mhurhangee/ep-ind-claims huggingface dataset:
A cochlear implant system comprising: a signal processor (120, 1220d); an implantable battery and/or communication module (140, 1210d); and a first lead comprising a first conductor, a second conductor, a third conductor, and a fourth conductor and coupling the signal processor (120, 1220d) and the implantable battery and/or communication module (140, 1210d); wherein the implantable battery and/or communication module (140, 1210d) is configured to generate power signals, inverted power signals, data signals, and inverted data signals and communicate the power signals, the inverted power signals, the data signals, and the inverted data signals to the signal processor (120, 1220d) via the first conductor, the second conductor, the third conductor, and the fourth conductor of the first lead, respectively; the implantable battery and/or communication module (140, 1210d) and/or the signal processor (120, 1220d) is configured to perform one or more characterization processes to determine one or more characteristics of the first conductor, the second conductor, the third conductor, and/or the fourth conductor; wherein performing the one or more characterization processes comprises grounding one of the first conductor, the second conductor, the third conductor, or the fourth conductor, and applying a test signal to a different one of the first conductor, the second conductor, the third conductor, or the fourth conductor. a signal processor (120, 1220d); an implantable battery and/or communication module (140, 1210d); and a first lead comprising a first conductor, a second conductor, a third conductor, and a fourth conductor and coupling the signal processor (120, 1220d) and the implantable battery and/or communication module (140, 1210d); wherein the implantable battery and/or communication module (140, 1210d) is configured to generate power signals, inverted power signals, data signals, and inverted data signals and communicate the power signals, the inverted power signals, the data signals, and the inverted data signals to the signal processor (120, 1220d) via the first conductor, the second conductor, the third conductor, and the fourth conductor of the first lead, respectively; the implantable battery and/or communication module (140, 1210d) and/or the signal processor (120, 1220d) is configured to perform one or more characterization processes to determine one or more characteristics of the first conductor, the second conductor, the third conductor, and/or the fourth conductor; wherein performing the one or more characterization processes comprises grounding one of the first conductor, the second conductor, the third conductor, or the fourth conductor, and applying a test signal to a different one of the first conductor, the second conductor, the third conductor, or the fourth conductor.
Brake caliper of a disc brake, with two tie-rods extending parallel and a distance away from one another, which connect to one another a caliper back and a housing which encloses a receiving space for functional components, wherein the said receiving space has an approximately rectangular fitting aperture that can be closed off by a closing cover with long sides that extend in the direction of the tie-rods and short sides that extend transversely thereto, characterised in that the fitting aperture is delimited by at least one flange on one of its short sides, which flange forms an undercut and a wall of the receiving space and extends as a notional continuation of the fitting aperture, such that the flange delimits a pivoting space for fitting the functional components into the receiving space.
A moisture-curable silylated resin-containing composition comprising: a) moisture-curable silylated resin, which upon curing, provides a cured resin exhibiting permeability to gas, wherein moisture-curable silylated resin (a) is at least one member selected from the group consisting of: (i) silylated resin obtained from the reaction of isocyanate-terminated polyurethane prepolymer with active hydrogen-containing organofunctional silane, (ii) silylated resin obtained from the reaction of hydroxyl-terminated polyurethane prepolymer with isocyanatosilane, and (iii) silylated polymer obtained from the reaction of polyol with isocyanatosilane, and wherein moisture-curable silylated resins (i), (ii) and (iii) are derived from poly(oxyethylene) diol, poly(oxypropylene) diol or poly(oxyethylene-oxypropylene) diol; b) at least one organic nanoclay; and, c) at least one solid polymer having a permeability to gas that is less than the permeability of the cured resin (a). a) moisture-curable silylated resin, which upon curing, provides a cured resin exhibiting permeability to gas, wherein moisture-curable silylated resin (a) is at least one member selected from the group consisting of: (i) silylated resin obtained from the reaction of isocyanate-terminated polyurethane prepolymer with active hydrogen-containing organofunctional silane, (ii) silylated resin obtained from the reaction of hydroxyl-terminated polyurethane prepolymer with isocyanatosilane, and (iii) silylated polymer obtained from the reaction of polyol with isocyanatosilane, and wherein moisture-curable silylated resins (i), (ii) and (iii) are derived from poly(oxyethylene) diol, poly(oxypropylene) diol or poly(oxyethylene-oxypropylene) diol; (i) silylated resin obtained from the reaction of isocyanate-terminated polyurethane prepolymer with active hydrogen-containing organofunctional silane, (ii) silylated resin obtained from the reaction of hydroxyl-terminated polyurethane prepolymer with isocyanatosilane, and (iii) silylated polymer obtained from the reaction of polyol with isocyanatosilane, and wherein moisture-curable silylated resins (i), (ii) and (iii) are derived from poly(oxyethylene) diol, poly(oxypropylene) diol or poly(oxyethylene-oxypropylene) diol; b) at least one organic nanoclay; and, c) at least one solid polymer having a permeability to gas that is less than the permeability of the cured resin (a).
An autonomous floor cleaning robot, comprising: a robot body; a controller supported by the robot body; a drive supporting the robot body to maneuver the robot across a floor surface in response to commands from the controller; and a pad sensor (624; 724) to sense a feature on a removable cleaning pad (1000; 1100; 1200; 1300) attached to the robot and to generate a signal based on the feature; and wherein the controller is responsive to the signal generated by the pad sensor to perform operations comprising: selecting a cleaning mode from among cleaning modes based on the signal, and controlling the robot according to a selected cleaning mode, characterized in that: the feature comprises identification elements defined at least in part by a marking (1010; 1115; 1210) and a cutout of the pad. a robot body; a controller supported by the robot body; a drive supporting the robot body to maneuver the robot across a floor surface in response to commands from the controller; and a pad sensor (624; 724) to sense a feature on a removable cleaning pad (1000; 1100; 1200; 1300) attached to the robot and to generate a signal based on the feature; and wherein the controller is responsive to the signal generated by the pad sensor to perform operations comprising: selecting a cleaning mode from among cleaning modes based on the signal, and controlling the robot according to a selected cleaning mode, characterized in that: the feature comprises identification elements defined at least in part by a marking (1010; 1115; 1210) and a cutout of the pad. selecting a cleaning mode from among cleaning modes based on the signal, and controlling the robot according to a selected cleaning mode, characterized in that: the feature comprises identification elements defined at least in part by a marking (1010; 1115; 1210) and a cutout of the pad.
A method for communicating digital voice data, the method comprising: providing a network device having a plurality of digital voice interfaces; determining, for each digital voice interface, if there is an allocated digital signal processing, DSP, resource; providing a user interface via which an end-user can select the use of available DSP resources; enabling the user interface to allow the user to select, for each digital voice interface determined as having an allocated DSP resource, whether to use the allocated DSP resource for the digital voice interface, whilst preventing such selection for digital voice interfaces determined as having no allocated DSP resource, wherein the selection is performed through the user interface; and transporting (306,308) the digital data on the basis of the selection, whereby the digital voice data is transported through the DSP resource if the selection is performed to use the DSP resource. providing a network device having a plurality of digital voice interfaces; determining, for each digital voice interface, if there is an allocated digital signal processing, DSP, resource; providing a user interface via which an end-user can select the use of available DSP resources; enabling the user interface to allow the user to select, for each digital voice interface determined as having an allocated DSP resource, whether to use the allocated DSP resource for the digital voice interface, whilst preventing such selection for digital voice interfaces determined as having no allocated DSP resource, wherein the selection is performed through the user interface; and transporting (306,308) the digital data on the basis of the selection, whereby the digital voice data is transported through the DSP resource if the selection is performed to use the DSP resource.
An interaction method for vehicle automatic parking, applied in a vehicle comprising an in-vehicle display device, the method comprising: controlling, in response to detecting an automatic parking start instruction, the in-vehicle display device to display a three-dimensional virtual parking scene and a corresponding current real scene; controlling, in response to a user operation on the three-dimensional virtual parking scene, the in-vehicle display device to present the three-dimensional virtual parking scene corresponding to the user operation and display a real scene corresponding to the three-dimensional virtual parking scene, wherein the three-dimensional virtual parking scene comprises at least one parking control, and each of the at least one parking control corresponds to one available parking space; and determining, in response to a selection operation on the at least one parking control, a target available parking space, and generating a parking instruction for the target available parking space to control the vehicle to park in the target available parking space. controlling, in response to detecting an automatic parking start instruction, the in-vehicle display device to display a three-dimensional virtual parking scene and a corresponding current real scene; controlling, in response to a user operation on the three-dimensional virtual parking scene, the in-vehicle display device to present the three-dimensional virtual parking scene corresponding to the user operation and display a real scene corresponding to the three-dimensional virtual parking scene, wherein the three-dimensional virtual parking scene comprises at least one parking control, and each of the at least one parking control corresponds to one available parking space; and determining, in response to a selection operation on the at least one parking control, a target available parking space, and generating a parking instruction for the target available parking space to control the vehicle to park in the target available parking space.
A vehicle system for a vehicle capable of travelling in an automatic driving mode comprising: a detection unit configured to detect an object; a position information acquisition unit configured to acquire position information of the object; and a vehicle illumination device comprising: a first illumination unit configured to irradiate light toward an outside of the vehicle; and an illumination control unit configured to control the first illumination unit to irradiate light to an object based on position information of the object, characterized in that, when the detected object is an emergency vehicle the first illumination unit is configured to irradiate a light pattern which has a ring shape toward the emergency vehicle based on the position information of the emergency vehicle. a detection unit configured to detect an object; a position information acquisition unit configured to acquire position information of the object; and a vehicle illumination device comprising: a first illumination unit configured to irradiate light toward an outside of the vehicle; and an illumination control unit configured to control the first illumination unit to irradiate light to an object based on position information of the object, a first illumination unit configured to irradiate light toward an outside of the vehicle; and an illumination control unit configured to control the first illumination unit to irradiate light to an object based on position information of the object, characterized in that, when the detected object is an emergency vehicle the first illumination unit is configured to irradiate a light pattern which has a ring shape toward the emergency vehicle based on the position information of the emergency vehicle.
Crossmember of a driver's compartment of a vehicle, comprising a main transverse metal element and a central strut intended to be fastened to the floor of the vehicle, the strut being a unitary component comprising two legs substantially perpendicular to a longitudinal direction of the main transverse metal element and at least one connecting bar (6, 7) between the two legs, upper and lower fastening means being provided at the top and bottom of the strut for fastening it to the main metal element and to the floor, respectively, characterized in that upper fastening means comprise, for each leg: - two planar fastening tabs secured to the main transverse metal element and parallel to a longitudinal direction thereof, - a fastening interface forming part of a leg and defining: - a concave bearing surface applied directly against a part of the wall of the main transverse metal element and tightly following the contour thereof, - two planar bearing surfaces situated on either side of the concave bearing surface with respect to the main transverse metal element, each planar bearing surface being secured to a fastening tab of the main transverse metal element. - two planar fastening tabs secured to the main transverse metal element and parallel to a longitudinal direction thereof, - a fastening interface forming part of a leg and defining: - a concave bearing surface applied directly against a part of the wall of the main transverse metal element and tightly following the contour thereof, - two planar bearing surfaces situated on either side of the concave bearing surface with respect to the main transverse metal element, each planar bearing surface being secured to a fastening tab of the main transverse metal element. - a concave bearing surface applied directly against a part of the wall of the main transverse metal element and tightly following the contour thereof, - two planar bearing surfaces situated on either side of the concave bearing surface with respect to the main transverse metal element, each planar bearing surface being secured to a fastening tab of the main transverse metal element.
Method of coding images, the coding of at least one current image portion comprising the following steps: - the determination of a current descriptor of the current image portion; - the selection of a prediction function from a parametrizable group of usable functions; - the formation of a predicted descriptor of the current image portion on the basis of at least one other image portion and of the selected prediction function; - the determination of a residual (ε) representing a difference between the predicted descriptor and the current descriptor; and - the integration of the residual into an output stream (Φ) intended for a decoder; characterized in that the method furthermore comprises: - the analysis of a coding context; and - the adaptation by the addition or deletion of prediction functions of said group of usable functions, as a function of the analysis of the coding context. - the determination of a current descriptor of the current image portion; - the selection of a prediction function from a parametrizable group of usable functions; - the formation of a predicted descriptor of the current image portion on the basis of at least one other image portion and of the selected prediction function; - the determination of a residual (ε) representing a difference between the predicted descriptor and the current descriptor; and - the integration of the residual into an output stream (Φ) intended for a decoder; - the analysis of a coding context; and - the adaptation by the addition or deletion of prediction functions of said group of usable functions, as a function of the analysis of the coding context.
An electronic protection device against earth leakage faults in a low-voltage electric line, comprising: - at least one pair of electric contacts, electrically connected to said electric line and suitable for being mutually coupled with or separated from one another; and - sensor means for detecting a residual current between at least a pair of conductors (phase and neutral) on said electric line, and for generating a sense signal, indicative of the instantaneous trend of said residual current; and - electronic means, electrically connected to said sensor means, for generating an output tripping signal on the basis of the trend of said residual current; and - actuating means for separating said electric contacts on the basis of said output tripping signal, thereby interrupting said electric line; characterised in that said electronic means comprise digital processing means including at least: - first computerised means for performing an analog-to-digital conversion of said sense signal, so as to obtain a series of samples (V N), indicative of the instantaneous trend of said residual current; and - second computerised means for executing a digital processing procedure on said samples (V N) to obtain information on the period of said series of samples and on the amplitude dynamics of said series of samples with respect to a preset reference value (ID 0), a control logic signal being generated on the basis of the information acquired by means of said processing procedure. - at least one pair of electric contacts, electrically connected to said electric line and suitable for being mutually coupled with or separated from one another; and - sensor means for detecting a residual current between at least a pair of conductors (phase and neutral) on said electric line, and for generating a sense signal, indicative of the instantaneous trend of said residual current; and - electronic means, electrically connected to said sensor means, for generating an output tripping signal on the basis of the trend of said residual current; and - actuating means for separating said electric contacts on the basis of said output tripping signal, thereby interrupting said electric line; characterised in that said electronic means comprise digital processing means including at least: - first computerised means for performing an analog-to-digital conversion of said sense signal, so as to obtain a series of samples (V N), indicative of the instantaneous trend of said residual current; and - second computerised means for executing a digital processing procedure on said samples (V N) to obtain information on the period of said series of samples and on the amplitude dynamics of said series of samples with respect to a preset reference value (ID 0), a control logic signal being generated on the basis of the information acquired by means of said processing procedure.
An electromechanical actuator for driving in translation a clutch diaphragm in parallel with a reference axis of the actuator, the actuator comprising: - an electric motor having a stationary stator and a rotor which rotates relative to the stator about the reference axis of the actuator; - a ball screw mechanism comprising a screw aligned with the reference axis of the actuator and having at least one helical roller track facing radially outward, a nut aligned with the reference axis of the actuator and having at least one roller track facing radially inward, and balls which roll on the nut roller track and on the screw roller track; - a mechanical connection (64, 54) for transmitting axial forces from the ball screw mechanism to a rotary thrust bearing, characterized in that the nut is integral with the rotor, and the screw is stationary in rotation relative to the stator and guided in translation relative to the stator in parallel with the reference axis of the actuator, the actuator being tubular in shape and having a cavity open at two opposite axial ends of the actuator. - an electric motor having a stationary stator and a rotor which rotates relative to the stator about the reference axis of the actuator; - a ball screw mechanism comprising a screw aligned with the reference axis of the actuator and having at least one helical roller track facing radially outward, a nut aligned with the reference axis of the actuator and having at least one roller track facing radially inward, and balls which roll on the nut roller track and on the screw roller track; - a mechanical connection (64, 54) for transmitting axial forces from the ball screw mechanism to a rotary thrust bearing,
A redundant control system for controlling a first delivery pressure for a first brake actuator and a second delivery pressure for a second brake actuator of a vehicle, the redundant control system comprising: a first electronic control unit; a first valve assembly, controlled by the first electronic control unit and configured to provide a first pressure; a second electronic control unit; a second valve assembly, controlled by the second electronic control unit and configured to provide a second pressure; whereby the redundant control system further comprises: a first selector valve, controlled by the first electronic control unit, configured to provide the second delivery pressure by selecting either the first pressure or the second pressure; and a second selector valve, controlled by the second electronic control unit, configured to provide the first delivery pressure by selecting either the first pressure or the second pressure. a first electronic control unit; a first valve assembly, controlled by the first electronic control unit and configured to provide a first pressure; a second electronic control unit; a second valve assembly, controlled by the second electronic control unit and configured to provide a second pressure; whereby the redundant control system further comprises: a first selector valve, controlled by the first electronic control unit, configured to provide the second delivery pressure by selecting either the first pressure or the second pressure; and a second selector valve, controlled by the second electronic control unit, configured to provide the first delivery pressure by selecting either the first pressure or the second pressure. a first selector valve, controlled by the first electronic control unit, configured to provide the second delivery pressure by selecting either the first pressure or the second pressure; and a second selector valve, controlled by the second electronic control unit, configured to provide the first delivery pressure by selecting either the first pressure or the second pressure.