mhurhangee/patent-ind-claim-en huggingface dataset:
A disc brake, comprising a brake disc of light metal and at least one brake pad acting on the same, wherein the brake disc is formed out of a hyper-eutectic aluminium silicon alloy, which has a silicon component of 13-21 % by weight, characterised in that the brake disc, on at least one of its brake tracks, has a plurality of recesses, which are distributed over the surface of the brake track, wherein the hyper-eutectic aluminium silicon alloy has a maximum proportion of 0.3 % by weight of copper, wherein the brake pad comprises NAO friction materials, wherein silicon particles of the hyper-eutectic aluminium silicon alloy have a primary silicon particle size of 30-100 μm, preferably 30-50 μm, further preferably maximally 50 μm.
An endoscopic surgical assembly housing at least one force transmitting member (C) that is connected to a surgical attachment supported on the endoscopic surgical assembly, the endoscopic surgical assembly comprising: an elongate shaft having a proximal end and a distal end configured for connection to a surgical attachment , at least one longitudinal cavity being formed in an outer surface of the elongate shaft and extending between the proximal and distal ends of the elongate shaft, wherein the at least one longitudinal cavity is configured for disposal of the at least one force transmitting member (C) therein such that the at least one force transmitting member (C) is translatable relative to the elongate shaft , further comprising a sleeve disposable about the elongate shaft to sheath the at least one force transmitting member (C) within the at least one longitudinal cavity , and to retain the at least one force transmitting member (C) between the outer surface of the elongate shaft and the sleeve , wherein the sleeve comprises a sheet of material configured to be wrapped about the elongate shaft and adhered to itself to form the sleeve. an elongate shaft having a proximal end and a distal end configured for connection to a surgical attachment , at least one longitudinal cavity being formed in an outer surface of the elongate shaft and extending between the proximal and distal ends of the elongate shaft, wherein the at least one longitudinal cavity is configured for disposal of the at least one force transmitting member (C) therein such that the at least one force transmitting member (C) is translatable relative to the elongate shaft , further comprising a sleeve disposable about the elongate shaft to sheath the at least one force transmitting member (C) within the at least one longitudinal cavity , and to retain the at least one force transmitting member (C) between the outer surface of the elongate shaft and the sleeve , wherein the sleeve comprises a sheet of material configured to be wrapped about the elongate shaft and adhered to itself to form the sleeve. wherein the at least one longitudinal cavity is configured for disposal of the at least one force transmitting member (C) therein such that the at least one force transmitting member (C) is translatable relative to the elongate shaft , further comprising a sleeve disposable about the elongate shaft to sheath the at least one force transmitting member (C) within the at least one longitudinal cavity , and to retain the at least one force transmitting member (C) between the outer surface of the elongate shaft and the sleeve , wherein the sleeve comprises a sheet of material configured to be wrapped about the elongate shaft and adhered to itself to form the sleeve.
A load control system, comprising: a control device for controlling an electrical load , and a broker provisioning service, BPS, device for facilitating connection between the control device and one or more remote servers , wherein the BPS device is configured to: receive a connection request message associated with the control device from the control device, identifying the control device by one or more of a device identifier, ID, a device type, a serial number, a media access control, MAC, address, location information, authorization information, or a universal identifier, select at least one of the one or more remote servers, send to the selected one or more remote servers a connection establishment message identifying the control device , and send the control device an identifier of the selected one or more remote servers , and wherein the control device is configured to: establish a connection with the selected one or more remote servers , and send information to the selected one or more remote servers about the electrical load being controlled by the control device. a control device for controlling an electrical load , and a broker provisioning service, BPS, device for facilitating connection between the control device and one or more remote servers , wherein the BPS device is configured to: receive a connection request message associated with the control device from the control device, identifying the control device by one or more of a device identifier, ID, a device type, a serial number, a media access control, MAC, address, location information, authorization information, or a universal identifier, select at least one of the one or more remote servers, send to the selected one or more remote servers a connection establishment message identifying the control device , and send the control device an identifier of the selected one or more remote servers , and receive a connection request message associated with the control device from the control device, identifying the control device by one or more of a device identifier, ID, a device type, a serial number, a media access control, MAC, address, location information, authorization information, or a universal identifier, select at least one of the one or more remote servers, send to the selected one or more remote servers a connection establishment message identifying the control device , and send the control device an identifier of the selected one or more remote servers , and wherein the control device is configured to: establish a connection with the selected one or more remote servers , and send information to the selected one or more remote servers about the electrical load being controlled by the control device. establish a connection with the selected one or more remote servers , and send information to the selected one or more remote servers about the electrical load being controlled by the control device.
A method performed by a node of a communications network, comprising: receiving information associated with a plurality of requests for a service type; sending, to each of a plurality of service nodes (406, 408, 410 and 412) that provide the service type, a request for service coverage information associated with the service type; receiving, from each service node of the plurality of service nodes (406, 408, 410 and 412), a service coverage report based on each request for service coverage information, wherein each service coverage report comprises an identifier of the service type and service node context information; generating, based on each received service coverage report, a global picture of coverage provided for the service type by the plurality of service nodes; determining, based on the global picture, a service coverage adjustment for at least one service node of the plurality of service nodes to accommodate the plurality of requests for the type of service; and sending a service coverage adjustment notification to the at least one service nodes (406, 408, 410 and 412) to cause a service coverage adjustment by the at least one service node. receiving information associated with a plurality of requests for a service type; sending, to each of a plurality of service nodes (406, 408, 410 and 412) that provide the service type, a request for service coverage information associated with the service type; receiving, from each service node of the plurality of service nodes (406, 408, 410 and 412), a service coverage report based on each request for service coverage information, wherein each service coverage report comprises an identifier of the service type and service node context information; generating, based on each received service coverage report, a global picture of coverage provided for the service type by the plurality of service nodes; determining, based on the global picture, a service coverage adjustment for at least one service node of the plurality of service nodes to accommodate the plurality of requests for the type of service; and sending a service coverage adjustment notification to the at least one service nodes (406, 408, 410 and 412) to cause a service coverage adjustment by the at least one service node.
An automatic calibration method of an angle sensor for an automatic drive control system of a farm machine, whereby the method comprises the following steps: Step S1: fixing a steering wheel of the farm machine to make front wheels of a vehicle kept at a fixed angle; Step S2: collecting a plurality of pieces of current position information of the farm machine, and processing the plurality of pieces of current position information to obtain an average value; Step S3: establishing a two-wheel farm machine kinematics model based on a center of a rear axle; Step S4: performing a radius calculation to obtain a set of angle correspondences; Step S5: rotating the farm machine by a preset angle at a constant speed with the rear axle of the farm machine as a center, and performing Step S1 through Step S4; Step S6: after performing Step S5 for several times, performing an angle value fitting calculation to obtain a calibration coefficient. Step S1: fixing a steering wheel of the farm machine to make front wheels of a vehicle kept at a fixed angle; Step S2: collecting a plurality of pieces of current position information of the farm machine, and processing the plurality of pieces of current position information to obtain an average value; Step S3: establishing a two-wheel farm machine kinematics model based on a center of a rear axle; Step S4: performing a radius calculation to obtain a set of angle correspondences; Step S5: rotating the farm machine by a preset angle at a constant speed with the rear axle of the farm machine as a center, and performing Step S1 through Step S4; Step S6: after performing Step S5 for several times, performing an angle value fitting calculation to obtain a calibration coefficient.
A method for preparing a hardened calcium sulfate dihydrate block comprising mixing calcium sulfate hemihydrate powder, preferably alpha-type calcium sulfate hemihydrate powder, with an aqueous solution containing phosphate ions so as to form a paste, wherein the aqueous solution has a pH value lower than 10, and forming a block of hardened calcium sulfate dihydrate from said paste, wherein said aqueous solution is an aqueous solution of (NH 4 ) 3 PO 4 , (NH 4 ) 2 HPO 4 , NH 4 H 2 PO 4 , K 3 PO 4 , K 2 HPO 4 , Na 3 PO 4 , NaH 2 PO 4 , H 3 PO 4 , or a mixture thereof.
Process for manufacturing a foam article with an embedded insert , characterized by comprising a foam molding step in which a foam material is molded within a mold while the insert is held under elastic stress against an inner surface of the mold .
Method for activating a drive of a pedal-driven vehicle, in particular an electric bicycle, wherein the method • detects a first rotational movement variable, which represents the rotational movement of the pedals by the cyclist, by means of at least one first sensor , and, • in order to control the drive , generates a second rotational movement variable depending on the first rotational movement variable and on a time constant, wherein the time constant determines a run-on time of the drive , characterized in that the method • varies the time constant depending on a comparison of the second rotational movement variable and the first rotational movement variable. • detects a first rotational movement variable, which represents the rotational movement of the pedals by the cyclist, by means of at least one first sensor , and, • in order to control the drive , generates a second rotational movement variable depending on the first rotational movement variable and on a time constant, wherein the time constant determines a run-on time of the drive , • varies the time constant depending on a comparison of the second rotational movement variable and the first rotational movement variable.
An inline resistive heating thermal treatment system for thermally treating a continuous conductive product , comprising: - a first electrode configured to contact a continuous conductive product ; - a second electrode configured to contact the continuous conductive product such that a portion of the continuous conductive product is disposed between the first and second electrodes ; and - a power source coupled to the first electrode and to the second electrode , wherein the power source is configured to apply an electrical bias between the first electrode and the second electrode to resistively heat the portion of the continuous conductive product disposed between the first and second electrodes , and - a gas supply system , characterized in that the gas supply system is configured to supply one or more gas flows to one or more gas nozzles of the thermal treatment system , wherein the one or more gas nozzles are configured to direct at least a portion of the one or more gas flows near one or more surfaces of the continuous conductive product to provide a controlled atmosphere therein during and/or after resistive heating, wherein the one or more gas nozzles are configured to direct at least the portion of the one or more gas flows near the one or more surfaces of the continuous conductive product to cool the one or more surfaces of the continuous conductive product after resistive heating. - a first electrode configured to contact a continuous conductive product ; - a second electrode configured to contact the continuous conductive product such that a portion of the continuous conductive product is disposed between the first and second electrodes ; and - a power source coupled to the first electrode and to the second electrode , wherein the power source is configured to apply an electrical bias between the first electrode and the second electrode to resistively heat the portion of the continuous conductive product disposed between the first and second electrodes , and - a gas supply system ,
A media player for playing media, the media player comprising: a controller ; and a touchscreen operable to receive touch inputs and configured to output corresponding touch input data to the controller , the touchscreen having an inactive display state, which is a power-saving state in which the touchscreen is not displaying any image, and an active display state, in which the touchscreen is displaying an image at a full or high brightness; wherein the controller is configured to control the media player in accordance with touch input data received from the touchscreen ; wherein the touchscreen is divided into plural touch-sensitive input regions which are associated with different media control functions; wherein the controller is configured such that, in the case that the touchscreen is in the inactive display state and touch input data received from the touchscreen indicates that a touch input received at one of the plural touch-sensitive input regions concerns a media control function, the controller operates the media player to perform the media control function associated with the touch-sensitive input region at which the touch input was received, in accordance with the touch input data received from the touchscreen without causing the touchscreen to enter the active display state. a controller ; and a touchscreen operable to receive touch inputs and configured to output corresponding touch input data to the controller , the touchscreen having an inactive display state, which is a power-saving state in which the touchscreen is not displaying any image, and an active display state, in which the touchscreen is displaying an image at a full or high brightness; wherein the controller is configured to control the media player in accordance with touch input data received from the touchscreen ; wherein the touchscreen is divided into plural touch-sensitive input regions which are associated with different media control functions; wherein the controller is configured such that, in the case that the touchscreen is in the inactive display state and touch input data received from the touchscreen indicates that a touch input received at one of the plural touch-sensitive input regions concerns a media control function, the controller operates the media player to perform the media control function associated with the touch-sensitive input region at which the touch input was received, in accordance with the touch input data received from the touchscreen without causing the touchscreen to enter the active display state.
A medical system comprising: processing circuitry configured to: receive, via a sensing electrode located at a target region of a patient, a plurality of evoked compound action potential (ECAP) signals elicited from respective electrical stimuli delivered to the patient; characterized in that the processing circuitry is further configured to: determine, based on the plurality of ECAP signals, an aggressor category for at least some ECAP signals of the plurality of ECAP signals, the aggressor category determined from a plurality of aggressor categories; determine, based on the aggressor category, a set of control policy parameters that at least partially define closed-loop control of stimulation therapy; and control delivery of the stimulation therapy according to at least the set of control policy parameters and one or more subsequent ECAP signals. processing circuitry configured to: receive, via a sensing electrode located at a target region of a patient, a plurality of evoked compound action potential (ECAP) signals elicited from respective electrical stimuli delivered to the patient; characterized in that the processing circuitry is further configured to: determine, based on the plurality of ECAP signals, an aggressor category for at least some ECAP signals of the plurality of ECAP signals, the aggressor category determined from a plurality of aggressor categories; determine, based on the aggressor category, a set of control policy parameters that at least partially define closed-loop control of stimulation therapy; and control delivery of the stimulation therapy according to at least the set of control policy parameters and one or more subsequent ECAP signals. determine, based on the plurality of ECAP signals, an aggressor category for at least some ECAP signals of the plurality of ECAP signals, the aggressor category determined from a plurality of aggressor categories; determine, based on the aggressor category, a set of control policy parameters that at least partially define closed-loop control of stimulation therapy; and control delivery of the stimulation therapy according to at least the set of control policy parameters and one or more subsequent ECAP signals.
A filter element comprising: a tubular ring of filter media ; an end cap having an inner face sealingly secured to an end of the tubular ring of filter media and an outer face facing away from the tubular ring of filter media, the end cap including a fluid flow port passing through the end cap fluidly communicating the inner face with the outer face of the end cap ; a valve member extending across the fluid flow port and sealingly closing the fluid flow port by sealingly interacting with one of the faces of the end cap in a relaxed condition and opening the flow port in a deformed condition, the valve member including a deformable annular flange supported by a support wall and having a distal flange end , wherein: in the relaxed condition of the valve member, the deformable annular flange is relaxed and extends radially outward from the outer surface of the support wall across the fluid flow port , so as to close the fluid flow port by sealingly engaging with its distal flange end the outer face of the end cap ; and in the deformed condition of the valve member, the deformable annular flange is deformed so that its distal flange end is drawn radially inward toward the support wall, thereby opening the flow port in the end cap . a tubular ring of filter media ; an end cap having an inner face sealingly secured to an end of the tubular ring of filter media and an outer face facing away from the tubular ring of filter media, the end cap including a fluid flow port passing through the end cap fluidly communicating the inner face with the outer face of the end cap ; a valve member extending across the fluid flow port and sealingly closing the fluid flow port by sealingly interacting with one of the faces of the end cap in a relaxed condition and opening the flow port in a deformed condition, the valve member including a deformable annular flange supported by a support wall and having a distal flange end , wherein: in the relaxed condition of the valve member, the deformable annular flange is relaxed and extends radially outward from the outer surface of the support wall across the fluid flow port , so as to close the fluid flow port by sealingly engaging with its distal flange end the outer face of the end cap ; and in the deformed condition of the valve member, the deformable annular flange is deformed so that its distal flange end is drawn radially inward toward the support wall, thereby opening the flow port in the end cap . in the relaxed condition of the valve member, the deformable annular flange is relaxed and extends radially outward from the outer surface of the support wall across the fluid flow port , so as to close the fluid flow port by sealingly engaging with its distal flange end the outer face of the end cap ; and in the deformed condition of the valve member, the deformable annular flange is deformed so that its distal flange end is drawn radially inward toward the support wall, thereby opening the flow port in the end cap .
A method for performing three-dimensional magnetic resonance elastography, MRE, using a magnetic resonance imaging, MRI, apparatus, the method comprising: inducing a plurality of three-dimensional shear or compressional waves in an anatomical region of interest in a patient; performing image acquisition during a single patient breath-hold by applying a multi-slice gradient echo, GRE, imaging sequence, in combination with an in-plane acceleration technique, to the anatomical region of interest; and obtaining an image of the anatomical region comprising a first image slice and a second image slice, wherein the first slice and the second slice are partly overlaid in the image, wherein applying a multi-slice GRE imaging sequence comprises: applying a motion encoding gradient on three axes simultaneously, and synchronising the application of the multi-slice GRE imaging sequence to mechanical vibrations in the anatomical region of interest caused by the three-dimensional shear or compressional waves comprising applying a constant delay after each imaging shot within the multi-slice GRE imaging sequence. inducing a plurality of three-dimensional shear or compressional waves in an anatomical region of interest in a patient; performing image acquisition during a single patient breath-hold by applying a multi-slice gradient echo, GRE, imaging sequence, in combination with an in-plane acceleration technique, to the anatomical region of interest; and obtaining an image of the anatomical region comprising a first image slice and a second image slice, wherein the first slice and the second slice are partly overlaid in the image, applying a motion encoding gradient on three axes simultaneously, and synchronising the application of the multi-slice GRE imaging sequence to mechanical vibrations in the anatomical region of interest caused by the three-dimensional shear or compressional waves comprising applying a constant delay after each imaging shot within the multi-slice GRE imaging sequence.