mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging system , comprising: a first scanner with a first examination region ; a subject support , including: a tabletop configured to position a subject or object at at least two different positions in the examination region, wherein a deflection of the tabletop is different at the at least two different positions; and a base configured to position the tabletop vertically in the examination region; and a vertical drive system ; a subject / object weight estimator configured to estimate a weight of a subject or object on the tabletop; a deflection delta predictor configured to predict a deflection delta of the tabletop between the at least two different positions based at least on the weight, wherein the predicted deflection delta is used to correct for the deflection delta, characterized in that the subject / object weight estimator is configured to estimate a weight of a subject or object on the tabletop based at least on an electrical characteristic of the vertical drive system. a first scanner with a first examination region ; a subject support , including: a tabletop configured to position a subject or object at at least two different positions in the examination region, wherein a deflection of the tabletop is different at the at least two different positions; and a base configured to position the tabletop vertically in the examination region; and a tabletop configured to position a subject or object at at least two different positions in the examination region, wherein a deflection of the tabletop is different at the at least two different positions; and a base configured to position the tabletop vertically in the examination region; and a vertical drive system ; a subject / object weight estimator configured to estimate a weight of a subject or object on the tabletop; a deflection delta predictor configured to predict a deflection delta of the tabletop between the at least two different positions based at least on the weight, wherein the predicted deflection delta is used to correct for the deflection delta, characterized in that the subject / object weight estimator is configured to estimate a weight of a subject or object on the tabletop based at least on an electrical characteristic of the vertical drive system.
A compound of Formula (I) or a pharmaceutically acceptable salt thereof, wherein R 1 is selected from the group consisting of hydrogen, -carbonyl(C 1 -C 8 )alkyl(C 1 -C 8 )alkylene, -carbonyl(C 1 -C 8 )alkyl(C 1 -C 8 )alkylene(C 1 -C 8 )alkyl, -carbonyl(C 1 -C 8 )alkylene(C 6 -C 20 )aryl, -carbonyl(C 1 -C 8 )alkylene(C 1 -C 8 )alkoxy(C 6 -C 20 )aryl, - carbonyl(C 1 -C 8 )alkylene, -carbonyl(C 1 -C 8 )haloalkyl, -carbonyl(C 1 -C 8 )alkyl, -carbonyl(C 1 -C 8 )alkylOCO(C 1 -C 8 )alkyl, -carbonyl(C 1 -C 8 )alkylene(C 1 -C 8 )alkyl(C 1 -C 8 )alkylene, - carbonyl(C 1 -C 8 )alkanol(C 1 -C 8 )alkyl, -carbonyl(C 1 -C 8 )alkylene(C 1 -C 8 )alkyl(C 6 -C 20 )aryl, - carbonyl(C 1 -C 8 )alkylenehalo(C 6 -C 20 )aryl, -carbonyl(C 1 -C 8 )alkylene(C 3 -C 8 )heteroaryl, - carbonyl(C 6 -C 20 )aryl, -carbonyl(C 1 -C 8 )alkoxy(C 6 -C 20 )aryl, -carbonyl(C 1 -C 8 )alkyl(C 6 -C 20 )aryl, -carbonylhalo(C 6 -C 20 )aryl, -carbonyl(C 3 -C 8 )cycloalkyl, (C 1 -C 8 )alkylene(C 1 -C 8 )haloalkyl(C 6 -C 20 )aryl, and -carbonyl(C 1 -C 8 )alkyl(C 1 -C 8 )alkoxy(C 6 -C 20 )aryl.
A capacitive touch panel , comprising: a substrate and a touch sensor with a plurality of conductive elements arranged to form a single-layer plane sensing matrix on a same surface of the substrate to generate sense signal of a first axis and a second axis of the sensing matrix, wherein the conductive elements are arranged in rows extending parallel to the first axis and in columns extending parallel to the second axis, wherein each two adjacent conductive elements form first parasitic capacitors therebetween on the first axis and second axis of the sensing matrix, respectively, and each conductive element forms a second parasitic capacitor with ground; and wherein the touch sensor further comprises: an input bus electrically connected to one end of the rows of the sensing matrix; and an output bus electrically connected to one end of the columns of the sensing matrix. a substrate and a touch sensor with a plurality of conductive elements arranged to form a single-layer plane sensing matrix on a same surface of the substrate to generate sense signal of a first axis and a second axis of the sensing matrix, wherein the conductive elements are arranged in rows extending parallel to the first axis and in columns extending parallel to the second axis, wherein each two adjacent conductive elements form first parasitic capacitors therebetween on the first axis and second axis of the sensing matrix, respectively, and each conductive element forms a second parasitic capacitor with ground; and wherein the touch sensor further comprises: an input bus electrically connected to one end of the rows of the sensing matrix; and an output bus electrically connected to one end of the columns of the sensing matrix. an input bus electrically connected to one end of the rows of the sensing matrix; and an output bus electrically connected to one end of the columns of the sensing matrix.
A method for receiving an uplink frame in a wireless communication system, the method comprising: Receiving , by an access point, AP , an uplink orthogonal frequency division multiple access, OFDMA, frame , wherein the uplink OFDMA frame comprises a payload , the payload comprising one or more OFDMA symbols, each of the one or more OFDMA symbols comprising 256 tones per 20 MHz of channel bandwidth including data tones and dedicated pilot tones , the data tones and dedicated pilot tones being partitioned into a plurality of resource units, RUs , the resource units communicated by at least two different mobile stations , wherein each of the RUs in each OFDMA symbol carries at least two dedicated pilot tones ; and performing residual carrier frequency offset compensation by tracking a phase of pilot symbols in each RU of each payload OFDMA symbol based on the at least two dedicated pilot tones carried in each respective RU, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the at least two dedicated pilot tones carried in each respective RU. Receiving , by an access point, AP , an uplink orthogonal frequency division multiple access, OFDMA, frame , wherein the uplink OFDMA frame comprises a payload , the payload comprising one or more OFDMA symbols, each of the one or more OFDMA symbols comprising 256 tones per 20 MHz of channel bandwidth including data tones and dedicated pilot tones , the data tones and dedicated pilot tones being partitioned into a plurality of resource units, RUs , the resource units communicated by at least two different mobile stations , wherein each of the RUs in each OFDMA symbol carries at least two dedicated pilot tones ; and performing residual carrier frequency offset compensation by tracking a phase of pilot symbols in each RU of each payload OFDMA symbol based on the at least two dedicated pilot tones carried in each respective RU, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the at least two dedicated pilot tones carried in each respective RU.
An inductive power transfer apparatus suitable for producing or receiving a magnetic field for inductive power transfer, the apparatus comprising: a central coil having first and second ends and an axis therebetween extending in a horizontal direction, two end coils , with axes extending in a vertical direction, each one of the two end coils being provided at or adjacent to each end of the central coil , and a magnetically permeable structure which is located along the axis of the central coil , characterised in that one or more turns of each end coil are provided above and the remaining turns are provided below the permeable structure a central coil having first and second ends and an axis therebetween extending in a horizontal direction, two end coils , with axes extending in a vertical direction, each one of the two end coils being provided at or adjacent to each end of the central coil , and a magnetically permeable structure which is located along the axis of the central coil , characterised in that one or more turns of each end coil are provided above and the remaining turns are provided below the permeable structure
Ventilation device for a drive motor , in particular for a drive motor of a rail vehicle , comprising: - a central shaft extending along a central axis (X-X'), intended to be driven in rotation by said drive motor ; - a housing , disposed around the central shaft and comprising a plurality of ventilation holes , the housing comprising an inner face and an outer face ; characterised in that the holding element comprises: - a plurality of axial fans , each axial fan being disposed in a ventilation port ; and - drive means for the axial fans , the drive means being adapted to rotate the plurality of axial fans in a normal direction of rotation to generate airflow from the outer face to the inner face and to rotate the plurality of axial fans in a reverse direction of rotation to generate airflow from the inner face to the outer face . - a central shaft extending along a central axis (X-X'), intended to be driven in rotation by said drive motor ; - a housing , disposed around the central shaft and comprising a plurality of ventilation holes , the housing comprising an inner face and an outer face ; characterised in that the holding element comprises: - a plurality of axial fans , each axial fan being disposed in a ventilation port ; and - drive means for the axial fans , - a plurality of axial fans , each axial fan being disposed in a ventilation port ; and - drive means for the axial fans , the drive means being adapted to rotate the plurality of axial fans in a normal direction of rotation to generate airflow from the outer face to the inner face and to rotate the plurality of axial fans in a reverse direction of rotation to generate airflow from the inner face to the outer face .
An adjusting assembly for an exoskeleton robot, the adjusting assembly comprising: a first plate , including at least one pin extending along an axis in a first direction, said axis being a common alignment axis in case of a plurality of pins (P11, P12, P21, P22); a second plate pivotably connected to the first plate via a first shaft ; and a second shaft extending in parallel with the first shaft in the first direction, and including a body and at least one recess (R1, R2, R3), the second shaft configured to rotate to a first position to accommodate the at least one pin in the at least one recess, and to a second position to release the at least one pin from the at least one recess, wherein at the first position the second plate is blocked from rotation about the first shaft by the body, and at the second position the second plate is allowed to rotate about the first shaft. a first plate , including at least one pin extending along an axis in a first direction, said axis being a common alignment axis in case of a plurality of pins (P11, P12, P21, P22); a second plate pivotably connected to the first plate via a first shaft ; and a second shaft extending in parallel with the first shaft in the first direction, and including a body and at least one recess (R1, R2, R3), the second shaft configured to rotate to a first position to accommodate the at least one pin in the at least one recess, and to a second position to release the at least one pin from the at least one recess, wherein at the first position the second plate is blocked from rotation about the first shaft by the body, and at the second position the second plate is allowed to rotate about the first shaft.
A method performed by a transmitting node for processing a multi-destination frame in a network , the method comprising: generating a multi-destination frame that comprises a control block type, a receiver list that identifies multiple receivers, and a data payload, wherein the control block type is used to indicate: the multiple receivers to accept the multi-destination frame without discarding the multi-destination frame ; or the multiple receivers to process the multi-destination frame by discarding the multi-destination frame ; sending the multi-destination frame to a receiving node (106A-106H) using a wireless radio link. the multiple receivers to accept the multi-destination frame without discarding the multi-destination frame ; or the multiple receivers to process the multi-destination frame by discarding the multi-destination frame ; sending the multi-destination frame to a receiving node (106A-106H) using a wireless radio link.
An obstacle touching detecting device for a swimming pool cleaner, wherein the obstacle touching detecting device is configured to detect whether an obstacle is met when cleaning work is performed and is configured to be disposed in a main functional portion of the swimming pool cleaner, said swimming pool cleaner comprising a cleaner main body , a controller module and a power-driven actuating device wherein the obstacle touching detecting device for a swimming pool cleaner comprises an obstacle touching sensor, the obstacle touching sensor comprises a trigger unit device and a sensor detecting module , the trigger unit device is connectable to the cleaner main body , the sensor detecting module is electrically connectable to the controller module , the controller module is electrically connectable to the power-driven actuating device, and the trigger unit device is operatively connected with the sensor detecting module and is configured to trigger the sensor detecting module to generate a detection signal, the trigger unit device comprises at least one resistance plate (11, 11-1, 11-2) characterized in that the resistance plate (11, 11-1, 11-2) is configured to move toward the direction opposite to the moving direction under the resistance of the water. said swimming pool cleaner comprising a cleaner main body , a controller module and a power-driven actuating device wherein the obstacle touching detecting device for a swimming pool cleaner comprises an obstacle touching sensor, the obstacle touching sensor comprises a trigger unit device and a sensor detecting module , the trigger unit device is connectable to the cleaner main body , the sensor detecting module is electrically connectable to the controller module , the controller module is electrically connectable to the power-driven actuating device, and the trigger unit device is operatively connected with the sensor detecting module and is configured to trigger the sensor detecting module to generate a detection signal, the trigger unit device comprises at least one resistance plate (11, 11-1, 11-2) characterized in that the resistance plate (11, 11-1, 11-2) is configured to move toward the direction opposite to the moving direction under the resistance of the water.
A scrubbing and sampling device comprising: a scrubbing and sampling portion comprising a first wheel and a second wheel , said first wheel and second wheel respectively capable of rotating around respective rotating axes, and a scrubbing conveyor belt tensioned by the first wheel and the second wheel forming a loop between the first wheel and the second wheel and driven by rotation of the first wheel and the second wheel , to move between them; and a desorbing portion configured to desorb properties of a sample that is conveyed into the desorbing portion, wherein the scrubbing conveyor belt is configured to move through the desorbing portion such that the desorbing portion desorbs the sample on the scrubbing conveyor belt when the scrubbing conveyor belt enters the desorbing portion; characterised by the desorbing portion comprising a desorbing chamber comprising a scrubbing conveyor belt intake through which the scrubbing conveyor belt enters the desorbing chamber , a scrubbing conveyor belt exit through which the scrubbing conveyor belt exits the desorbing chamber , and a sample outlet configured to output the sample in the desorbing chamber ; wherein the desorbing chamber comprises a scrubbing conveyor belt exit sealant configured at the scrubbing conveyor belt exit to seal the scrubbing conveyor belt exit and clean the scrubbing conveyor belt passing through the scrubbing conveyor belt exit . a scrubbing and sampling portion comprising a first wheel and a second wheel , said first wheel and second wheel respectively capable of rotating around respective rotating axes, and a scrubbing conveyor belt tensioned by the first wheel and the second wheel forming a loop between the first wheel and the second wheel and driven by rotation of the first wheel and the second wheel , to move between them; and a desorbing portion configured to desorb properties of a sample that is conveyed into the desorbing portion, wherein the scrubbing conveyor belt is configured to move through the desorbing portion such that the desorbing portion desorbs the sample on the scrubbing conveyor belt when the scrubbing conveyor belt enters the desorbing portion; characterised by the desorbing portion comprising a desorbing chamber comprising a scrubbing conveyor belt intake through which the scrubbing conveyor belt enters the desorbing chamber , a scrubbing conveyor belt exit through which the scrubbing conveyor belt exits the desorbing chamber , and a sample outlet configured to output the sample in the desorbing chamber ; wherein the desorbing chamber comprises a scrubbing conveyor belt exit sealant configured at the scrubbing conveyor belt exit to seal the scrubbing conveyor belt exit and clean the scrubbing conveyor belt passing through the scrubbing conveyor belt exit .
A locking device for an electric charging device of a motor vehicle, in particular of an electric or hybrid motor vehicle, having a movable bolt element , which is provided for releasably locking a charging plug in a charging socket of the electric charging device , and having a motor drive for moving the bolt element , wherein the motor drive is designed as a component of a modular locking actuator that can be connected to a charging module in the course of assembly, wherein the locking actuator additionally has the bolt element in addition to the motor drive , wherein the bolt element is held in a displaceable and sealing manner with the interposition of a seal recessed into a locking actuator housing , wherein the locking actuator is equipped with plug-in contacts , which, in the course of assembly, engage in at least one associated plug-in socket in the charging module , or vice versa, wherein the plug-in contacts are arranged in a plug-in projection of the locking actuator housing , wherein the plug-in projection enters a receptacle of the charging module housing during a plug-in operation between the locking actuator and the charging module , wherein an additionally provided seal ensures a sealing in this case.
An information processing apparatus (100; 210) comprising: a control unit configured to transmit an inducement frame for causing another communication device to transmit a transmission suppression period reduction frame for reducing a transmission suppression period, characterized in that the control unit is further configured to transmit said transmission suppression period reduction frame a predetermined time after the transmission of the inducement frame. a control unit configured to transmit an inducement frame for causing another communication device to transmit a transmission suppression period reduction frame for reducing a transmission suppression period, characterized in that the control unit is further configured to transmit said transmission suppression period reduction frame a predetermined time after the transmission of the inducement frame.
A centrifugal pump for conveying a fluid, having a pump housing in which a rotor is provided for conveying the fluid, and having a stator which, together with the rotor , forms an electromagnetic rotary drive for rotating the rotor about an axial direction (A), wherein the stator is designed as a bearing and drive stator with which the rotor can be magnetically driven without contact and magnetically levitated without contact with respect to the stator , wherein the rotor is passively magnetically levitated in the axial direction (A), and is actively magnetically levitated in a radial plane perpendicular to the axial direction (A), wherein the pump housing comprises a bottom and a cover , and wherein the rotor is arranged in the pump housing between the bottom and the cover with respect to the axial direction (A), characterized in that at least one indentation is provided in the bottom and/or in the cover , which indentation is designed to generate a local turbulence.
A packet data processing method for use in a packet data processing system, the packet data processing system comprising a first processing apparatus and a second processing apparatus, wherein the first processing apparatus is a central processing unit, and the second processing apparatus is a coprocessor; wherein the first processing apparatus runs a first virtual machine and a second virtual machine; the method comprising: acquiring , by the first virtual machine, packet data that needs to be processed, wherein the packet data that needs to be processed comprises first packet data information and second packet data, and the first packet data information comprises a header of the packet data that needs to be processed and a storage address of the second packet data that needs to be processed in the first processing apparatus; sending , by the first virtual machine to the second processing apparatus, the first packet data information, so that the second processing apparatus processes the first packet data information; and receiving , by the second virtual machine from the second processing apparatus, first packet data information processed by the second processing apparatus, and generating, by the second virtual machine, finished packet data by using the first packet data information processed by the second processing apparatus and the second packet data indicated by the storage address, wherein the first packet data information processed by the second processing apparatus comprises an updated header processed by the second processing apparatus and the storage address. acquiring , by the first virtual machine, packet data that needs to be processed, wherein the packet data that needs to be processed comprises first packet data information and second packet data, and the first packet data information comprises a header of the packet data that needs to be processed and a storage address of the second packet data that needs to be processed in the first processing apparatus; sending , by the first virtual machine to the second processing apparatus, the first packet data information, so that the second processing apparatus processes the first packet data information; and receiving , by the second virtual machine from the second processing apparatus, first packet data information processed by the second processing apparatus, and generating, by the second virtual machine, finished packet data by using the first packet data information processed by the second processing apparatus and the second packet data indicated by the storage address, wherein the first packet data information processed by the second processing apparatus comprises an updated header processed by the second processing apparatus and the storage address.