mhurhangee/patent-ind-claim-en huggingface dataset:
A clutch device for a motor vehicle powertrain, having an input shaft prepared for non-rotatable attachment to an output of a transmission , a clutch arranged on the input shaft , wherein a first clutch component of the clutch is directly connected to the input shaft so as to be non-rotatable and supported axially on the input shaft and a second clutch component of the clutch is constructed on a further component for non-rotatable coupling, and having an actuating unit which is operatively connected to the clutch , wherein the actuating unit has a displaceable actuating bearing , which actuating bearing interacts with an actuating force introduction mechanism non-rotatably connected to the first clutch component in such a way that an actuating force moving the clutch from its open position to its closed position is introduced, via a carrier of the first clutch component , directly into the input shaft and is supported by the input shaft via a support bearing on a housing wall , characterised in that a first clutch is used to act as a separating clutch between the input shaft and an electrical machine and/or that a second clutch is used between the input shaft and an output shaft prepared to act as a non-rotatable connection with a Cardan shaft .
An amplification device comprising: an amplifier circuit and a limiter ; wherein the amplifier circuit comprises a signal input for an input signal to be amplified and a first signal output for a first output signal; and wherein the limiter comprises: a differential amplifier comprising a first differential amplifier input for a threshold control signal, a second differential amplifier input for a feedback signal, and a differential amplifier output for a threshold signal indicative of a difference between the threshold control signal and the feedback signal; a first diode having a first anode coupled to the first signal output and a first cathode coupled to the differential amplifier output ; and a feedback stage coupled between the differential amplifier output and the second differential amplifier input , wherein the feedback stage is arranged to generate the feedback signal dependent on the threshold signal. an amplifier circuit and a limiter ; wherein the amplifier circuit comprises a signal input for an input signal to be amplified and a first signal output for a first output signal; and wherein the limiter comprises: a differential amplifier comprising a first differential amplifier input for a threshold control signal, a second differential amplifier input for a feedback signal, and a differential amplifier output for a threshold signal indicative of a difference between the threshold control signal and the feedback signal; a first diode having a first anode coupled to the first signal output and a first cathode coupled to the differential amplifier output ; and a feedback stage coupled between the differential amplifier output and the second differential amplifier input , wherein the feedback stage is arranged to generate the feedback signal dependent on the threshold signal. a differential amplifier comprising a first differential amplifier input for a threshold control signal, a second differential amplifier input for a feedback signal, and a differential amplifier output for a threshold signal indicative of a difference between the threshold control signal and the feedback signal; a first diode having a first anode coupled to the first signal output and a first cathode coupled to the differential amplifier output ; and a feedback stage coupled between the differential amplifier output and the second differential amplifier input , wherein the feedback stage is arranged to generate the feedback signal dependent on the threshold signal.
An electrosurgical instrument comprising forceps having: a. a first arm carrying a first electrode ; b. a second arm opposing the first arm, the second arm carrying a second electrode ; wherein at least a portion of one or more of the first electrode and second electrode passes energy in a monopolar mode and at least a portion of one or more of the first electrode and second electrode pass energy in a bipolar mode; characterized in that the at least a portion of one or more of the first electrode and second electrode that passes energy in monopolar mode extends from a spine or side edge of at least one of the first or second arms . a. a first arm carrying a first electrode ; b. a second arm opposing the first arm, the second arm carrying a second electrode ;
A computer-implemented method comprising: receiving captured images of an interactive environment in which a head-mounted display (HMD) is disposed; receiving inertial data processed from at least one inertial sensor of the HMD; tracking the gaze of a user in images of the user's eyes captured by at least one gaze tracking camera included in the HMD and analyzing the images to determine the gaze direction of the user of the HMD; analyzing the captured images of the interactive environment , the gaze direction, and the inertial data to determine a predicted future location of the HMD; using the predicted future location of the HMD to adjust a beamforming direction of an RF transceiver in a direction that is towards the predicted future location of the HMD; and transmitting data via the RF transceiver to the HMD using the adjusted beamforming direction. receiving captured images of an interactive environment in which a head-mounted display (HMD) is disposed; receiving inertial data processed from at least one inertial sensor of the HMD; tracking the gaze of a user in images of the user's eyes captured by at least one gaze tracking camera included in the HMD and analyzing the images to determine the gaze direction of the user of the HMD; analyzing the captured images of the interactive environment , the gaze direction, and the inertial data to determine a predicted future location of the HMD; using the predicted future location of the HMD to adjust a beamforming direction of an RF transceiver in a direction that is towards the predicted future location of the HMD; and transmitting data via the RF transceiver to the HMD using the adjusted beamforming direction.
A sensor element comprising: a first conductive electrode having a first conductive member electrically coupled thereto; an absorptive dielectric layer comprising a polymer of intrinsic microporosity; and a second conductive electrode having a second conductive member electrically coupled thereto, wherein the second conductive electrode is coextensive with a major surface of the absorptive dielectric layer , wherein the second conductive electrode comprises at least one noble metal that is prepared by thermal vapor deposition, wherein the second conductive electrode has a thickness of from 4 to 10 nanometers and is permeable to at least one organic vapor, and wherein the absorptive dielectric layer is at least partially disposed between the first conductive electrode and the second conductive electrode . a first conductive electrode having a first conductive member electrically coupled thereto; an absorptive dielectric layer comprising a polymer of intrinsic microporosity; and a second conductive electrode having a second conductive member electrically coupled thereto, wherein the second conductive electrode is coextensive with a major surface of the absorptive dielectric layer , wherein the second conductive electrode comprises at least one noble metal that is prepared by thermal vapor deposition, wherein the second conductive electrode has a thickness of from 4 to 10 nanometers and is permeable to at least one organic vapor, and wherein the absorptive dielectric layer is at least partially disposed between the first conductive electrode and the second conductive electrode .
Method for operating a handheld power tool , the handheld power tool comprising an electric motor , the method comprising the method steps of: S1 providing comparative information, comprising the steps of: S1a providing at least one model signal shape , the model signal shape being assignable to progress of work of the handheld power tool ; S1b providing a threshold value of correspondence; S2 ascertaining a signal of an operating variable of the electric motor ; S3 comparing the signal of the operating variable with the model signal shape and ascertaining an assessment of correspondence from the comparison, the assessment of correspondence at least partially taking place on the basis of the threshold value of correspondence; S4 detecting the progress of work at least partially on the basis of the assessment of correspondence ascertained in method step S3; the providing of comparative information taking place at least partially on the basis of a learning process. S1 providing comparative information, comprising the steps of: S1a providing at least one model signal shape , the model signal shape being assignable to progress of work of the handheld power tool ; S1b providing a threshold value of correspondence; S1a providing at least one model signal shape , the model signal shape being assignable to progress of work of the handheld power tool ; S1b providing a threshold value of correspondence; S2 ascertaining a signal of an operating variable of the electric motor ; S3 comparing the signal of the operating variable with the model signal shape and ascertaining an assessment of correspondence from the comparison, the assessment of correspondence at least partially taking place on the basis of the threshold value of correspondence; S4 detecting the progress of work at least partially on the basis of the assessment of correspondence ascertained in method step S3;
A medical balloon for endoluminal location within a patient, the balloon including a balloon wall extending in the direction of a longitudinal axis of the balloon and provided with one or more scoring or cutting elements, there being embedded within the one or more scoring or cutting elements an elongate channel or lumen providing a material discontinuity therewithin, wherein the at least one channel or lumen is round in axial cross-section, and the at least one channel or lumen being hollow or filled with air or gas or radiopaque or a wave scattering material in the form of a liquid, powder or solid element.
A method of wireless communication, comprising: communicating, by a first wireless communication device with a second wireless communication device in a downlink, DL, frequency band, a reservation signal in a first channel sensing time slot of a frame to reserve a transmission time slot in the frame, wherein the reservation signal indicates first scheduling information; communicating, by the first wireless communication device in an uplink, UL, frequency band, an UL control signal in the first channel sensing time slot, wherein the UL frequency band and the DL frequency band are shared by a plurality of network operating entities for frequency-division duplexing, FDD, communications; communicating, by the first wireless communication device in the DL frequency band during the transmission time slot, updated scheduling information; and communicating, by the first wireless communication device during the transmission time slot, a communication signal based on at least the updated scheduling information. communicating, by a first wireless communication device with a second wireless communication device in a downlink, DL, frequency band, a reservation signal in a first channel sensing time slot of a frame to reserve a transmission time slot in the frame, wherein the reservation signal indicates first scheduling information; communicating, by the first wireless communication device in an uplink, UL, frequency band, an UL control signal in the first channel sensing time slot, wherein the UL frequency band and the DL frequency band are shared by a plurality of network operating entities for frequency-division duplexing, FDD, communications; communicating, by the first wireless communication device in the DL frequency band during the transmission time slot, updated scheduling information; and communicating, by the first wireless communication device during the transmission time slot, a communication signal based on at least the updated scheduling information.
An apparatus for dewatering wood material , the apparatus comprising a first roll and a second roll that form a first nip (N1) in which water can be pressed out of the wood material ; an endless conveyor which is permeable to water and forms a loop around the first roll and which is arranged to pass through the first nip (N1) such that the endless conveyor can carry wood material through the first nip (N1), which is arranged to press water out of the wood material through the endless conveyor in the nip (N1), wherein the endless conveyor is a water permeable metal band, which is characterized by having a thickness in the range of 0.3 mm - 2.5 mm, preferably a thickness in the range of 0.4 mm - 2 mm, having perforations with a diameter in the range of 0.5 mm - 5.0 mm and an open area in the range of 10% - 50%.
A method for calling an application programming interface of a client application for a network application via an embedded browser of the client application, the method comprising: (a) establishing , by the client application on the client device, one or more sessions to one or more network applications accessed via the embedded browser of the client application, the client application providing a plurality of application program interfaces, APIs; (b) intercepting , by the client application, a first application programming interface, API, called by one of the one or more network applications corresponding to the one or more established sessions; (c) identifying , by the client application, for the network application that called the first API, a policy for using the plurality of APIs of the client application, the policy indicating a functionality to be used by said network application; (d) determining , by the client application based at least on the identified policy, a second API of the plurality of APIs of the client application to use for the intercepted first API, by identifying as the second API an API of the plurality of APIs that includes or provides the functionality indicated by the identified policy; and (e) executing , by the client application, in response to determining the second API to use for the intercepted first API based on the identified policy, the second API of the plurality of APIs of the client application. (a) establishing , by the client application on the client device, one or more sessions to one or more network applications accessed via the embedded browser of the client application, the client application providing a plurality of application program interfaces, APIs; (b) intercepting , by the client application, a first application programming interface, API, called by one of the one or more network applications corresponding to the one or more established sessions; (c) identifying , by the client application, for the network application that called the first API, a policy for using the plurality of APIs of the client application, the policy indicating a functionality to be used by said network application; (d) determining , by the client application based at least on the identified policy, a second API of the plurality of APIs of the client application to use for the intercepted first API, by identifying as the second API an API of the plurality of APIs that includes or provides the functionality indicated by the identified policy; and (e) executing , by the client application, in response to determining the second API to use for the intercepted first API based on the identified policy, the second API of the plurality of APIs of the client application.
A vacuum insulation panel for a construction, a car or an electric appliance comprising: a vacuum insulation panel in which a core material made of inorganic fibers is wrapped with an outer packaging material made of a stainless steel plate, and an inner space of the outer packaging material wrapping the core material is in a vacuum state, wherein a water content of the core material is 0.05 wt% or less, the surface roughness Ra of the inner space-side surface of the outer packaging material is 0.2 μm or less, and a peripheral part of the outer packaging material is sealed by welding in a state in which the pressure of the inner space of the outer packaging material is 1 Pa or less. a vacuum insulation panel in which a core material made of inorganic fibers is wrapped with an outer packaging material made of a stainless steel plate, and an inner space of the outer packaging material wrapping the core material is in a vacuum state, wherein a water content of the core material is 0.05 wt% or less, the surface roughness Ra of the inner space-side surface of the outer packaging material is 0.2 μm or less, and a peripheral part of the outer packaging material is sealed by welding in a state in which the pressure of the inner space of the outer packaging material is 1 Pa or less.
A device comprising first and second plates , a device for holding the plates face to face and a device for supporting the first and second plates, wherein the first plate comprises at least ten through openings and the second plate is not crossed by openings, the holding device comprising spacers arranged between the first and second plates and attached to the first and second plates, and the supporting device comprising two feet corresponding to first rods having parallel axes, the device further comprising second rods , wherein each foot is linked to one of the spacers by two second rods .
A gas turbine engine component comprising: an inner support structure surrounding an engine center axis (A) and fixed to an engine static structure ; an outer support structure spaced radially outward of the inner support structure ; a curved beam comprised of a plurality of curved beam spring segments that are positioned adjacent to each other to form a ring , and wherein the inner and outer support structures are coupled together around the curved beam to enclose the curved beam therebetween and form a mechanical spring assembly ; and a bearing spaced radially inward of the mechanical spring assembly ; and a fluid damper that is separated from the mechanical spring assembly , wherein the fluid damper is spaced radially inward of the inner support structure , characterised in that : the outer support structure is fixed to an outer race of the bearing and the inner support structure is fixed to a flange of the engine static structure . an inner support structure surrounding an engine center axis (A) and fixed to an engine static structure ; an outer support structure spaced radially outward of the inner support structure ; a curved beam comprised of a plurality of curved beam spring segments that are positioned adjacent to each other to form a ring , and wherein the inner and outer support structures are coupled together around the curved beam to enclose the curved beam therebetween and form a mechanical spring assembly ; and a bearing spaced radially inward of the mechanical spring assembly ; and a fluid damper that is separated from the mechanical spring assembly , wherein the fluid damper is spaced radially inward of the inner support structure ,
A system for treating a passageway within a body comprising: a catheter comprising at least a first electrode and at least one additional electrode disposed near its distal end, wherein the distal end of the catheter is configured to be positioned within the passageway so that the at least a first electrode and at least one additional electrode are able to transmit pulsed electric field energy to an inner surface of the passageway; and a generator in electrical communication with the first electrode , wherein the generator includes at least one energy delivery algorithm that provides an electric signal to the first electrode so that pulsed electric field energy is delivered to cells on the inner surface of the passageway, wherein the electric signal comprises a plurality of packets, wherein each packet comprises a plurality of biphasic cycles and wherein each packet is separated in time by 0.0001 to 10 seconds, and wherein the at least one energy delivery algorithm provides maintenance pulsed electric field energy to the first electrode and/or the at least one additional electrode in between packets, wherein the maintenance pulsed electric field energy has a lower voltage than the pulsed electric field energy. a catheter comprising at least a first electrode and at least one additional electrode disposed near its distal end, wherein the distal end of the catheter is configured to be positioned within the passageway so that the at least a first electrode and at least one additional electrode are able to transmit pulsed electric field energy to an inner surface of the passageway; and a generator in electrical communication with the first electrode , wherein the generator includes at least one energy delivery algorithm that provides an electric signal to the first electrode so that pulsed electric field energy is delivered to cells on the inner surface of the passageway, wherein the electric signal comprises a plurality of packets, wherein each packet comprises a plurality of biphasic cycles and wherein each packet is separated in time by 0.0001 to 10 seconds, and wherein the at least one energy delivery algorithm provides maintenance pulsed electric field energy to the first electrode and/or the at least one additional electrode in between packets, wherein the maintenance pulsed electric field energy has a lower voltage than the pulsed electric field energy.
A paravalvular leak resistant prosthetic heart valve system comprising: a stent frame having a surface; a valve structure associated with the stent frame ; and a sealing mechanism at least partially extends over the surface of the stent frame , wherein the sealing mechanism comprises: two semi-permeable membranes ; and at least one osmotic gradient driving material placed between the two semi-permeable membranes . a stent frame having a surface; a valve structure associated with the stent frame ; and a sealing mechanism at least partially extends over the surface of the stent frame , wherein the sealing mechanism comprises: two semi-permeable membranes ; and at least one osmotic gradient driving material placed between the two semi-permeable membranes . two semi-permeable membranes ; and at least one osmotic gradient driving material placed between the two semi-permeable membranes .
A system for providing torque to a human-powered vehicle comprising: a magnetorheological (MR) fluid actuator unit including at least one torque source and at least one MR fluid clutch apparatus having an input coupled to the at least one torque source to receive torque from the at least one torque source, the MR fluid clutch apparatus controllable to transmit a variable amount of assistance torque via an output thereof; a vehicle interface configured for coupling the output of the at least one MR fluid clutch apparatus to a powertrain of the vehicle; and a processor unit for controlling the at least one MR fluid clutch apparatus in exerting the variable amount of assistance torque as a function of a requested assistance. a magnetorheological (MR) fluid actuator unit including at least one torque source and at least one MR fluid clutch apparatus having an input coupled to the at least one torque source to receive torque from the at least one torque source, the MR fluid clutch apparatus controllable to transmit a variable amount of assistance torque via an output thereof; a vehicle interface configured for coupling the output of the at least one MR fluid clutch apparatus to a powertrain of the vehicle; and a processor unit for controlling the at least one MR fluid clutch apparatus in exerting the variable amount of assistance torque as a function of a requested assistance.