mhurhangee/ep-ind-claims huggingface dataset:
A system configured to diagnose sleep comprising an apparatus configured to be attached to a patient (110, 810); the apparatus comprising: - an optical sensor configured to measure a blood volume pulse of the patient; and - a wireless communication interface configured to wirelessly transmit the measured blood volume pulse; and wherein the system further comprises means (301, 311) for performing: - obtaining the wirelessly transmitted measured blood volume pulse; and - deriving, from the blood volume pulse, a peripheral arterial tone; - determining occurrences of sleep events from changes (721, 722, 731, 732) in the peripheral arterial tone; wherein the apparatus further comprises control circuitry for performing: - gradually increasing the light output of the light emitter; - measuring the gradually increased light by the light sensor; and when the light sensor is saturated by the gradually increased light, configuring the light output of the light emitter below the saturation point of the light sensor thereby calibrating the optical sensor. - an optical sensor configured to measure a blood volume pulse of the patient; and - a wireless communication interface configured to wirelessly transmit the measured blood volume pulse; and wherein the system further comprises means (301, 311) for performing: - obtaining the wirelessly transmitted measured blood volume pulse; and - deriving, from the blood volume pulse, a peripheral arterial tone; - determining occurrences of sleep events from changes (721, 722, 731, 732) in the peripheral arterial tone; - obtaining the wirelessly transmitted measured blood volume pulse; and - deriving, from the blood volume pulse, a peripheral arterial tone; - determining occurrences of sleep events from changes (721, 722, 731, 732) in the peripheral arterial tone; wherein the apparatus further comprises control circuitry for performing: - gradually increasing the light output of the light emitter; - measuring the gradually increased light by the light sensor; and - gradually increasing the light output of the light emitter; - measuring the gradually increased light by the light sensor; and when the light sensor is saturated by the gradually increased light, configuring the light output of the light emitter below the saturation point of the light sensor thereby calibrating the optical sensor.
A method for reporting to an eNodeB a power headroom for a non-scheduled uplink component carrier of a user equipment in a mobile communication system using component carrier aggregation, wherein the method comprises the following steps: calculating by the user equipment a virtual power headroom for the non-scheduled uplink component carrier, based on a pre-configured maximum transmit power, P cmax,c, for the non-scheduled uplink component carrier of the user equipment, and based on a pre-configured virtual uplink resource assignment for said non-scheduled uplink component carrier, wherein the pre-configured virtual uplink resource assignment is known to the eNodeB, and transmitting by the user equipment the calculated virtual power headroom to the eNodeB; characterized in that the virtual power headroom is identified by the eNodeB to refer to the non-scheduled uplink component carrier based on: - a flag in a MAC, medium access control, control element, or - a flag in the subheader of the MAC protocol data unit, comprising the virtual power headroom, wherein in the pre-configured virtual uplink resource assignment for the non-scheduled uplink component carrier, a number of resource blocks is set to 1. calculating by the user equipment a virtual power headroom for the non-scheduled uplink component carrier, based on a pre-configured maximum transmit power, P cmax,c, for the non-scheduled uplink component carrier of the user equipment, and based on a pre-configured virtual uplink resource assignment for said non-scheduled uplink component carrier, wherein the pre-configured virtual uplink resource assignment is known to the eNodeB, and transmitting by the user equipment the calculated virtual power headroom to the eNodeB; characterized in that the virtual power headroom is identified by the eNodeB to refer to the non-scheduled uplink component carrier based on: - a flag in a MAC, medium access control, control element, or - a flag in the subheader of the MAC protocol data unit, comprising the virtual power headroom, - a flag in a MAC, medium access control, control element, or - a flag in the subheader of the MAC protocol data unit, comprising the virtual power headroom, wherein in the pre-configured virtual uplink resource assignment for the non-scheduled uplink component carrier, a number of resource blocks is set to 1.
Harvesting machine for retrieving crop from a field including: a) a take-up device for raising a relatively wide swath of crop from the surface of the field and conveying the raised crop in a downstream direction, b) an undershot cut rotor for receiving crop from the take-up device and delivering a swath of crop, and c) an overshot feed rotor downstream of the undershot cut rotor for receiving the precut crop, characterized in that: d) the undershot cut rotor is formed as an undershot cut and converge rotor delivering a reduced width swath and that the overshot feed rotor receives the narrowed precut crop. a) a take-up device for raising a relatively wide swath of crop from the surface of the field and conveying the raised crop in a downstream direction, b) an undershot cut rotor for receiving crop from the take-up device and delivering a swath of crop, and c) an overshot feed rotor downstream of the undershot cut rotor for receiving the precut crop, d) the undershot cut rotor is formed as an undershot cut and converge rotor delivering a reduced width swath and that the overshot feed rotor receives the narrowed precut crop.
A method for providing a subset of broadcasted information to a user of a vehicle having a receiver and a memory, comprising: broadcasting information from a remote location to a plurality of vehicles to provide broadcasted information; receiving the broadcasted information by way of the receiver of at least one of the plurality of vehicles; and, selectively providing access to only a subset of the broadcasted information to the user of the vehicle having the receiver based on a user profile that is stored within the memory of the vehicle, the memory being in communication with the receiver, characterized that the method further comprises the steps of determining whether the received information requires a response and storing the information in the memory if not; updating the user profile; and comprises selectively providing, based on the updated user profile, user access to only a subset of the broadcasted information stored within the memory of the vehicle while blocking user access to the remaining portion of the broadcasted information stored within the memory, after the user profile has been updated. broadcasting information from a remote location to a plurality of vehicles to provide broadcasted information; receiving the broadcasted information by way of the receiver of at least one of the plurality of vehicles; and, selectively providing access to only a subset of the broadcasted information to the user of the vehicle having the receiver based on a user profile that is stored within the memory of the vehicle, the memory being in communication with the receiver, characterized that the method further comprises the steps of determining whether the received information requires a response and storing the information in the memory if not; updating the user profile; and comprises selectively providing, based on the updated user profile, user access to only a subset of the broadcasted information stored within the memory of the vehicle while blocking user access to the remaining portion of the broadcasted information stored within the memory, after the user profile has been updated.
Rear spoiler device for a vehicle, in particular a utility vehicle or a trailer, wherein the rear spoiler device has at least one movable air guiding element for aerodynamic air guidance and contour extension of a lateral region of the rear of the vehicle, wherein the air guiding element can be moved between a travel position, in which it extends to the rear for aerodynamic air guidance and contour extension on a lateral region of the rear, and a stowed position, and the air guiding element is spring preloaded in the extended travel position and can be moved to the stowed position by pressing the air guiding element in from the rear against the spring preload, characterized in that the shift mechanism has at least one, preferably two or more vertically spaced articulated rod mechanisms, wherein each articulated rod mechanism has at least two rods (16, 17) and corresponding spring means to form the spring effect and the articulated rod mechanism has a longer first rod and a shorter second rod, wherein the first rod in a first hinge can be mounted directly or indirectly on the vehicle, preferably on its rear, and in the extended travel position runs from the first hinge rearward and laterally outward, the second rod is hinged in a second hinge on the first rod and in the travel position extends from the second hinge rearward and towards the middle, and the air guiding element is hinged in a third hinge on the second rod.
A method for producing a power semiconductor device comprising the following steps: - providing a semiconductor body based on SiC, - irradiating at least one first portion of a top side of the semiconductor body with low-energy electron radiation, wherein a kinetic energy of electrons of the low-energy electron radiation is at least 116 keV and at most 210 keV, wherein by means of the low-energy electron radiation in the at least one first portion carbon atoms are moved from the top side into the semiconductor body so that after irradiating the at least one first portion, there the semiconductor body has a layer of Si 0.5+x C 0.5-x, wherein x is at least 0.001 and is at most 0.1, said layer has a thickness of at least 10 nm and of at most 0.2 μm, and - producing an electrical insulation layer at least in the at least one irradiated first portion, wherein the electrical insulation layer is of SiO 2. - providing a semiconductor body based on SiC, - irradiating at least one first portion of a top side of the semiconductor body with low-energy electron radiation, wherein a kinetic energy of electrons of the low-energy electron radiation is at least 116 keV and at most 210 keV, wherein by means of the low-energy electron radiation in the at least one first portion carbon atoms are moved from the top side into the semiconductor body so that after irradiating the at least one first portion, there the semiconductor body has a layer of Si 0.5+x C 0.5-x, wherein x is at least 0.001 and is at most 0.1, said layer has a thickness of at least 10 nm and of at most 0.2 μm, and - producing an electrical insulation layer at least in the at least one irradiated first portion,
An appliance for making beverages, the appliance comprising: a container for liquid, the container having a heated base for heating the liquid; and means for creating a rotational movement of the liquid to raise a level of the liquid at an outer portion of the container; the appliance being characterised by: a brewing chamber secured in a top portion of the container above a first liquid level, so that the liquid flows into the brewing chamber when the means for creating a rotational movement is rotating above a predetermined speed so as to raise the liquid above the first liquid level; wherein the brewing chamber comprises an opening at said outer portion, facing towards the direction of rotational movement of the liquid to allow the liquid to flow into the brewing chamber, and comprises perforations to allow the liquid to flow out of the brewing chamber. a container for liquid, the container having a heated base for heating the liquid; and means for creating a rotational movement of the liquid to raise a level of the liquid at an outer portion of the container; the appliance being characterised by: a brewing chamber secured in a top portion of the container above a first liquid level, so that the liquid flows into the brewing chamber when the means for creating a rotational movement is rotating above a predetermined speed so as to raise the liquid above the first liquid level; wherein the brewing chamber comprises an opening at said outer portion, facing towards the direction of rotational movement of the liquid to allow the liquid to flow into the brewing chamber, and comprises perforations to allow the liquid to flow out of the brewing chamber. a brewing chamber secured in a top portion of the container above a first liquid level, so that the liquid flows into the brewing chamber when the means for creating a rotational movement is rotating above a predetermined speed so as to raise the liquid above the first liquid level; wherein the brewing chamber comprises an opening at said outer portion, facing towards the direction of rotational movement of the liquid to allow the liquid to flow into the brewing chamber, and comprises perforations to allow the liquid to flow out of the brewing chamber.
A handle assembly for use in the deployment of a medical device via a plurality of deployment lines that extend through a catheter, said handle assembly comprising: a plurality of removable members (128', 302', 702') each being attached to at least one of the plurality of lines, wherein each of the plurality of lines is operatively coupled with the medical device for selective deployment or actuation thereof, the plurality of removable members (128', 302', 702') being removably attached to each other such that only one of the removable members (128', 302', 702') is presented for manipulation by a user and removal of each of the removable members (128', 302', 702') presents another of the removable members (128', 302', 702') for manipulation by the user; and an actuating mechanism for displacing a wire extending through the catheter for actuating the medical device independently of the plurality of removable members (182', 302', 702'); the actuating mechanism comprising; a threaded rod extending along a longitudinal axis and a nut coupled to the wire and threadingly engaged to the rod such that the wire translates with the nut along the longitudinal axis in response to selective rotation of the rod about the longitudinal axis. a plurality of removable members (128', 302', 702') each being attached to at least one of the plurality of lines, wherein each of the plurality of lines is operatively coupled with the medical device for selective deployment or actuation thereof, the plurality of removable members (128', 302', 702') being removably attached to each other such that only one of the removable members (128', 302', 702') is presented for manipulation by a user and removal of each of the removable members (128', 302', 702') presents another of the removable members (128', 302', 702') for manipulation by the user; and an actuating mechanism for displacing a wire extending through the catheter for actuating the medical device independently of the plurality of removable members (182', 302', 702'); the actuating mechanism comprising; a threaded rod extending along a longitudinal axis and a nut coupled to the wire and threadingly engaged to the rod such that the wire translates with the nut along the longitudinal axis in response to selective rotation of the rod about the longitudinal axis.
Motor controller for controlling an electrical machine, wherein the motor controller has: - an input connection for entering a desired setpoint variable which is indicative of a torque which is desired to be delivered by the electrical machine and for entering a limit variable which is indicative of a mechanical operating limit of the electrical machine; and - a processor for outputting an actual setpoint variable which is indicative of a torque which is actually to be delivered by the electrical machine, wherein the processor is designed to determine the actual setpoint variable based on the desired setpoint variable and the limit variable, characterized in that - the motor controller is designed to obtain the limit variable from which a maximum rotation speed, which is indicative of an upper limit rotation speed of the electrical machine, and a minimum rotation speed, which is indicative of a lower limit rotation speed of the electrical machine, and a maximum torque, which is indicative of an upper limit torque of the electrical machine, and a minimum torque, which is indicative of a lower limit torque of the electrical machine, can be derived, wherein the maximum rotation speed, the minimum rotation speed, the maximum torque and the minimum torque can be derived from the limit variable; - wherein the motor controller is further designed to determine the actual setpoint variable based on the maximum rotation speed, the minimum rotation speed, the maximum torque and the minimum torque. - an input connection for entering a desired setpoint variable which is indicative of a torque which is desired to be delivered by the electrical machine and for entering a limit variable which is indicative of a mechanical operating limit of the electrical machine; and - a processor for outputting an actual setpoint variable which is indicative of a torque which is actually to be delivered by the electrical machine, wherein the processor is designed to determine the actual setpoint variable based on the desired setpoint variable and the limit variable, characterized in that - the motor controller is designed to obtain the limit variable from which a maximum rotation speed, which is indicative of an upper limit rotation speed of the electrical machine, and a minimum rotation speed, which is indicative of a lower limit rotation speed of the electrical machine, and a maximum torque, which is indicative of an upper limit torque of the electrical machine, and a minimum torque, which is indicative of a lower limit torque of the electrical machine, can be derived, wherein the maximum rotation speed, the minimum rotation speed, the maximum torque and the minimum torque can be derived from the limit variable; - wherein the motor controller is further designed to determine the actual setpoint variable based on the maximum rotation speed, the minimum rotation speed, the maximum torque and the minimum torque.
A method of HCN production in an oxygen Andrussow process by Andrussow ammoxidation of an alkane mixture with ammonia and an oxygen containing feed stream having about at least 26 mol% oxygen, in the presence of a platinum catalyst, comprising: use of an alkane mixture comprising methane of at least 99 wt% purity. use of an alkane mixture comprising methane of at least 99 wt% purity.
A security apparatus comprising: a security panel configured to - receive commands, activation instructions, and configuration instructions relating to commands to perform operations including activating motion detectors, configuring alarm systems, turning on lights, and locking doors, and - operate a security system based on the commands and instructions, a modem; a processing system comprising one or more processors; and a memory system comprising one or more computer-readable media, wherein the computer-readable media contain instructions that, when executed by the processing system, cause the processing system to perform operations comprising: receiving an SMS message comprising one or more characters, wherein the one or more characters comprise one or more parameters; parsing the one or more characters to identify the one or more parameters; and establishing a network connection with a communication server using the one or more parameters, wherein the modem is configured to receive a predefined number of ringtones sent by a communication server, predefined number of ringtones serving as an indication to the security panel that the server is attempting to or will attempt to establish a connection with the security panel. wherein the operations further comprise receiving one or more commands from the communication server via the network connection. - receive commands, activation instructions, and configuration instructions relating to commands to perform operations including activating motion detectors, configuring alarm systems, turning on lights, and locking doors, and - operate a security system based on the commands and instructions, a modem;
A method for producing a cationic electrodeposition coating composition, comprising mixing three components, i.e., an aqueous dispersion of an amino group-containing epoxy resin, an aqueous dispersion of a blocked polyisocyanate compound, and a pigment dispersion paste, wherein the aqueous dispersion of a blocked polyisocyanate compound comprises an emulsifier and a blocked polyisocyanate compound (b) obtained by reacting an isocyanate compound (b-1) with a blocking agent (b-2), and the active hydrogen group content in the emulsifier is 50 mol% or less based on the isocyanate group content in the polyisocyanate compound (b-1).
Use of adenosine N1-oxide 5'-phosphate and/or its salt, in combination with one or more members selected from the group consisting of ascorbic acid 2-glucoside, ethylenediaminetetraacetate (EDTA), and epigallocatechin gallate, as effective ingredients for anti-ageing in an external dermal agent.
Ball return (1, 1') of a ball screw drive, which comprises a deflection channel and two identically constructed deflectors for lifting balls in or out of a ball channel between the spindle nut and the threaded spindle of the ball screw drive, wherein the deflectors are each of integral design and are insertable from the outside into the lateral surface of the spindle nut and are radially retractable into the lateral surface, and each deflector comprises at least two functional regions or elements: i. a positioning element which is designed to define the installation position of the deflector, ii. a deflection element having a blade-shaped lift-out region and a deflection surface for the balls from or into a ball channel, characterized in that all surfaces of the deflector provided for guiding balls are designed as non-tunnel-shaped closed grooves. i. a positioning element which is designed to define the installation position of the deflector, ii. a deflection element having a blade-shaped lift-out region and a deflection surface for the balls from or into a ball channel,