mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a component (I) from a fiber composite material, comprising the steps: introducing a stringer , a frame and/or a thickening into a recess of a cylindrical inner mold ; introducing a fiber impregnated with a matrix onto the inner mold of a mold cavity formed between the inner mold and a cylindrical outer mold ; introducing a separating membrane onto the fiber impregnated with the matrix in such a way that a cavity extending along the lateral surface of the outer mold is formed between the outer mold and the separating membrane ; and exposing the cavity to a thermal oil with a temperature greater than the melting point of the matrix and with a pressure greater than ambient pressure such that the thermal oil acts on the separating membrane with the pressure. introducing a stringer , a frame and/or a thickening into a recess of a cylindrical inner mold ; introducing a fiber impregnated with a matrix onto the inner mold of a mold cavity formed between the inner mold and a cylindrical outer mold ; introducing a separating membrane onto the fiber impregnated with the matrix in such a way that a cavity extending along the lateral surface of the outer mold is formed between the outer mold and the separating membrane ; and exposing the cavity to a thermal oil with a temperature greater than the melting point of the matrix and with a pressure greater than ambient pressure such that the thermal oil acts on the separating membrane with the pressure.
Glass element made of borosilicate glass, wherein the glass element has per kg of glass 50 inclusions or less having a size of 2 μm or more and 10 μm or less, in particular wherein the glass element has per kg of glass 2000 inclusions or less, preferably 1000 inclusions or less, more preferably 500 inclusions or less, more preferably 250 inclusions or less, more preferably 100 inclusions or less, more preferably 50 inclusions or less, having a size of 500 nm or more and 10 μm or less, preferably having a size of 50 nm or more and 10 μm or less, more preferably of 10 μm or less.
An operating device (A) for a light-emitting means comprising - at least one driver circuit (LED driver) for operating at least one light-emitting means, - an energy store (Cbulk), which feeds the at least one driver circuit (LED driver), - a power factor correction circuit, which is preferably in the form of a boost converter or flyback converter and feeds the energy store (Cbulk), having a storage inductor (Lb), an actively clocked switch (S) and a rectifying diode (D), wherein the voltage at the energy store (Cbulk) is monitored, and wherein the operating device (A) is configured to change an operation of the operating device (A) if the ripple of the voltage at the energy store (Cbulk) exceeds a predetermined limit value, - to change the operation of the power factor correction circuit characterized in that if the ripple of the voltage at the energy store (Cbulk) exceeds the predetermined limit value, the operating device (A) is configured - to change the operation of the at least one driver circuit (LED driver), increasing the output current by the at least one driver circuit (LED driver), and - to connect additional light-emitting means to the driver circuit (LED driver). - at least one driver circuit (LED driver) for operating at least one light-emitting means, - an energy store (Cbulk), which feeds the at least one driver circuit (LED driver), - a power factor correction circuit, which is preferably in the form of a boost converter or flyback converter and feeds the energy store (Cbulk), having a storage inductor (Lb), an actively clocked switch (S) and a rectifying diode (D), wherein the voltage at the energy store (Cbulk) is monitored, and wherein the operating device (A) is configured to change an operation of the operating device (A) if the ripple of the voltage at the energy store (Cbulk) exceeds a predetermined limit value, - to change the operation of the power factor correction circuit characterized in that if the ripple of the voltage at the energy store (Cbulk) exceeds the predetermined limit value, the operating device (A) is configured - to change the operation of the at least one driver circuit (LED driver), increasing the output current by the at least one driver circuit (LED driver), and - to connect additional light-emitting means to the driver circuit (LED driver).
Fluid compression device driven by an electric machine, said electric machine comprising a rotor and a stator, said compression device comprising a compression shaft on which is mounted at least one compression wheel , said rotor comprising a cylindrical magnet and a ferrule for retaining said cylindrical magnet , characterized in that said rotor is mounted on said compression shaft on the side of the intake of said compression device, and in that a nut placed at the end of said compression shaft axially holds said rotor and said compression wheel , said rotor bearing on one side on said compression wheel and on the nut on the other side, and in that said rotor has an outer diameter that is smaller than or equal to the diameter of the nose of said compression wheel .
Method for controlling an unloading process of a transport vehicle configured as a silo vehicle for powdery and free-flowing filling materials, wherein - a user is instructed by a digitally guided menu navigation of a display unit to carry out work steps of the unloading process, - measurement data determined by at least one sensor are evaluated by a control device and transmitted to the user in the form of queries and/or instructions for action via the display unit , - the queries and/or instructions for action acknowledged by the user are received in the form of inputs on the display unit in order to proceed to a further work step of the unloading process, - instructions for action are executed by the user and/or by actuators connected to the control device , - the user is guided through the complete unloading process of the transport vehicle by the queries and/or instructions for action and the acknowledgement, wherein parameters for the unloading process for powdery and free-flowing filling materials are determined by the control device based on the measurement data determined by the at least one sensor , in order to optimize the unloading process for properties of a filling material. - a user is instructed by a digitally guided menu navigation of a display unit to carry out work steps of the unloading process, - measurement data determined by at least one sensor are evaluated by a control device and transmitted to the user in the form of queries and/or instructions for action via the display unit , - the queries and/or instructions for action acknowledged by the user are received in the form of inputs on the display unit in order to proceed to a further work step of the unloading process, - instructions for action are executed by the user and/or by actuators connected to the control device , - the user is guided through the complete unloading process of the transport vehicle by the queries and/or instructions for action and the acknowledgement, wherein parameters for the unloading process for powdery and free-flowing filling materials are determined by the control device based on the measurement data determined by the at least one sensor , in order to optimize the unloading process for properties of a filling material.
A system for detecting facial muscle activity comprising: wearable apparatus comprising an optical flow sensor located so as to, in use when the apparatus is worn, image a plurality of areas of skin associated with one or more facial muscles, the optical flow sensor being configured to capture time-varying data describing movement of the respective areas of skin substantially in the plane of the imaged areas of skin; wherein the optical flow sensor is configured to receive light from the plurality of areas of skin over a plurality of optical fibres; and wherein the wearable apparatus further comprises an optical switch configured to alternately provide light received from each of at least two of the plurality of optical fibres to the optical flow sensor, the optical switch being synchronized with the sampling rate of the optical flow sensor such that the optical flow sensor is configured to alternately sample different areas of skin of the plurality of areas of skin; and a processor configured to process the time-varying data in dependence on a dataset relating facial muscle activity to movement of the plurality of areas of skin so as to determine activity of the one or more associated facial muscles. wearable apparatus comprising an optical flow sensor located so as to, in use when the apparatus is worn, image a plurality of areas of skin associated with one or more facial muscles, the optical flow sensor being configured to capture time-varying data describing movement of the respective areas of skin substantially in the plane of the imaged areas of skin; wherein the optical flow sensor is configured to receive light from the plurality of areas of skin over a plurality of optical fibres; and wherein the wearable apparatus further comprises an optical switch configured to alternately provide light received from each of at least two of the plurality of optical fibres to the optical flow sensor, the optical switch being synchronized with the sampling rate of the optical flow sensor such that the optical flow sensor is configured to alternately sample different areas of skin of the plurality of areas of skin; and a processor configured to process the time-varying data in dependence on a dataset relating facial muscle activity to movement of the plurality of areas of skin so as to determine activity of the one or more associated facial muscles.
A method for diagnosing an engine or an aircraft, the method comprising: obtaining flight data of at least one of the engine and the aircraft during operation of the engine on the aircraft; characterised in that the method further comprises: obtaining a graph-based representation modeling a mathematical relationship between parameters of at least one of the engine and the aircraft, the graph-based representation having a plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ); generating output data from the plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ) based on the flight data; comparing the output data generated from the plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ) to each other and from said comparing the output data detecting a fault based on a discrepancy in the output data; and outputting a signal indicative of the fault in response to detecting the fault. obtaining flight data of at least one of the engine and the aircraft during operation of the engine on the aircraft; characterised in that the method further comprises: obtaining a graph-based representation modeling a mathematical relationship between parameters of at least one of the engine and the aircraft, the graph-based representation having a plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ); generating output data from the plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ) based on the flight data; comparing the output data generated from the plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ) to each other and from said comparing the output data detecting a fault based on a discrepancy in the output data; and outputting a signal indicative of the fault in response to detecting the fault. obtaining a graph-based representation modeling a mathematical relationship between parameters of at least one of the engine and the aircraft, the graph-based representation having a plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ); generating output data from the plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ) based on the flight data; comparing the output data generated from the plurality of permutations (300 1 , 300 2 , 300 3 , 300 4 ) to each other and from said comparing the output data detecting a fault based on a discrepancy in the output data; and outputting a signal indicative of the fault in response to detecting the fault.
A method of manufacturing porous ceramic articles, the method comprising: forming a plurality of extruded green bodies from a ceramic precursor batch composition; firing the extruded green bodies in a tunnel kiln to produce porous ceramic articles, the tunnel kiln comprising a zone heated to a top soak temperature; periodically determining a shrinkage characteristic of at least one sample; and adjusting the top soak temperature if the shrinkage characteristic is outside of a predetermined range. forming a plurality of extruded green bodies from a ceramic precursor batch composition; firing the extruded green bodies in a tunnel kiln to produce porous ceramic articles, the tunnel kiln comprising a zone heated to a top soak temperature; periodically determining a shrinkage characteristic of at least one sample; and adjusting the top soak temperature if the shrinkage characteristic is outside of a predetermined range.
A refined beer, the refined beer prepared from a bright beer comprising an organic acidic congener, having the following properties: (i) a pH in the range of 5.5 to 8.5, preferably 5.8 to 6.5; (ii) at least 10%, and up to 20%, by volume, ethyl alcohol; and (iii) a combined concentration of acetic acid and acetate less than 1000 ppm, preferably in a range of 300 ppm to 400 ppm. (i) a pH in the range of 5.5 to 8.5, preferably 5.8 to 6.5; (ii) at least 10%, and up to 20%, by volume, ethyl alcohol; and (iii) a combined concentration of acetic acid and acetate less than 1000 ppm, preferably in a range of 300 ppm to 400 ppm.
Weapon tube, wherein the weapon tube has an interior space, wherein the weapon tube has a muzzle door , wherein the weapon tube has a discharging device for discharging a weapon from the weapon tube, characterized in that the weapon tube has a prelaunching device , arranged in the interior space of the weapon tube, wherein the weapon tube has a prelaunching drive , arranged in the interior space of the weapon tube, wherein, with the muzzle door open, the prelaunching device can be partially extended out of the weapon tube in the longitudinal direction of the weapon tube by the prelaunching drive , wherein the prelaunching drive is suitable for only moving the prelaunching device .
A method of wireless communication performed by a user equipment, UE, comprising: receiving , from a serving cell, signaling identifying a core network type cell ranking offset parameter; ranking , based at least in part on the core network type cell ranking offset parameter, a neighbor cell for reselection relative to the serving cell, wherein the neighbor cell is associated with a different core network type than the serving cell, wherein the ranking is further based on a combination of a cell quality parameter, a cell hysteresis parameter, a temporary offset parameter, a cell ranking offset parameter, and a single cell point-to-multipoint parameter; and selectively reselecting to the neighbor cell based at least in part on ranking the neighbor cell for reselection relative to the serving cell. receiving , from a serving cell, signaling identifying a core network type cell ranking offset parameter; ranking , based at least in part on the core network type cell ranking offset parameter, a neighbor cell for reselection relative to the serving cell, wherein the neighbor cell is associated with a different core network type than the serving cell, wherein the ranking is further based on a combination of a cell quality parameter, a cell hysteresis parameter, a temporary offset parameter, a cell ranking offset parameter, and a single cell point-to-multipoint parameter; and selectively reselecting to the neighbor cell based at least in part on ranking the neighbor cell for reselection relative to the serving cell.
A system comprising: a laser source ; an acousto-optic modulator, i.e. AOM, coupled to the laser source ; an atom trap ; at least one optical medium coupled between the AOM and the atom trap ; at least one piezoelectric transducer coupled to the at least one optical medium ; and a beam polarization controller coupled to the at least one piezoelectric transducer wherein the system provides polarization switching based on a strain optic effect in an optical material of the medium . a laser source ; an acousto-optic modulator, i.e. AOM, coupled to the laser source ; an atom trap ; at least one optical medium coupled between the AOM and the atom trap ; at least one piezoelectric transducer coupled to the at least one optical medium ; and a beam polarization controller coupled to the at least one piezoelectric transducer wherein the system provides polarization switching based on a strain optic effect in an optical material of the medium .
A lens driving apparatus comprising: a base ; a metal case configured to serve as both a yoke and an outer case, and coupled to the base ; a bobbin movably installed in the metal case ; a lens module coupled to the bobbin ; a coil wound around an outer peripheral surface of the bobbin ; four magnets facing the coil and disposed between the coil and the metal case ; and upper and lower springs disposed in the metal case and coupled to the bobbin , wherein the four magnets are disposed at edges of the metal case , respectively, wherein each of the four magnets has a prism shape with a flat side surface facing the coil , wherein the metal case has an octagonal shape and three side surfaces of each of the four magnets make contact with an inner peripheral surface of the metal case , wherein the outer peripheral surface of the bobbin includes an octagonal shape including four flat surfaces and corresponding to the metal case , wherein portions of the coil facing the four magnets are disposed on the four flat surfaces of the outer peripheral surface of the bobbin , respectively, wherein the upper spring is coupled to an upper portion of the bobbin and the lower spring is coupled to a lower portion of the bobbin , wherein the upper spring has a first side coupled to the metal case , a second side coupled to the upper portion of the bobbin , and a middle part connecting the first side and the second side, and wherein the first side of the upper spring is inserted between the metal case and an upper surface of each of the four magnets . a base ; a metal case configured to serve as both a yoke and an outer case, and coupled to the base ; a bobbin movably installed in the metal case ; a lens module coupled to the bobbin ; a coil wound around an outer peripheral surface of the bobbin ; four magnets facing the coil and disposed between the coil and the metal case ; and upper and lower springs disposed in the metal case and coupled to the bobbin , wherein the four magnets are disposed at edges of the metal case , respectively, wherein each of the four magnets has a prism shape with a flat side surface facing the coil , wherein the metal case has an octagonal shape and three side surfaces of each of the four magnets make contact with an inner peripheral surface of the metal case , wherein the outer peripheral surface of the bobbin includes an octagonal shape including four flat surfaces and corresponding to the metal case , wherein portions of the coil facing the four magnets are disposed on the four flat surfaces of the outer peripheral surface of the bobbin , respectively, wherein the upper spring is coupled to an upper portion of the bobbin and the lower spring is coupled to a lower portion of the bobbin , wherein the upper spring has a first side coupled to the metal case , a second side coupled to the upper portion of the bobbin , and a middle part connecting the first side and the second side, and wherein the first side of the upper spring is inserted between the metal case and an upper surface of each of the four magnets .
A wearable device configured to oscillate a chest of a user , comprising: a chest wall oscillator configured to be mounted on the chest of the user and to oscillate the chest of the user; a sound detector configured to detect sound from the chest of the user, when the wearable device is worn by the user, and to output signals corresponding to the sound, wherein the sound detector comprises a plurality of sound detection elements positioned to come in contact with different regions of the chest; and a controller configured to receive the output signals from the sound detector, the controller being configured to generate output signals based upon the output signals from the sound detector, the output signals of the controller being communicated to the chest wall oscillator to control one or more of a frequency of oscillations, intensity of oscillations, and duration of a therapy output by the chest wall oscillator. a chest wall oscillator configured to be mounted on the chest of the user and to oscillate the chest of the user; a sound detector configured to detect sound from the chest of the user, when the wearable device is worn by the user, and to output signals corresponding to the sound, wherein the sound detector comprises a plurality of sound detection elements positioned to come in contact with different regions of the chest; and a controller configured to receive the output signals from the sound detector, the controller being configured to generate output signals based upon the output signals from the sound detector, the output signals of the controller being communicated to the chest wall oscillator to control one or more of a frequency of oscillations, intensity of oscillations, and duration of a therapy output by the chest wall oscillator.
A communication control apparatus comprising: a communication unit configured to receive, from a base station of a first radio communication system, grant information that specifies a resource for secondary use within a frequency resource assigned to the first radio communication system operated with a frequency division duplex scheme and that identifies a period for which the secondary use of the resource is granted; and a communication control unit configured to operate a second radio communication system with a time division duplex scheme on the resource for secondary use during the period that is identified by the grant information, wherein the communication unit is configured to receive the grant information as a piece of broadcast scheduling information or system information on a downlink resource of the first radio communication system. a communication unit configured to receive, from a base station of a first radio communication system, grant information that specifies a resource for secondary use within a frequency resource assigned to the first radio communication system operated with a frequency division duplex scheme and that identifies a period for which the secondary use of the resource is granted; and a communication control unit configured to operate a second radio communication system with a time division duplex scheme on the resource for secondary use during the period that is identified by the grant information, wherein the communication unit is configured to receive the grant information as a piece of broadcast scheduling information or system information on a downlink resource of the first radio communication system.