C ⋅ N num _ TB ⌋ , for a correctly decoded CB, determining n SB = min K Π ⌊ N ′ soft C ⋅ N num _ TB ⌋ , and for other CBs, determining n SB = min N cb ⌊ N ′ soft C ⋅ N num _ TB ⌋ , where min represents minimalization, └ ̇┘ represents rounding-down, K Π represents a system information length of the corresponding CB ,N cb represents the coded bit length input for the corresponding CB in the rate matcher of the base station, C represents the number of the CBs comprised in the to-be-stored TBs which are failed to be decoded, N' soft represents one of the total lengths of the multiple buffers reported by the terminal equipment, and N num_TB is the first parameter.
Transduced T-Rapa cells for use in a method of treating a lysosomal storage disorder in a subject, the method comprising the steps of: (a) conditioning T-cells from the subject or suitable donor with rapamycin ex vivo to generate T-Rapa cells; (b) transducing the T-Rapa cells in vitro with a vector comprising a transgene of interest that encodes an enzyme associated with lysosomal storage disorder; and (c) administering the transduced T-Rapa cells to the subject, wherein the T-Rapa cells express the enzyme associated with lysosomal storage disorder in the subject and reduce one or more symptoms of the lysosomal storage disorder. (a) conditioning T-cells from the subject or suitable donor with rapamycin ex vivo to generate T-Rapa cells; (b) transducing the T-Rapa cells in vitro with a vector comprising a transgene of interest that encodes an enzyme associated with lysosomal storage disorder; and (c) administering the transduced T-Rapa cells to the subject, wherein the T-Rapa cells express the enzyme associated with lysosomal storage disorder in the subject and reduce one or more symptoms of the lysosomal storage disorder.
A chip device, comprising a main unit and a plurality of basic units, the main unit being a hardware chip unit, and the plurality of basic units being also hardware chip units, wherein the main unit is configured to perform each continuous operation in a neural network and to transmit data with the basic units; and the basic units are configured to perform parallel acceleration operations in the neural network according to the data transmitted by the main unit, and to transmit operation results to the main unit; wherein the main unit is configured to: obtain a data block to-be-calculated and an operation instruction; divide the data block to-be-calculated into a distribution data block and a broadcast data block according to the operation instruction; obtain a plurality of basic data blocks by splitting the distribution data block; and distribute the plurality of basic data blocks to the basic units and broadcast the broadcast data block to the basic units; the basic units are configured to: obtain operation results by performing inner-product operations for the basic data blocks and the broadcast data block; and send the operation results to the main unit; and the main unit is further configured to obtain an instruction result corresponding to the data block to-be-calculated and the operation instruction by processing the operation results. the main unit is configured to perform each continuous operation in a neural network and to transmit data with the basic units; and the basic units are configured to perform parallel acceleration operations in the neural network according to the data transmitted by the main unit, and to transmit operation results to the main unit; wherein the main unit is configured to: obtain a data block to-be-calculated and an operation instruction; divide the data block to-be-calculated into a distribution data block and a broadcast data block according to the operation instruction; obtain a plurality of basic data blocks by splitting the distribution data block; and distribute the plurality of basic data blocks to the basic units and broadcast the broadcast data block to the basic units; the basic units are configured to: obtain operation results by performing inner-product operations for the basic data blocks and the broadcast data block; and send the operation results to the main unit; and the main unit is further configured to obtain an instruction result corresponding to the data block to-be-calculated and the operation instruction by processing the operation results.
A process for the production of a nonwoven fabric comprising the steps of i) providing a nonwoven material, ii) subjecting the nonwoven material to binding by incorporating a yarn by knitting with a plurality of needles to form parallel rows of zig-zag stitches arranged substantially in the longitudinal direction (md), wherein at least one yarn capable of thermal shrinkage is used for knitting, iii) subjecting the bonded nonwoven material obtained in step ii) to a thermal shrinkage treatment at a temperature of 120 °C to 250 °C, wherein the yarn has a crimp, determined according to DIN 53830-4:1981-05, of from 41.0 % to 51.0%. i) providing a nonwoven material, ii) subjecting the nonwoven material to binding by incorporating a yarn by knitting with a plurality of needles to form parallel rows of zig-zag stitches arranged substantially in the longitudinal direction (md), wherein at least one yarn capable of thermal shrinkage is used for knitting, iii) subjecting the bonded nonwoven material obtained in step ii) to a thermal shrinkage treatment at a temperature of 120 °C to 250 °C,
A lay-shaft assembly for use in a vehicle transmission, comprising: - a lay-shaft which is rotatable around a central axis ; - a first gearwheel rotatable around the lay-shaft and the central axis ; - a second gearwheel fixedly connected to the lay-shaft and rotatable with the lay-shaft around the central axis ; and - a clutching assembly rotatable around the lay-shaft and the central axis , the clutching assembly comprising a driven gearwheel and a clutching mechanism for selectively coupling the rotation of the driven gearwheel to either the first gearwheel or the second gearwheel , wherein the clutching assembly has a first axial end and a second axial end opposite the first axial end , wherein the first gearwheel and the second gearwheel are arranged on a part of the lay-shaft extending from the first axial end of the clutching assembly , characterized in that the driven gearwheel extends around the clutching mechanism and is positioned between the first and the second axial end of the clutching assembly , - a lay-shaft which is rotatable around a central axis ; - a first gearwheel rotatable around the lay-shaft and the central axis ; - a second gearwheel fixedly connected to the lay-shaft and rotatable with the lay-shaft around the central axis ; and - a clutching assembly rotatable around the lay-shaft and the central axis , the clutching assembly comprising a driven gearwheel and a clutching mechanism for selectively coupling the rotation of the driven gearwheel to either the first gearwheel or the second gearwheel , wherein the clutching assembly has a first axial end and a second axial end opposite the first axial end , wherein the first gearwheel and the second gearwheel are arranged on a part of the lay-shaft extending from the first axial end of the clutching assembly , characterized in that the driven gearwheel extends around the clutching mechanism and is positioned between the first and the second axial end of the clutching assembly ,
A paintbrush holder with a brush holder volume, comprising a brush-receiving part , that is open at the top for receiving a brush, a spout-shaped part provided on a top side of the brush-receiving part , wherein the largest diameter of the spout-shaped part is larger than the largest diameter of the brush head of a brush to be inserted in the brush-receiving part, wherein the volume of the brush-receiving part below the smallest diameter is larger than the volume of the brush hairs of a brush to be inserted in the brush receiving part, Characterized in that the lower and smallest diameter of the spout-shaped part is configured to fit the average diameter of the head of a paintbrush to be inserted in the brush-receiving part , wherein the brush-receiving part narrows with an angle of 1° to 10°, wherein at least a part of the spout-shaped part comprises an elastomer , wherein said elastomer is provided at the level of the smallest diameter of the spout-shaped part, so that the elastomer is adapted, in use with the head of a matching paintbrush to be inserted in the brush-receiving part , to close the brush holder volume airtight and liquid tight, and wherein the spout-shaped part has a height such that a mass center of gravity of a paintbrush to be inserted falls in the paintbrush holder.
A mass detection device , comprising: a processor ; at least one sensor assembly , wherein the sensor assembly at least comprises a first sensor and a second sensor; the sensor assembly is configured to be connected to the processor and output a first sensing information and a second sensing information related to a mass of an object to be measured; characterized in that the processor is configured to acquire the first sensing information and the second sensing information to determine an initially measured mass of the object to be measured by each sensor, and according to a comparison between a selected initially measured mass of the object to be measured and a first set threshold and a comparison between an absolute value of a difference in the initially measured mass of the object to be measured by each sensor and a second set threshold, to determine a final mass of the object to be measured. a processor ; at least one sensor assembly , wherein the sensor assembly at least comprises a first sensor and a second sensor; the sensor assembly is configured to be connected to the processor and output a first sensing information and a second sensing information related to a mass of an object to be measured; characterized in that the processor is configured to acquire the first sensing information and the second sensing information to determine an initially measured mass of the object to be measured by each sensor, and according to a comparison between a selected initially measured mass of the object to be measured and a first set threshold and a comparison between an absolute value of a difference in the initially measured mass of the object to be measured by each sensor and a second set threshold, to determine a final mass of the object to be measured.
An apparatus for modulating the neural activity of afferent fibres of at least one pelvic nerve of a patient, the apparatus comprising: a first actuator configured to apply a first signal to said at least one pelvic nerve of the patient; and a controller coupled to the first actuator, the controller controlling the signal to be applied by the actuator, such that the signal modulates the neural activity of the afferent fibres of the nerve to produce a physiological response in the patient, wherein the first actuator is an electrode and the first signal is an electrical signal, and wherein the first signal comprises an AC waveform having a frequency of 1-10Hz and has a signal intensity of 0.25T-2.0T, wherein "T" is the threshold stimulation intensity required to evoke a reflex electromyogram (EMG) response in the external urethral sphincter (EUS). a first actuator configured to apply a first signal to said at least one pelvic nerve of the patient; and a controller coupled to the first actuator, the controller controlling the signal to be applied by the actuator, such that the signal modulates the neural activity of the afferent fibres of the nerve to produce a physiological response in the patient, wherein the first actuator is an electrode and the first signal is an electrical signal, and wherein the first signal comprises an AC waveform having a frequency of 1-10Hz and has a signal intensity of 0.25T-2.0T, wherein "T" is the threshold stimulation intensity required to evoke a reflex electromyogram (EMG) response in the external urethral sphincter (EUS).