mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting conditions likely to cause a quench in a superconducting magnet comprising a plurality of HTS field coils, each field coil comprising: a plurality of turns comprising HTS material and metallic stabilizer; and a conductive material connecting the turns such that current can be shared radially between turns via the conductive material; the method comprising: monitoring strain and/or a magnetic field of each HTS field coil; comparing the monitored strain and/or magnetic field for each HTS field coil to the monitored strain and/or magnetic field of at least one other HTS field coil of the plurality of HTS field coils; in response to said comparison, determining whether one or more of the HTS field coils is likely to quench. a plurality of turns comprising HTS material and metallic stabilizer; and a conductive material connecting the turns such that current can be shared radially between turns via the conductive material; monitoring strain and/or a magnetic field of each HTS field coil; comparing the monitored strain and/or magnetic field for each HTS field coil to the monitored strain and/or magnetic field of at least one other HTS field coil of the plurality of HTS field coils; in response to said comparison, determining whether one or more of the HTS field coils is likely to quench.
A method of improving data quality using GNSS, the method comprising: automatically analyzing a stream of GNSS messages from a GNSS receiver for a preconfigured condition; automatically filtering the GNSS data received via the GNSS receiver as a function of the preconfigured condition; and automatically providing the filtered GNSS data to a GIS system, wherein the method further comprises automatically locking onto a location point (42, 44, 46) reading of the GNSS receiver when the preconfigured condition is met; and wherein the filtering comprises repeating the GNSS message of the single locked location point (42, 44, 46) reading determined as a function of the preconfigured condition to the GIS system. automatically analyzing a stream of GNSS messages from a GNSS receiver for a preconfigured condition; automatically filtering the GNSS data received via the GNSS receiver as a function of the preconfigured condition; and automatically providing the filtered GNSS data to a GIS system, wherein the method further comprises automatically locking onto a location point (42, 44, 46) reading of the GNSS receiver when the preconfigured condition is met; and wherein the filtering comprises repeating the GNSS message of the single locked location point (42, 44, 46) reading determined as a function of the preconfigured condition to the GIS system.
Apparatus (10, 10.2) for processing an assembly, such as in particular a hose portion, - having a first linear motor circuit (12, 12.2) -- having at least one linear motor carriage unit, which can be moved on the first linear motor circuit (12, 12.2), -- having a feeding device for feeding assemblies to be processed and for fastening them to a linear motor carriage unit, -- having an unloading device for unloading the processed assembly from the linear motor carrier unit, - having a second linear motor circuit (14, 14.2) -- having at least one linear motor carriage (30, 32), which can be moved on the second linear motor circuit (14, 14.2), -- having at least one processing unit, which is positioned on the at least one linear motor carriage (30, 32), - wherein the first linear motor circuit (12, 12.2) and the second linear motor circuit (14, 14.2) extend parallel to one another in certain regions, with the result that the assemblies present on the linear motor carriage units of the first linear motor circuit (12, 12.2) can be processed by the processing units present on the linear motor carriages (30, 32) of the second linear motor circuit (14, 14.2). - having a first linear motor circuit (12, 12.2) -- having at least one linear motor carriage unit, which can be moved on the first linear motor circuit (12, 12.2), -- having a feeding device for feeding assemblies to be processed and for fastening them to a linear motor carriage unit, -- having an unloading device for unloading the processed assembly from the linear motor carrier unit, -- having at least one linear motor carriage unit, which can be moved on the first linear motor circuit (12, 12.2), -- having a feeding device for feeding assemblies to be processed and for fastening them to a linear motor carriage unit, -- having an unloading device for unloading the processed assembly from the linear motor carrier unit, - having a second linear motor circuit (14, 14.2) -- having at least one linear motor carriage (30, 32), which can be moved on the second linear motor circuit (14, 14.2), -- having at least one processing unit, which is positioned on the at least one linear motor carriage (30, 32), -- having at least one linear motor carriage (30, 32), which can be moved on the second linear motor circuit (14, 14.2), -- having at least one processing unit, which is positioned on the at least one linear motor carriage (30, 32), - wherein the first linear motor circuit (12, 12.2) and the second linear motor circuit (14, 14.2) extend parallel to one another in certain regions, with the result that the assemblies present on the linear motor carriage units of the first linear motor circuit (12, 12.2) can be processed by the processing units present on the linear motor carriages (30, 32) of the second linear motor circuit (14, 14.2).
A device for erectile dysfunction treatment, the device comprising: at least one radiofrequency generator configured to generate RF energy; a plurality of RF electrode pairs, each RF electrode in each RF electrode pair of the plurality of RF electrode pairs configured to contact a target penile surface and connected to the at least one RF generator; a control circuitry connected to each RF electrode in each RF electrode pair (222, 224, 226) of the plurality of RF electrode pairs and connected to at least one RF generator of the at least one RF generator, the control circuitry configured to switch among RF electrode pairs of the plurality of RF electrode pairs to apply the generated RF energy to the penis to thereby elevate a temperature of internal penile tissue above a predetermined temperature value while maintaining a penile surface below a predetermined temperature threshold; characterized by the device further comprising: a reusable support, wherein the reusable support comprises at least one temperature sensor connected to the control circuitry and configured to monitor a penile surface temperature, wherein the control circuitry is further configured to discontinue and/or to adjust the RF energy delivery upon detection of the penile surface temperature based on the predetermined temperature threshold. at least one radiofrequency generator configured to generate RF energy; a plurality of RF electrode pairs, each RF electrode in each RF electrode pair of the plurality of RF electrode pairs configured to contact a target penile surface and connected to the at least one RF generator; a control circuitry connected to each RF electrode in each RF electrode pair (222, 224, 226) of the plurality of RF electrode pairs and connected to at least one RF generator of the at least one RF generator, the control circuitry configured to switch among RF electrode pairs of the plurality of RF electrode pairs to apply the generated RF energy to the penis to thereby elevate a temperature of internal penile tissue above a predetermined temperature value while maintaining a penile surface below a predetermined temperature threshold; characterized by the device further comprising: a reusable support, wherein the reusable support comprises at least one temperature sensor connected to the control circuitry and configured to monitor a penile surface temperature, wherein the control circuitry is further configured to discontinue and/or to adjust the RF energy delivery upon detection of the penile surface temperature based on the predetermined temperature threshold.
An expression vector encoding a chimeric Hepatitis B virus core antigen polypeptide inserted with an amino acid sequence comprising a specific epitope of angiotensin II, for use in a method for the treatment or improvement of hypertension in a mammal, wherein the amino acid sequence comprising the specific epitope is inserted between the amino acid residues 80 and 81 of the hepatitis B virus core antigen polypeptide, wherein the amino acid sequence comprising the specific epitope is the amino acid sequence shown by SEQ ID NO: 16, and wherein the expression vector further comprises an immunostimulatory sequence consisting of the nucleotide sequence shown by SEQ ID NO: 22 incorporated into the expression vector and expresses the chimeric Hepatitis B virus core antigen polypeptide in a cell in the mammal.
A temperature sensor (1, 21, 31) comprising: an insulating film (2, 32); a thin film thermistor portion (3, 33) which is formed on the surface of the insulating film (2, 32) with a thermistor material of TiAlN; a pair of interdigitated electrodes which have a plurality of comb portions and are pattern-formed on at least one of the top or the bottom of the thin film thermistor portion (3, 33) using a metal so as to face each other; and a pair of pattern electrodes (5, 25, 35) which are pattern-formed on the surface of the insulating film and are connected to the pair of interdigitated electrodes, characterized in that at least a part of each of the pattern (5, 25, 35) electrodes is formed of a conductive resin. an insulating film (2, 32); a thin film thermistor portion (3, 33) which is formed on the surface of the insulating film (2, 32) with a thermistor material of TiAlN; a pair of interdigitated electrodes which have a plurality of comb portions and are pattern-formed on at least one of the top or the bottom of the thin film thermistor portion (3, 33) using a metal so as to face each other; and a pair of pattern electrodes (5, 25, 35) which are pattern-formed on the surface of the insulating film and are connected to the pair of interdigitated electrodes, characterized in that at least a part of each of the pattern (5, 25, 35) electrodes is formed of a conductive resin.
A precipitation hardenable martensitic stainless steel consisting of, at a mass rate, C: 0.05-0.08%, Cr: 12.0-13.0%, Ni: 6.0-7.0%, Mo: 1.0-2.0%, Si: 0.01-0.05%, Mn: 0.06-1.0%, Nb: 0.3-0.5%, V: 0.3-0.5%, Ti: 1.5-2.5%, A1: 1.0-2.3%, and the remainder/balance consisting of Fe together with unavoidable impurities as, at a mass rate, P: ≤ 0.015%, more preferably ≤ 0.01%, S: ≤ 0.015%, more preferably ≤ 0,01%, Sb: ≤ 0.01%, more preferably ≤ 0.001%, Sn: ≤ 0.05%, more preferably ≤ 0.005%, and As: ≤ 0.1%, more preferably ≤ 0.01%, wherein the precipitation hardenable martensitic stainless steel satisfies all conditions that a value of (a) defined in the equation below is in the range of 1.1 to 1.8, a value of (b) is in the range of 8.5 to 11.8, a value of (c) is 20.2 or less, and a value of (d) is 10.0 or less: a = Nb % + V % + 10 × C % b = Al % + Ni % + Ti % c = Cr % + 1.5 × Si % + Mo % + 0.5 % × Nb % + 2 × Ti % d = Ni % + 0.5 × Mn % + 30 × C % and wherein the precipitation hardenable martensitic stainless steel has a tempered martensite structure with δ ferrite ≤ 1% and residual austenite ≤ 1%, it has a tensile strength of 1350 MPa or more at room temperature, a Charpy value of 50 J/cm 2 or more at room temperature and a pitting potential of 220 mV or more.
Method for manufacturing a 3D electromechanical component (1; 20, 22; 48) comprising the steps consisting in: - implementing an additive manufacturing operation for building an electrically conductive skeleton of the 3D electromechanical component including: a structural hull (4; 26; 58), and at least one conductive wire (2; 24) at least partially located inside said structural hull (4; 26; 58) and having first and second ends, at least one of which is mechanically linked to said structural hull (4; 26; 58); - filling said structural hull (4; 26; 58) with an electrically insulating material (8; 38; 62) provided in a state in which it exhibits a liquid-like behaviour; - implementing a solidification step to provide a solid-like behaviour of said insulating material (8; 38; 62), the latter thus embedding at least partially said conductive wire (2; 24) built through said additive manufacturing operation, so as to define an embedded electrical conductor. - implementing an additive manufacturing operation for building an electrically conductive skeleton of the 3D electromechanical component including: a structural hull (4; 26; 58), and at least one conductive wire (2; 24) at least partially located inside said structural hull (4; 26; 58) and having first and second ends, at least one of which is mechanically linked to said structural hull (4; 26; 58); a structural hull (4; 26; 58), and at least one conductive wire (2; 24) at least partially located inside said structural hull (4; 26; 58) and having first and second ends, at least one of which is mechanically linked to said structural hull (4; 26; 58); - filling said structural hull (4; 26; 58) with an electrically insulating material (8; 38; 62) provided in a state in which it exhibits a liquid-like behaviour; - implementing a solidification step to provide a solid-like behaviour of said insulating material (8; 38; 62), the latter thus embedding at least partially said conductive wire (2; 24) built through said additive manufacturing operation, so as to define an embedded electrical conductor.
Piston-cylinder-unit a) with a cylinder having a cylinder head, b) with a piston axially movable in the cylinder and c) with a piston motion sensor, d) wherein the piston motion sensor is arranged with an orientation in a transverse hole of the cylinder head having a longitudinal axis, so that the longest dimension of the piston motion sensor extends in the direction of the longitudinal axis of the transverse hole wherein e) the piston motion sensor is connected to a housing plug through a sensor cable, f) the sensor cable is detachably connected to the piston motion sensor and/or the housing plug, and g) the housing plug is L-shaped with two angled legs (67, 68), wherein ga) a leg extends in the transverse hole of the cylinder head and gb) a leg extends lying externally from the cylinder head. a) with a cylinder having a cylinder head, b) with a piston axially movable in the cylinder and c) with a piston motion sensor, d) wherein the piston motion sensor is arranged with an orientation in a transverse hole of the cylinder head having a longitudinal axis, so that the longest dimension of the piston motion sensor extends in the direction of the longitudinal axis of the transverse hole wherein e) the piston motion sensor is connected to a housing plug through a sensor cable, f) the sensor cable is detachably connected to the piston motion sensor and/or the housing plug, and g) the housing plug is L-shaped with two angled legs (67, 68), wherein ga) a leg extends in the transverse hole of the cylinder head and gb) a leg extends lying externally from the cylinder head. ga) a leg extends in the transverse hole of the cylinder head and gb) a leg extends lying externally from the cylinder head.
A depth image generating apparatus comprising: a light source configured to emit light towards an object so that the light is reflected by the object; an optical shutter provided on a path of the light reflected by the object and configured to modulate a waveform of the reflected light by changing a transmissivity of the optical shutter with respect to the reflected light; a driver configured to apply a driving voltage to the light source and a driving voltage to the optical shutter; a depth information obtainer configured to generate an image corresponding to the reflected light that passes through the optical shutter, extract a phase difference between a phase of the light emitted by the light source to the object and a phase of the reflected light, and obtain depth information regarding the object based on the phase difference, characterized by a temperature measurer configured to measure a temperature of the optical shutter; and a controller configured to control a driving voltage (V d1) applied to the light source and a driving voltage (V d2) applied to the optical shutter based on the temperature measured by the temperature measurer. a light source configured to emit light towards an object so that the light is reflected by the object; an optical shutter provided on a path of the light reflected by the object and configured to modulate a waveform of the reflected light by changing a transmissivity of the optical shutter with respect to the reflected light; a driver configured to apply a driving voltage to the light source and a driving voltage to the optical shutter; a depth information obtainer configured to generate an image corresponding to the reflected light that passes through the optical shutter, extract a phase difference between a phase of the light emitted by the light source to the object and a phase of the reflected light, and obtain depth information regarding the object based on the phase difference, characterized by a temperature measurer configured to measure a temperature of the optical shutter; and a controller configured to control a driving voltage (V d1) applied to the light source and a driving voltage (V d2) applied to the optical shutter based on the temperature measured by the temperature measurer.
An injection molding machine, comprising: a frame; a movable member which is supported by the frame; a movement control unit which controls a movement of the movable member with respect to the frame; and a frame strain evaluation unit which performs at least one of a measurement and an estimation of strain of the frame caused by the movement of the movable member. a frame; a movable member which is supported by the frame; a movement control unit which controls a movement of the movable member with respect to the frame; and a frame strain evaluation unit which performs at least one of a measurement and an estimation of strain of the frame caused by the movement of the movable member.
A power production system comprising: a first wind farm comprising a plurality of wind turbines; an energy storage device configured to service a first energy storage application at the first wind farm; and a supervisory controller configured to determine if an attribute of the energy storage device is less than or equal to a threshold for the first energy storage application and to schedule the energy storage device for a second energy storage application at the first wind farm or at a second wind farm different than the first wind farm, wherein the energy storage device is a battery, and the attribute is battery capacity. a first wind farm comprising a plurality of wind turbines; an energy storage device configured to service a first energy storage application at the first wind farm; and a supervisory controller configured to determine if an attribute of the energy storage device is less than or equal to a threshold for the first energy storage application and to schedule the energy storage device for a second energy storage application at the first wind farm or at a second wind farm different than the first wind farm, wherein the energy storage device is a battery, and the attribute is battery capacity.
Method for operating a vehicle, wherein the vehicle parked at a parking position in a car park is autonomously guided (101, 205) from the parking position to a loading station and is autonomously parked (103, 207) at the loading station, with the result that the vehicle can be loaded at the loading station, characterized in that, after loading, the vehicle is autonomously guided back to the same parking position or to another parking position in the car park and is autonomously parked there.
A control device comprising: a movement sensor and an optical sensor; a command transmitting unit; and a control unit configured to instruct the command transmitting unit to transmit a predetermined control command to a controlled device, when a first operation is detected from a detection result of the sensors (21, 22); wherein the first operation is detected when an operation surface of the control device is put face down and is placed still on a stationary plane and this state is maintained for a predetermined time; and wherein the detection result of the optical sensor is an amount of light detected. a movement sensor and an optical sensor; a command transmitting unit; and a control unit configured to instruct the command transmitting unit to transmit a predetermined control command to a controlled device, when a first operation is detected from a detection result of the sensors (21, 22); wherein the first operation is detected when an operation surface of the control device is put face down and is placed still on a stationary plane and this state is maintained for a predetermined time; and wherein the detection result of the optical sensor is an amount of light detected.
A method, by a high-level Self-Organizing Network, SON, function in a hierarchical structure of SON functions (108, 126) in a network, of interaction with two or more lower-level SON functions within the hierarchical structure, the lower-level SON functions operating in different cells, comprising: receiving, from the two or more lower-level SON functions, information regarding network conditions or subscriber activity, the information including the identity of the two or more lower-level SON functions; analyzing the information received from the two or more lower-level SON functions, including considering distributed load balancing actions made by the lower-level SON functions; and performing one or more centralized load balancing actions to optimize the network in response to the information analysis, wherein the high-level SON function is situated at a Network Manager, NM, and operates to optimize the overall network, and the two or more lower-level SON functions are situated at each Network Element, NE, to locally optimize the NE under the control and direction of the high-level SON function. receiving, from the two or more lower-level SON functions, information regarding network conditions or subscriber activity, the information including the identity of the two or more lower-level SON functions; analyzing the information received from the two or more lower-level SON functions, including considering distributed load balancing actions made by the lower-level SON functions; and performing one or more centralized load balancing actions to optimize the network in response to the information analysis, wherein the high-level SON function is situated at a Network Manager, NM, and operates to optimize the overall network, and the two or more lower-level SON functions are situated at each Network Element, NE, to locally optimize the NE under the control and direction of the high-level SON function.
A mobile suction device having a suction port for providing a negative pressure and having a container receptacle arranged on the upper side of the mobile suction device for receiving a particle collecting container for a cyclone pre-separator, wherein the container receptacle has a rectangular receptacle bottom, characterized in that the horizontal inner contour of the container receptacle tapers towards the receptacle bottom so that the container receptacle can receive and horizontally stabilize a particle collecting container having a downwardly tapering outer contour.