mhurhangee/patent-ind-claim-en huggingface dataset:
A single-package high-field magnetoresistive angle sensor, comprising: at least one push-pull magnetoresistive bridge and a substrate , wherein the push-pull magnetoresistive bridge comprises 2 or 4 magnetoresistive bridge arms, each magnetoresistive bridge arm comprises a plurality of magnetoresistive sensor units internally connected to form a two-port structure, the magnetoresistive sensor units are of an MTJ or GMR type, the magnetoresistive sensor units are deposited on the substrate, and all the magnetoresistive bridge arms are electrically connected to form the bridge; each magnetoresistive sensor unit comprises at least one pinned layer, a ferromagnetic reference layer , a nonmagnetic spacer layer and a ferromagnetic free layer , the intensity of magnetization of the ferromagnetic reference layer of the magnetoresistive sensor unit located on at least one of the magnetoresistive bridge arms of any push-pull magnetoresistive bridge being opposite to the intensity of magnetization of the ferromagnetic reference layer of the rest of the magnetoresistive bridge arms; and one or more soft magnetic flux attenuators that cover the surface of all the magnetoresistive sensor units to attenuate the external magnetic field, and the angle sensor comprising a bond pad or a through-silicon-via for the connection of electronic elements, characterized in that the ferromagnetic free layer of each magnetoresistive sensor unit is circular and the or each soft magnetic flux attenuator is circular. at least one push-pull magnetoresistive bridge and a substrate , wherein the push-pull magnetoresistive bridge comprises 2 or 4 magnetoresistive bridge arms, each magnetoresistive bridge arm comprises a plurality of magnetoresistive sensor units internally connected to form a two-port structure, the magnetoresistive sensor units are of an MTJ or GMR type, the magnetoresistive sensor units are deposited on the substrate, and all the magnetoresistive bridge arms are electrically connected to form the bridge; each magnetoresistive sensor unit comprises at least one pinned layer, a ferromagnetic reference layer , a nonmagnetic spacer layer and a ferromagnetic free layer , the intensity of magnetization of the ferromagnetic reference layer of the magnetoresistive sensor unit located on at least one of the magnetoresistive bridge arms of any push-pull magnetoresistive bridge being opposite to the intensity of magnetization of the ferromagnetic reference layer of the rest of the magnetoresistive bridge arms; and one or more soft magnetic flux attenuators that cover the surface of all the magnetoresistive sensor units to attenuate the external magnetic field, and the angle sensor comprising a bond pad or a through-silicon-via for the connection of electronic elements, characterized in that the ferromagnetic free layer of each magnetoresistive sensor unit is circular and the or each soft magnetic flux attenuator is circular.
A compound represented by the following formula : wherein X 1 to X 6 in the above formula are each independently of one another a sulfur atom, a carbon atom having a hydrogen atom, or a carbon atom having a substituent R 0 , and the substituent R 0 represents an alkyl group, an alkoxy group, an alkylthio group, an aromatic group, a halogen atom, a hydroxyl group, a mercapto group, a nitro group, a substituted amino group, an unsubstituted amino group, a cyano group, a sulfo group, an acyl group, a sulfamoyl group, an alkylsulfamoyl group, a carbamoyl group, or an alkylcarbamoyl group; and adjacent groups of X 1 to X 6 may be connected to each other to form a ring structure.
A wearable device , comprising: a first housing portion ; a second housing portion , the first housing portion and the second housing portion configured to couple together to form at least part of a device housing; a printed circuit board physically coupled to the first housing portion and comprising a first communications antenna physically connected thereto; a battery electrically connected to the printed circuit board ; and a second communications antenna physically connected to the second housing portion and comprising a first part (132A-1) and a second part (132B-1), wherein the first part (132A-1) of the second communications antenna overlaps a portion of the battery , and the second part (132B-1) of the second communications antenna overlaps a portion of the first communications antenna ; characterised in that the wearable device further comprises: sensing circuitry comprising one or more electronic components electrically connected to the printed circuit board ; and a sensor wire that is electrically coupled with the sensing circuitry and comprises a distal end that is configured to extend to a position beyond an exterior surface of the first housing portion . a first housing portion ; a second housing portion , the first housing portion and the second housing portion configured to couple together to form at least part of a device housing; a printed circuit board physically coupled to the first housing portion and comprising a first communications antenna physically connected thereto; a battery electrically connected to the printed circuit board ; and a second communications antenna physically connected to the second housing portion and comprising a first part (132A-1) and a second part (132B-1), wherein the first part (132A-1) of the second communications antenna overlaps a portion of the battery , and the second part (132B-1) of the second communications antenna overlaps a portion of the first communications antenna ; characterised in that the wearable device further comprises: sensing circuitry comprising one or more electronic components electrically connected to the printed circuit board ; and a sensor wire that is electrically coupled with the sensing circuitry and comprises a distal end that is configured to extend to a position beyond an exterior surface of the first housing portion . sensing circuitry comprising one or more electronic components electrically connected to the printed circuit board ; and a sensor wire that is electrically coupled with the sensing circuitry and comprises a distal end that is configured to extend to a position beyond an exterior surface of the first housing portion .
A prosthetic foot comprising a structural component with proximal connection means for fastening the prosthetic foot to a below knee tube, below knee shank or a prosthetic knee joint, a sole-side guide element comprising a posterior end, and a forefoot portion fastened to, or embodied at, the structural component and a heel-side spring-damper system assigned to the structural component , said spring-damper system being compressed at a heel strike and supporting itself on the sole-side guide element , the structural component is embodied as a leaf spring, which extends from the proximal connection means in the posterior direction, forms an arc and is guided in the anterior and distal directions, characterized in that the arc projecting beyond the guide element in the posterior direction.
A method for downlink feedback indication processing, performed by a user equipment, wherein the method comprises: receiving from a base station a downlink feedback indication, DFI, signal, wherein the DFI signal comprises an acknowledgment, ACK / Negative Acknowledgment, NACK, indication associated with a first Hybrid Automatic Repeat request, HARQ, process defined for a transmission to the base station of an uplink data packet using time slot aggregation, wherein the transmission of the uplink data packet using time slot aggregation comprises a transmission to the base station of a plurality of sub-packets via a plurality of physical uplink shared channels, PUSCHs, in a plurality of time slots and using one or more radio symbols; obtaining a minimum processing duration D corresponding to a minimum processing time required by the base station for processing the uplink data packet, wherein the minimum processing duration D is RRC, Radio Resource Control, configured or included in the DFI signal; and determining an effective ACK / NACK feedback for the first HARQ process on the basis of the ACK / NACK indication associated with the first HARQ process, the minimum processing duration D and a relative time position of at least one of the plurality of sub-packets with respect to the DFI signal. receiving from a base station a downlink feedback indication, DFI, signal, wherein the DFI signal comprises an acknowledgment, ACK / Negative Acknowledgment, NACK, indication associated with a first Hybrid Automatic Repeat request, HARQ, process defined for a transmission to the base station of an uplink data packet using time slot aggregation, wherein the transmission of the uplink data packet using time slot aggregation comprises a transmission to the base station of a plurality of sub-packets via a plurality of physical uplink shared channels, PUSCHs, in a plurality of time slots and using one or more radio symbols; obtaining a minimum processing duration D corresponding to a minimum processing time required by the base station for processing the uplink data packet, wherein the minimum processing duration D is RRC, Radio Resource Control, configured or included in the DFI signal; and determining an effective ACK / NACK feedback for the first HARQ process on the basis of the ACK / NACK indication associated with the first HARQ process, the minimum processing duration D and a relative time position of at least one of the plurality of sub-packets with respect to the DFI signal.
A method to be performed by a computing device, the method comprising: reconstructing adjacent first and second blocks (P, Q) of a picture, wherein the picture includes at least some blocks encoded using intra block copy prediction; performing in-loop deblock filtering across a boundary between the first and second blocks (P, Q); and if the prediction mode for both of the first and second blocks (P, Q) is intra block copy prediction, adjusting a filtering strength of the in-loop deblock filtering based on whether the values of block vectors for the first and second blocks (P, Q), are equal or not, or based on the difference between block vector components for either one of the first and second blocks (P, Q) is greater than a threshold amount. reconstructing adjacent first and second blocks (P, Q) of a picture, wherein the picture includes at least some blocks encoded using intra block copy prediction; performing in-loop deblock filtering across a boundary between the first and second blocks (P, Q); and if the prediction mode for both of the first and second blocks (P, Q) is intra block copy prediction, adjusting a filtering strength of the in-loop deblock filtering based on whether the values of block vectors for the first and second blocks (P, Q), are equal or not, or based on the difference between block vector components for either one of the first and second blocks (P, Q) is greater than a threshold amount.
A vacuum cleaner comprising: a cleaner body ; a suction hose connected to the cleaner body and configured to suction dust; a moving wheel installed at the cleaner body ; a main motor provided inside the cleaner body and configured to generate a suction force for suctioning the dust; a base frame provided inside the cleaner body and configured to form a space in which the main motor is installed; a battery unit provided inside the base frame and supplying electric power; a rear opening formed at a rear surface of the cleaner body and opened to insert the battery unit into the vacuum cleaner; a rear cover configured to open and close the rear opening ; and a battery guide formed at a side surface of the base frame, extending toward the rear opening , and configured to guide insertion and withdrawal of the battery unit , characterized in that the main motor is disposed above the base frame, and the vacuum cleaner further comprises a frame hole , through which air discharged from the main motor is introduced into a space for accommodating the battery unit , formed at an upper surface of the base frame. a cleaner body ; a suction hose connected to the cleaner body and configured to suction dust; a moving wheel installed at the cleaner body ; a main motor provided inside the cleaner body and configured to generate a suction force for suctioning the dust; a base frame provided inside the cleaner body and configured to form a space in which the main motor is installed; a battery unit provided inside the base frame and supplying electric power; a rear opening formed at a rear surface of the cleaner body and opened to insert the battery unit into the vacuum cleaner; a rear cover configured to open and close the rear opening ; and a battery guide formed at a side surface of the base frame, extending toward the rear opening , and configured to guide insertion and withdrawal of the battery unit , characterized in that the main motor is disposed above the base frame, and the vacuum cleaner further comprises a frame hole , through which air discharged from the main motor is introduced into a space for accommodating the battery unit , formed at an upper surface of the base frame.
An image processing method comprising: acquiring (S201; S401) an input image from a captured image ; acquiring (S201, S202; S401-S404) input data including the input image and a first noise map representing a noise amount in the input image, the first noise map being generated based on an optical black area corresponding to the input image, which is an optical black area of the captured image or another image captured with a same image capturing condition as that of the captured image ; wherein generating the first noise map comprises: acquiring the optical black area corresponding to the input image; extracting one or more partial optical black images that are at least part of the optical black area; and generating the first noise map by arraying the one or more partial optical black images; and inputting (S203; S405) the input data into a neural network to execute a task of a recognition or regression for the input image. acquiring (S201; S401) an input image from a captured image ; acquiring (S201, S202; S401-S404) input data including the input image and a first noise map representing a noise amount in the input image, the first noise map being generated based on an optical black area corresponding to the input image, which is an optical black area of the captured image or another image captured with a same image capturing condition as that of the captured image ; wherein generating the first noise map comprises: acquiring the optical black area corresponding to the input image; extracting one or more partial optical black images that are at least part of the optical black area; and generating the first noise map by arraying the one or more partial optical black images; and inputting (S203; S405) the input data into a neural network to execute a task of a recognition or regression for the input image. acquiring the optical black area corresponding to the input image; extracting one or more partial optical black images that are at least part of the optical black area; and generating the first noise map by arraying the one or more partial optical black images; and inputting (S203; S405) the input data into a neural network to execute a task of a recognition or regression for the input image.
A receive circuit for use in a power converter controller , comprising: a first amplifier coupled to receive an input pulse; a second amplifier coupled to a first output of the first amplifier, wherein the first output is coupled to be responsive to the input pulse and to a second output of the second amplifier; and an output circuit coupled to generate an output signal in response to the second output; characterized in that the receive circuit comprises: a first pre-bias circuit coupled to reset the first output to a first value in response to the output signal; and a second pre-bias circuit coupled to reset the second output to a second value in response to the output signal. a first amplifier coupled to receive an input pulse; a second amplifier coupled to a first output of the first amplifier, wherein the first output is coupled to be responsive to the input pulse and to a second output of the second amplifier; and an output circuit coupled to generate an output signal in response to the second output; a first pre-bias circuit coupled to reset the first output to a first value in response to the output signal; and a second pre-bias circuit coupled to reset the second output to a second value in response to the output signal.
An RF impedance measurement circuit , comprising: a sensing capacitor connectable in series with an RF signal path ; a first amplitude detector and a first frequency divider , each coupled, with said measurement circuit in operation, to said RF signal path at a first terminal of said sensing capacitor ; a second amplitude detector and a second frequency divider , each coupled, with said measurement circuit in operation, to a second terminal of said sensing capacitor ; and a phase detection circuit connected to an output (I) of said first frequency divider and to an output (I) of said second frequency divider . a sensing capacitor connectable in series with an RF signal path ; a first amplitude detector and a first frequency divider , each coupled, with said measurement circuit in operation, to said RF signal path at a first terminal of said sensing capacitor ; a second amplitude detector and a second frequency divider , each coupled, with said measurement circuit in operation, to a second terminal of said sensing capacitor ; and a phase detection circuit connected to an output (I) of said first frequency divider and to an output (I) of said second frequency divider .
A surgical end effector comprising: a first jaw member; a second jaw member pivotable relative to the first jaw member from a first open position to a closed position, wherein the first and second jaw members are substantially parallel in the closed position, wherein the second jaw member comprises: a proximal supply electrode that is positioned to contact an opposing member of the first jaw member when the first and second jaw members are in the closed position; and a distal supply electrode that is positioned distal of the proximal electrode and is aligned with a conductive surface of the first jaw member when the first and second jaw members are in the closed position wherein the opposing member is an electric insulator; and wherein, when the first and second jaw members are in the closed position, the proximal supply electrode is in contact with the opposing member and the distal supply electrode is not in contact with the conductive surface of the first jaw member, characterized in that the proximal supply electrode and the distal supply electrode are independently energizable. a first jaw member; a second jaw member pivotable relative to the first jaw member from a first open position to a closed position, wherein the first and second jaw members are substantially parallel in the closed position, wherein the second jaw member comprises: a proximal supply electrode that is positioned to contact an opposing member of the first jaw member when the first and second jaw members are in the closed position; and a distal supply electrode that is positioned distal of the proximal electrode and is aligned with a conductive surface of the first jaw member when the first and second jaw members are in the closed position a proximal supply electrode that is positioned to contact an opposing member of the first jaw member when the first and second jaw members are in the closed position; and a distal supply electrode that is positioned distal of the proximal electrode and is aligned with a conductive surface of the first jaw member when the first and second jaw members are in the closed position wherein the opposing member is an electric insulator; and wherein, when the first and second jaw members are in the closed position, the proximal supply electrode is in contact with the opposing member and the distal supply electrode is not in contact with the conductive surface of the first jaw member, characterized in that the proximal supply electrode and the distal supply electrode are independently energizable.
Fastening plate for fixing an electric machine , by way of example to a component in the motor vehicle, said fastening plate having a central through-going orifice for receiving a round bearing sleeve , which receives a roller bearing, of the electric machine , wherein the fastening plate comprises fastening orifices in a radially outer region and the electric machine can be fastened to the component by means of said fastening orifices, characterized in that the through-going orifice comprises an approximately polygonal shape having lateral walls that come to lie against the bearing sleeve , wherein deformation cut-outs are arranged radially spaced apart from the lateral walls of the through-going orifice and as a result of this arrangement the lateral walls comprise regions that are embodied as radially deformable connecting pieces , wherein the deformation cut-outs are longer in the tangential direction than in the radial direction .
Method for marking electrical devices which can be arranged in a row and are arranged on a support rail , with the aid of a laser head , wherein the support rail is pivotable about its longitudinal axis and the laser head is guided such that it can be moved at least along the longitudinal axis of the support rail , comprising the steps of: - specifying a number of marking instructions, each comprising a marking content and a position and an orientation of the surface to which the marking content is to be applied; - creating an image of at least a section of the support rail and at least one electrical device from an image capture device, and correcting at least one of the positions at which one of the marking contents is to be applied based on an evaluation of the image; - grouping the marking instructions into marking levels in such a way that all marking instructions of one marking level can be applied by the laser head without a movement of the laser head or the support rail , wherein the marking levels differ in terms of spatial coordinates and/or parameters for the laser head ; - selecting a first one of the marking levels ; - positioning of the laser head and/or pivoting of the support rail according to the spatial coordinates of the selected marking level ; - applying markings according to the marking instructions of the selected marking level with the parameters for the laser head ; and - selecting a next one of the marking levels for marking based on the movements of the laser head and the support rail which would be necessary to enable markings according to the next one of the marking levels to be applied. - specifying a number of marking instructions, each comprising a marking content and a position and an orientation of the surface to which the marking content is to be applied; - creating an image of at least a section of the support rail and at least one electrical device from an image capture device, and correcting at least one of the positions at which one of the marking contents is to be applied based on an evaluation of the image; - grouping the marking instructions into marking levels in such a way that all marking instructions of one marking level can be applied by the laser head without a movement of the laser head or the support rail , wherein the marking levels differ in terms of spatial coordinates and/or parameters for the laser head ; - selecting a first one of the marking levels ; - positioning of the laser head and/or pivoting of the support rail according to the spatial coordinates of the selected marking level ; - applying markings according to the marking instructions of the selected marking level with the parameters for the laser head ; and - selecting a next one of the marking levels for marking based on the movements of the laser head and the support rail which would be necessary to enable markings according to the next one of the marking levels to be applied.