mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method, comprising: forming a split case structure preform that includes a first case segment preform and a second case segment preform, characterised in that the first case segment preform is formed integral with the second case segment preform as a monolithic body, and the method further comprises: separating the first case segment preform from the second case segment preform to respectively provide a first case segment and a second case segment that is discrete from the first case segment, wherein the first case segment is configured to be arranged adjacent and mechanically fastened to the second case segment to form a split case structure for a gas turbine engine. forming a split case structure preform that includes a first case segment preform and a second case segment preform, characterised in that the first case segment preform is formed integral with the second case segment preform as a monolithic body, and the method further comprises: separating the first case segment preform from the second case segment preform to respectively provide a first case segment and a second case segment that is discrete from the first case segment, wherein the first case segment is configured to be arranged adjacent and mechanically fastened to the second case segment to form a split case structure for a gas turbine engine.
A bridle catheter comprising: a flexible elongated member extending between a first end and a second end, comprising a tubular portion associated with the first end and a tape portion associated with the second end, with the tubular portion having a tubular geometry and the tape portion having a tubular geometry, and the elongated member further comprising a transition zone located where the tubular portion meets the tape portion; a magnet operatively attached in an open end of the tubular portion, the magnet being inserted a distance into said open end of the tubular portion and secured therein so as to inhibit movement of the magnet relative to the open end of the tubular portion; and a non-elastic member that is integral with the elongated member and extends along at least part of a length thereof. a flexible elongated member extending between a first end and a second end, comprising a tubular portion associated with the first end and a tape portion associated with the second end, with the tubular portion having a tubular geometry and the tape portion having a tubular geometry, and the elongated member further comprising a transition zone located where the tubular portion meets the tape portion; a magnet operatively attached in an open end of the tubular portion, the magnet being inserted a distance into said open end of the tubular portion and secured therein so as to inhibit movement of the magnet relative to the open end of the tubular portion; and a non-elastic member that is integral with the elongated member and extends along at least part of a length thereof.
An array of cMUT cells of an ultrasound transducer comprising: a plurality of cMUT cells, each cell comprising: a cell membrane; a membrane support structure; a top electrode coupled to the cell membrane; a void providing a space in which the cell membrane moves; a bottom electrode used in conjunction with the top electrode, wherein each cell membrane is adapted to oscillate to thereby generate an acoustic pressure force; a substrate; wherein each cMUT cell further comprises a respective massive plate mounted on the substrate, wherein: the cell membrane, the membrane support structure, the top electrode and the void are mounted on the massive plate, the bottom electrode is either formed by the massive plate or is mounted on the massive plate, each massive plate has a mass, the inertia of the mass opposing the acoustic pressure force generated by the oscillation of the cell membrane, and each massive plate is laterally isolated from adjacent massive plates by a gap, characterized in that each cMUT cell further comprises a plurality of spaced-apart supports, wherein the massive plate is mounted on the substrate by the plurality of spaced-apart supports. a plurality of cMUT cells, each cell comprising: a cell membrane; a membrane support structure; a top electrode coupled to the cell membrane; a void providing a space in which the cell membrane moves; a bottom electrode used in conjunction with the top electrode, wherein each cell membrane is adapted to oscillate to thereby generate an acoustic pressure force; a cell membrane; a membrane support structure; a top electrode coupled to the cell membrane; a void providing a space in which the cell membrane moves; a bottom electrode used in conjunction with the top electrode, wherein each cell membrane is adapted to oscillate to thereby generate an acoustic pressure force; a substrate; wherein each cMUT cell further comprises a respective massive plate mounted on the substrate, wherein: the cell membrane, the membrane support structure, the top electrode and the void are mounted on the massive plate, the bottom electrode is either formed by the massive plate or is mounted on the massive plate, each massive plate has a mass, the inertia of the mass opposing the acoustic pressure force generated by the oscillation of the cell membrane, and each massive plate is laterally isolated from adjacent massive plates by a gap, characterized in that each cMUT cell further comprises a plurality of spaced-apart supports, wherein the massive plate is mounted on the substrate by the plurality of spaced-apart supports. the cell membrane, the membrane support structure, the top electrode and the void are mounted on the massive plate, the bottom electrode is either formed by the massive plate or is mounted on the massive plate, each massive plate has a mass, the inertia of the mass opposing the acoustic pressure force generated by the oscillation of the cell membrane, and each massive plate is laterally isolated from adjacent massive plates by a gap,
A coolant system comprising: a multistage compressor (110, 210, 310) including a plurality of surge detection sensors; a condenser connected to an outlet of the multistage compressor; an economizer (140, 240, 340) connected to an outlet of the condenser and having a gaseous coolant outlet and a liquid coolant outlet; the liquid coolant outlet being connected to a cooler and the gaseous coolant outlet being connected to a second or later stage (114, 214, 216, 314, 316) of the multistage compressor, characterised in that the gaseous coolant outlet is connected to the second or later stage ( 114, 214, 216, 314, 316) of the multistage compressor via a controllable valve (150, 250. 350); and in that a controller (170, 270, 370) is communicatively coupled to the surge detection sensors and the controllable valve, the controller including a non-transitory medium storing instructions for causing the controller to detect an occurrence of a surge and restricting a flow through the controllable valve until the surge has ceased. a multistage compressor (110, 210, 310) including a plurality of surge detection sensors; a condenser connected to an outlet of the multistage compressor; an economizer (140, 240, 340) connected to an outlet of the condenser and having a gaseous coolant outlet and a liquid coolant outlet; the liquid coolant outlet being connected to a cooler and the gaseous coolant outlet being connected to a second or later stage (114, 214, 216, 314, 316) of the multistage compressor, characterised in that the gaseous coolant outlet is connected to the second or later stage ( 114, 214, 216, 314, 316) of the multistage compressor via a controllable valve (150, 250. 350); and in that a controller (170, 270, 370) is communicatively coupled to the surge detection sensors and the controllable valve, the controller including a non-transitory medium storing instructions for causing the controller to detect an occurrence of a surge and restricting a flow through the controllable valve until the surge has ceased.
A molded resin strand used for a 3D printer employing fused deposition modeling, comprising: a first layer containing thermoplastic resin; and a second layer covering the first layer, containing thermoplastic resin, and exhibiting a physical property different from that of the first layer, wherein the first layer contains an inorganic filler with a first predetermined amount, and the second layer contains no inorganic filler, and wherein the first layer forms a core and the second layer covers the periphery of the first layer. a first layer containing thermoplastic resin; and a second layer covering the first layer, containing thermoplastic resin, and exhibiting a physical property different from that of the first layer, wherein the first layer contains an inorganic filler with a first predetermined amount, and the second layer contains no inorganic filler, and wherein the first layer forms a core and the second layer covers the periphery of the first layer.
A torque wrench assembly comprising a torque wrench and a reaction arm and locking means for locking together the torque wrench and the reaction arm, wherein the locking means comprises: a connection member located on either one of the torque wrench or the reaction arm; an opening on a respective other one of the torque wrench and the reaction arm for receipt of the connection member and a locking member slidably mounted in a channel on said torque wrench or reaction arm, wherein the locking member includes an aperture sized to allow the connection member to pass therethrough, the aperture having a first region with a first diameter and a second region with a second diameter smaller than the first diameter; and biasing means arranged to bias the locking member into a position wherein the aperture of the locking member is partially aligned with the opening; wherein the connection member includes a recess, and wherein both the second region of the aperture of the locking member and the recess are shaped and dimensioned such that the locking member is a sliding fit in the recess a connection member located on either one of the torque wrench or the reaction arm; an opening on a respective other one of the torque wrench and the reaction arm for receipt of the connection member and a locking member slidably mounted in a channel on said torque wrench or reaction arm, wherein the locking member includes an aperture sized to allow the connection member to pass therethrough, the aperture having a first region with a first diameter and a second region with a second diameter smaller than the first diameter; and biasing means arranged to bias the locking member into a position wherein the aperture of the locking member is partially aligned with the opening; wherein the connection member includes a recess, and wherein both the second region of the aperture of the locking member and the recess are shaped and dimensioned such that the locking member is a sliding fit in the recess
A method of controlling an electronic apparatus, the method comprising: performing a chat with a user of an other electronic apparatus; obtaining a name referring to the user of the other electronic apparatus in the chat with the user of the other electronic apparatus using an artificial intelligence, AI, model; and storing the obtained name referring to the user of the other electronic apparatus in association with contact information of the user of the other electronic apparatus based on the name referring to the user of the other electronic apparatus being obtained more than a predetermined number of times in a chat with the user of the other electronic apparatus; and wherein the obtaining further comprises obtaining the name referring to the user of the other electronic apparatus in a voice chat using the AI model while conducting the voice chat with the user of the other electronic apparatus. performing a chat with a user of an other electronic apparatus; obtaining a name referring to the user of the other electronic apparatus in the chat with the user of the other electronic apparatus using an artificial intelligence, AI, model; and storing the obtained name referring to the user of the other electronic apparatus in association with contact information of the user of the other electronic apparatus based on the name referring to the user of the other electronic apparatus being obtained more than a predetermined number of times in a chat with the user of the other electronic apparatus; and wherein the obtaining further comprises obtaining the name referring to the user of the other electronic apparatus in a voice chat using the AI model while conducting the voice chat with the user of the other electronic apparatus.
A therapeutic combination for use in a method of treating cancer in an individual comprising administering to the individual an effective amount of the therapeutic combination which comprises an anti-LGR5 antibody and an effective amount of an inhibitor of the hedgehog pathway, wherein the anti-LGR5 antibody is conjugated to a cytotoxic agent and the inhibitor of the hedgehog pathway is 2-chloro-N-[4-chloro-3-(pyridin-2-yl)phenyl]-4-(methylsulfonyl)benzamide or a salt thereof and wherein the cancer is LGR5-positive.
A sclerosing agent and bone graft material for use in a method for treatment of a bone lesion in a patient, the method comprising: locating a treatment volume in the bone of the patient, wherein the treatment volume is a unicameral bone cyst; placing a venting device into the treatment volume, wherein the venting device comprises a needle; administering the sclerosing agent to the treatment volume; and after administering the sclerosing agent, administering the bone graft material to the treatment volume; wherein administering the sclerosing agent to the treatment volume includes administering a fluid comprising the sclerosing agent and is performed using a delivery device that comprises a needle, and wherein the sclerosing agent is aspirated through the venting device in a push-pull fashion, irrigating the treatment volume. locating a treatment volume in the bone of the patient, wherein the treatment volume is a unicameral bone cyst; placing a venting device into the treatment volume, wherein the venting device comprises a needle; administering the sclerosing agent to the treatment volume; and after administering the sclerosing agent, administering the bone graft material to the treatment volume; wherein administering the sclerosing agent to the treatment volume includes administering a fluid comprising the sclerosing agent and is performed using a delivery device that comprises a needle, and wherein the sclerosing agent is aspirated through the venting device in a push-pull fashion, irrigating the treatment volume.
Component arrangement, namely a rotor, for a turbomachine, in particular a gas turbine, comprising a first flange and a second flange having recesses (11, 12, 21, 22) distributed in a distribution direction, in particular in a peripheral direction, the second flange being fastened to the first flange, in particular releasably, by fasteners which engage in first recesses (11, 21) of these recesses of the first an d second flange, characterized in that fastener-free second recesses of these recesses (11, 12) of the first flange are covered by the second flange so as to be airtight.
A method for radar-based gauging of the level of a substance in a tank having at least one interfering structure (16a-c), comprising: - transmitting a microwave signal in a predetermined polarization state (LHCP) towards a surface of said substance and said at least one interfering structure; and - detecting temporally resolved and separately in two different polarization states (LHCP, RHCP), microwave signals (32, 33, 34) as reflected against the surface of said substance and as reflected against said at least one interfering structure, characterized by the steps of: - repeating said steps of transmitting and detecting to obtain time variations of the microwave signals as reflected against the surface of said substance and as reflected against said at least one interfering structure; - distinguishing, based on signal strengths of the microwave signals detected temporally resolved and separately in said two different polarization states and based on the time variations of the microwave signals detected temporally resolved and separately in said two different polarization states, the detected microwave signal, which has been reflected against the surface of said substance; and - calculating based on a propagation time of the distinguished microwave signal the level of said substance in said tank. - transmitting a microwave signal in a predetermined polarization state (LHCP) towards a surface of said substance and said at least one interfering structure; and - detecting temporally resolved and separately in two different polarization states (LHCP, RHCP), microwave signals (32, 33, 34) as reflected against the surface of said substance and as reflected against said at least one interfering structure, characterized by the steps of: - repeating said steps of transmitting and detecting to obtain time variations of the microwave signals as reflected against the surface of said substance and as reflected against said at least one interfering structure; - distinguishing, based on signal strengths of the microwave signals detected temporally resolved and separately in said two different polarization states and based on the time variations of the microwave signals detected temporally resolved and separately in said two different polarization states, the detected microwave signal, which has been reflected against the surface of said substance; and - calculating based on a propagation time of the distinguished microwave signal the level of said substance in said tank.
Electrically operated rail vehicle comprising: - an air-conditioning and/or heating device for climatising and/or heating a vehicle interior, in particular passenger compartment and/or personnel compartment, wherein the air-conditioning and/or heating device comprises a heat pump and a heating circuit connected to the heat pump, and has a heat exchanger for absorbing heat energy, which is a heat exchanger of the heat pump, and - at least one electric converter, in particular traction converter and/or auxiliary converter, which has a heat dissipation interface for dissipating waste heat by means of a heat carrier, and wherein - the heat dissipation interface of the converter is connected to the heat exchanger of the air-conditioning and/or heating device by way of a heat carrier channel, characterised in that the rail vehicle has a first flap which, in a first position, releases the connection between the heat dissipation interface and the heat exchanger and, in a second position, separates the same and wherein in the second position the first flap releases a first outlet opening, embodied in the heat carrier channel between the heat dissipation interface and the heat exchanger, into the environment, as a result of which the heat dissipation interface is connected to the environment and wherein the rail vehicle has a second flap which, in a first position, closes a second outlet opening, by way of which the heat exchanger can be connected to the environment, and in a second position releases the same. - an air-conditioning and/or heating device for climatising and/or heating a vehicle interior, in particular passenger compartment and/or personnel compartment, wherein the air-conditioning and/or heating device comprises a heat pump and a heating circuit connected to the heat pump, and has a heat exchanger for absorbing heat energy, which is a heat exchanger of the heat pump, and - at least one electric converter, in particular traction converter and/or auxiliary converter, which has a heat dissipation interface for dissipating waste heat by means of a heat carrier, and wherein - the heat dissipation interface of the converter is connected to the heat exchanger of the air-conditioning and/or heating device by way of a heat carrier channel,
Vacuum device for welding a receptacle, in particular a bag, inserted into the vacuum chamber, comprising a vacuum chamber having a vacuum chamber bottom, the vacuum chamber forming a trough for receiving a useful part of the receptacle, a vacuum pump for evacuating the vacuum chamber, a welding device arranged in the vacuum chamber for welding the receptacle, a support device arranged in the vacuum chamber and forming a support area for the receptacle in the trough, characterized in that the support device can be inserted into the vacuum chamber in a first and a second position, and wherein the support area is arranged higher in the first position than in the second position, wherein in the first position the support device (18 - 22) is supported at one end in a support area on the vacuum chamber bottom of the trough, and at a second end at an edge area of the trough, the edge area being arranged higher than the support area. a vacuum chamber having a vacuum chamber bottom, the vacuum chamber forming a trough for receiving a useful part of the receptacle, a vacuum pump for evacuating the vacuum chamber, a welding device arranged in the vacuum chamber for welding the receptacle, a support device arranged in the vacuum chamber and forming a support area for the receptacle in the trough, characterized in that the support device can be inserted into the vacuum chamber in a first and a second position, and wherein the support area is arranged higher in the first position than in the second position, wherein in the first position the support device (18 - 22) is supported at one end in a support area on the vacuum chamber bottom of the trough, and at a second end at an edge area of the trough, the edge area being arranged higher than the support area.
A method for producing a polypeptide comprising culturing a mammalian cell line at a temperature from 29°C to 36°C in a medium comprising hexamethylene bisacetamide (HMBA), wherein the mammalian cell line has been genetically engineered to produce the polypeptide and wherein the presence of the hexamethylene bisacetamide (HMBA) increases the production of the polypeptide.
An electrical connector assembly comprising: a connector member; a housing having a general tube shape, wherein the housing comprises a front end and a rear end, wherein the front end of the housing is adapted to be fixedly connected with the connector member; wedges adapted to be located in the housing directly between the housing and a core member of a cable conductor, wherein the connector member is adapted to push the wedges into the housing as the connector member and the housing are being connected with each other; characterised by an extension spring member surrounding the wedges to bias the wedges towards a center channel formed by the wedges in combination with a retainer interlocked with the wedges such that the wedges longitudinally move in the housing in unison with each other. a connector member; a housing having a general tube shape, wherein the housing comprises a front end and a rear end, wherein the front end of the housing is adapted to be fixedly connected with the connector member; wedges adapted to be located in the housing directly between the housing and a core member of a cable conductor, wherein the connector member is adapted to push the wedges into the housing as the connector member and the housing are being connected with each other; an extension spring member surrounding the wedges to bias the wedges towards a center channel formed by the wedges in combination with a retainer interlocked with the wedges such that the wedges longitudinally move in the housing in unison with each other.