mhurhangee/patent-ind-claim-en huggingface dataset:
Method for selectively removing an emitter layer on a single side of a silicon substrate , wherein the silicon substrate initially comprises an emitter layer at both opposing sides and wherein the silicon substrate initially comprises a silicate glass layer covering the emitter layer at both opposing sides , wherein the method comprises: - selectively removing the silicate glass layer exclusively on a first side of a silicon substrate by contacting the silicate glass layer exclusively on the first side with a first etching solution , the first etching solution etching silicate glass and not substantially etching silicon; and - removing the emitter layer on the first side of a silicon substrate by contacting the emitter layer on the first side with a second etching solution , the second etching solution etching silicon and not substantially etching silicate glass, wherein, in the step of removing the emitter layer , the silicon substrate is arranged with its first side directed in an upwards direction, wherein the second etching solution is applied on top of the first side of the silicon substrate and wherein, in the step of removing the emitter layer , a non-etching liquid is brought into contact with the second side of the silicon substrate . - selectively removing the silicate glass layer exclusively on a first side of a silicon substrate by contacting the silicate glass layer exclusively on the first side with a first etching solution , the first etching solution etching silicate glass and not substantially etching silicon; and - removing the emitter layer on the first side of a silicon substrate by contacting the emitter layer on the first side with a second etching solution , the second etching solution etching silicon and not substantially etching silicate glass, wherein, in the step of removing the emitter layer , the silicon substrate is arranged with its first side directed in an upwards direction, wherein the second etching solution is applied on top of the first side of the silicon substrate and wherein, in the step of removing the emitter layer , a non-etching liquid is brought into contact with the second side of the silicon substrate .
Method for monitoring a motorcycle , having the following steps: acquiring and evaluating acceleration-related information (a, ax, ay, az) of the motorcycle , wherein a vehicle movement (FB) and a vehicle position (FL) in three-dimensional space are estimated based on the acceleration-related information (a, ax, ay, az) and/or quantities ascertained therefrom, wherein the currently estimated vehicle position (FL) in space is evaluated and assessed as a normal or critical driving state (Z1, Z2), characterized in that an acquisition direction (ER) of a sensor unit is predefined such that the acquisition direction (ER) lies in a horizontal plane (x-y) in an upright normal rest position (RL1) of the motorcycle and the acquired acceleration-related information (a, ax, ay, az) comprises a first acceleration component (ax) in the vehicle longitudinal direction (X) and a second acceleration component (ay) in the vehicle transverse direction (Y), wherein the plausibility of a driving state (Z2) assessed as critical is checked with the estimated vehicle movement (FB) in order to identify a critical rest position (RL2) following an accident, and an emergency call (NR) is generated upon an identified critical rest position (RL2) following an accident.
A method of detecting a bioresorbable scaffold in a blood vessel comprising: storing, in an electronic memory storage device, intravascular image data from a pullback of an intravascular probe through the blood vessel and a bioabsorbable scaffold disposed in the blood vessel, the bioresorbable scaffold having one or more non-metal struts; generating a plurality of image frames from the stored intravascular image data, the stored intravascular image data comprising a plurality of scan lines, generating a mask for one or more image frames of the plurality of image frames; inverting the mask to generate an inverted mask, wherein the inverted mask comprises bright pixel regions separated by dark pixel regions; detecting a group of bright pixel regions; and identifying the group of bright pixel regions as defining a candidate inner region of a non-metal strut of the bioresorbable scaffold, wherein groupings of the bright pixel regions define a plurality of insular regions separated by a plurality of the dark pixel regions. storing, in an electronic memory storage device, intravascular image data from a pullback of an intravascular probe through the blood vessel and a bioabsorbable scaffold disposed in the blood vessel, the bioresorbable scaffold having one or more non-metal struts; generating a plurality of image frames from the stored intravascular image data, the stored intravascular image data comprising a plurality of scan lines, generating a mask for one or more image frames of the plurality of image frames; inverting the mask to generate an inverted mask, wherein the inverted mask comprises bright pixel regions separated by dark pixel regions; detecting a group of bright pixel regions; and identifying the group of bright pixel regions as defining a candidate inner region of a non-metal strut of the bioresorbable scaffold, wherein groupings of the bright pixel regions define a plurality of insular regions separated by a plurality of the dark pixel regions.
A method of manufacturing a panel assembly , comprising: supporting a panel assembly in a free state using a holding fixture in which the panel assembly has a geometric shape that is different than the geometric shape of the panel assembly in an as-designed nominal state , the panel assembly comprising a skin panel and sacrificial material coupled to a skin panel inner surface respectively at interface locations for coupling the panel assembly to a mating structure ; acquiring a free state outer surface contour of the panel assembly by scanning a skin panel outer surface of the skin panel while the panel assembly is supported by the holding fixture ; developing a numerically controlled 'NC' machining program having cutter paths configured for machining the interface locations to an inner surface contour that reflects nominal thicknesses of the panel assembly based off of the free state outer surface contour ; and machining the sacrificial material at the interface locations by moving a cutter along the cutter paths while the panel assembly is supported by the holding fixture , and while the cutter is backed by a backing device applying backing pressure against the skin panel outer surface , wherein the backing device moves in a coordinated manner in alignment with the cutter as the cutter moves along the cutter paths on the opposite side of the skin panel. supporting a panel assembly in a free state using a holding fixture in which the panel assembly has a geometric shape that is different than the geometric shape of the panel assembly in an as-designed nominal state , the panel assembly comprising a skin panel and sacrificial material coupled to a skin panel inner surface respectively at interface locations for coupling the panel assembly to a mating structure ; acquiring a free state outer surface contour of the panel assembly by scanning a skin panel outer surface of the skin panel while the panel assembly is supported by the holding fixture ; developing a numerically controlled 'NC' machining program having cutter paths configured for machining the interface locations to an inner surface contour that reflects nominal thicknesses of the panel assembly based off of the free state outer surface contour ; and machining the sacrificial material at the interface locations by moving a cutter along the cutter paths while the panel assembly is supported by the holding fixture , and while the cutter is backed by a backing device applying backing pressure against the skin panel outer surface , wherein the backing device moves in a coordinated manner in alignment with the cutter as the cutter moves along the cutter paths on the opposite side of the skin panel.
A blower housing component with a housing body and a mounting flange extending radially outward from the housing body , at which mounting flange multiple mounting points are arranged for mounting the blower housing component , which mounting points are evenly spaced in the circumferential direction, wherein radial ribs extending radially in a straight line along the mounting flange are formed between the housing body and the mounting points , characterized in that the radial ribs are intersected by tangential ribs extending along the mounting flange , which tangential ribs extend tangentially to the housing body between two of the mounting points , respectively, and connect the two mounting points , respectively.
A composition containing Dendrobium candidum extract, comprising the following raw materials in parts by mass: 4-6 parts of sodium hyaluronate, 0.5-1.5 parts of Dendrobium candidum stem extract, 0.5-1.5 parts of Crocus sativus extract, 0.5-1.5 parts of Cereus grandiflorus extract, 0.5-1.5 parts of Centaurea cyanus extract and 0.5-1.5 parts of Scutellaria baicalensis root extract.
Motor control system for determining an operating point for controlling an electric motor in an electric system comprising a battery and an electronic control unit , characterized in that the motor control system comprises: - a calibrator having an input for receiving a battery voltage (U bat ) of the battery , a motor speed (ω e ) and a requested torque (T) of the electric motor , the calibrator being configured to calculate a modified speed (ω e * ) based on the received battery voltage (U bat ), the motor speed (ω e ) and the requested torque (T), and - an operating point controller having an input for receiving a fixed battery voltage reference (U ref ), the modified speed (ω e * ) and the requested torque (T), the operating point controller being configured for determining the operating point for controlling the electric motor based on the received fixed battery voltage reference (U ref ), the modified speed (ω e * ) and the requested torque (T). - a calibrator having an input for receiving a battery voltage (U bat ) of the battery , a motor speed (ω e ) and a requested torque (T) of the electric motor , the calibrator being configured to calculate a modified speed (ω e * ) based on the received battery voltage (U bat ), the motor speed (ω e ) and the requested torque (T), and - an operating point controller having an input for receiving a fixed battery voltage reference (U ref ), the modified speed (ω e * ) and the requested torque (T), the operating point controller being configured for determining the operating point for controlling the electric motor based on the received fixed battery voltage reference (U ref ), the modified speed (ω e * ) and the requested torque (T).
Method for operating a more highly automated vehicle, in particular a highly automated vehicle, comprising the steps of: S1 providing a digital map, preferably a highly accurate digital map, in a driver assistance system of the more highly automated vehicle; S2 determining a current vehicle position and locating the vehicle position in the digital map; S3 providing an expected target traffic density at the vehicle position; S4 determining a current actual traffic density in an environment of the more highly automated vehicle; S5 comparing the actual traffic density with the target traffic density and determining a difference value as the result of the comparison; characterized in that the method comprises the further step of: S6 checking the plausibility of the vehicle position of the more highly automated vehicle at least partially on the basis of the difference value. S1 providing a digital map, preferably a highly accurate digital map, in a driver assistance system of the more highly automated vehicle; S2 determining a current vehicle position and locating the vehicle position in the digital map; S3 providing an expected target traffic density at the vehicle position; S4 determining a current actual traffic density in an environment of the more highly automated vehicle; S5 comparing the actual traffic density with the target traffic density and determining a difference value as the result of the comparison; S6 checking the plausibility of the vehicle position of the more highly automated vehicle at least partially on the basis of the difference value.
An aerodynamic coefficient estimation device comprising: a deflection angle command signal generation means that is configured to generate a deflection angle command signal for estimating an aerodynamic coefficient indicating an aerodynamic characteristic of an airframe; a kinetic state quantity acquisition means that is configured to acquire a kinetic state quantity of the airframe that is sensor information related to a kinetic state and is obtained as a result of a control surface provided on the airframe being moved based on the deflection angle command signal; the aerodynamic coefficient estimation device is characterized by a candidate value calculation means that is configured to calculate a plurality of candidate values for estimating the aerodynamic coefficient from the kinetic state quantity using two or more different estimations; and an aerodynamic coefficient estimate determination means that is configured to finally determine one aerodynamic coefficient estimate based on the plurality of candidate values. a deflection angle command signal generation means that is configured to generate a deflection angle command signal for estimating an aerodynamic coefficient indicating an aerodynamic characteristic of an airframe; a kinetic state quantity acquisition means that is configured to acquire a kinetic state quantity of the airframe that is sensor information related to a kinetic state and is obtained as a result of a control surface provided on the airframe being moved based on the deflection angle command signal; the aerodynamic coefficient estimation device is characterized by a candidate value calculation means that is configured to calculate a plurality of candidate values for estimating the aerodynamic coefficient from the kinetic state quantity using two or more different estimations; and an aerodynamic coefficient estimate determination means that is configured to finally determine one aerodynamic coefficient estimate based on the plurality of candidate values.
An apparatus for moving an object that is suspended by means of tubes or rings , comprising: - an elongated body having an elongated portion having two ends; - fixing means for a filiform element positioned at each of said ends of said elongated body ; and - a stop element projecting from said elongated portion of said elongated body and resiliently connected to said elongated body , such that the stop element pushes the ring or tube by means of which the object is suspended until the force that the ring or tube applies on that stop element is such that it produces a resilient deformation of said stop element , therefore producing the apparatus to pass through said ring or tube , consequently releasing said ring or tube . - an elongated body having an elongated portion having two ends; - fixing means for a filiform element positioned at each of said ends of said elongated body ; and - a stop element projecting from said elongated portion of said elongated body and resiliently connected to said elongated body , such that the stop element pushes the ring or tube by means of which the object is suspended until the force that the ring or tube applies on that stop element is such that it produces a resilient deformation of said stop element , therefore producing the apparatus to pass through said ring or tube , consequently releasing said ring or tube .
A monitoring unit, which is configured to monitor a patient during operation of a high-frequency surgery device , wherein the high-frequency surgery device is configured to separate and/or coagulate biological tissue by means of high-frequency energy, wherein the monitoring unit has: - measuring sensors , and - an evaluation and control unit , wherein the measuring sensors are configured to detect a parameter which is caused during the separation and/or coagulation of the biological tissue because of the high-frequency energy characterized in that the measuring sensors are each magnetic and/or electric antennas which are configured to detect electromagnetic measuring signals from the periphery of the patient as the parameter, the measuring signals being generated by the high-frequency energy during operation of the high-frequency surgery device , and wherein the evaluation and control unit is configured to calculate a spatial distribution of electric current density from the electromagnetic measuring signals by solving a mathematical inverse problem. - measuring sensors , and - an evaluation and control unit , wherein the measuring sensors are configured to detect a parameter which is caused during the separation and/or coagulation of the biological tissue because of the high-frequency energy characterized in that the measuring sensors are each magnetic and/or electric antennas which are configured to detect electromagnetic measuring signals from the periphery of the patient as the parameter, the measuring signals being generated by the high-frequency energy during operation of the high-frequency surgery device , and wherein the evaluation and control unit is configured to calculate a spatial distribution of electric current density from the electromagnetic measuring signals by solving a mathematical inverse problem. wherein the measuring sensors are configured to detect a parameter which is caused during the separation and/or coagulation of the biological tissue because of the high-frequency energy characterized in that the measuring sensors are each magnetic and/or electric antennas which are configured to detect electromagnetic measuring signals from the periphery of the patient as the parameter, the measuring signals being generated by the high-frequency energy during operation of the high-frequency surgery device , and wherein the evaluation and control unit is configured to calculate a spatial distribution of electric current density from the electromagnetic measuring signals by solving a mathematical inverse problem.
System for converting a direct electrical power into three-phase alternating electrical power comprising three switching arms (A, B, C), characterized in that said conversion system comprises an assembly on a printed circuit board of at least one power module per switching arm (A, B, C), an electrical energy harvesting module and a coil (Ls) for soft switching, each power module being designed to convert the power of a direct current into power of an alternating current, the coil being designed to modulate the current variation for the soft switching, and the energy harvesting module being designed to harvest the energy available or created during the soft switching.
A method for controlling power to a heating device on a vehicle, the method comprising: receiving information indicative of altitude of the vehicle and outside air temperature generating a signal at least in part on a basis of the information indicative of the altitude of the vehicle and outside air temperature for controlling power to the heating device in an open loop manner; and causing power to be supplied to the heating device in accordance with the signal, characterized in that adjustments to the heating device are based on an anticipated cruising altitude of the vehicle. receiving information indicative of altitude of the vehicle and outside air temperature generating a signal at least in part on a basis of the information indicative of the altitude of the vehicle and outside air temperature for controlling power to the heating device in an open loop manner; and causing power to be supplied to the heating device in accordance with the signal, characterized in that adjustments to the heating device are based on an anticipated cruising altitude of the vehicle.
An imaging lens consisting of: a negative first lens (L1); a negative second lens (L2) of a biconcave shape; a third lens (L3) of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side; and a fourth lens (L4) of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side, characterized in that the following conditional formula is satisfied: 3.1 < R 4 / f where R4: a curvature radius of an image-side surface of the second lens (L2), and f: a focal length of an entire system. a negative first lens (L1); a negative second lens (L2) of a biconcave shape; a third lens (L3) of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side; and a fourth lens (L4) of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side, characterized in that the following conditional formula is satisfied: R4: a curvature radius of an image-side surface of the second lens (L2), and f: a focal length of an entire system.
A method for use by a first-party entity within a communication network, wherein said first-party entity is configured for self-organizing network and/or non-self-organizing network function coordination, said method comprising: receiving (S201; S303; S403), via an Operation Administration and Maintenance interface, at least one instruction from a second-party entity within the communication network, wherein the at least one instruction indicates at least one policy to be used for the self-organizing network and/or non-self-organizing network function coordination; and performing (S202; S304; S405) the self-organizing network and/or non-self-organizing network function coordination based on the at least one policy. receiving (S201; S303; S403), via an Operation Administration and Maintenance interface, at least one instruction from a second-party entity within the communication network, wherein the at least one instruction indicates at least one policy to be used for the self-organizing network and/or non-self-organizing network function coordination; and performing (S202; S304; S405) the self-organizing network and/or non-self-organizing network function coordination based on the at least one policy.
A method of random access implemented by a wireless device in a mixed numerology New Radio, NR, communication network , said method comprising: receiving system information from a network node , said system information containing a System Information Block, SIB, indicating a configuration for random access; selecting a sub-band for random access configured according to a numerology determined from two or more numerologies available for random access as indicated by said SIB; and performing a random access on the selected sub-band to establish a connection with the network node . receiving system information from a network node , said system information containing a System Information Block, SIB, indicating a configuration for random access; selecting a sub-band for random access configured according to a numerology determined from two or more numerologies available for random access as indicated by said SIB; and performing a random access on the selected sub-band to establish a connection with the network node .