mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wind turbine power generating apparatus including a wind turbine rotor having a wind turbine blade, the method comprising: a step of obtaining a wind direction of a wind received by the wind turbine rotor; a step of obtaining an index of turbulence degree of a wind velocity of the wind received by the wind turbine rotor; and a step of selecting an operation mode of the wind turbine power generating apparatus from among a plurality of operation modes including a normal operation mode and at least one load-suppressing operation mode in which a load applied to the wind turbine blade is smaller than in the normal operation mode, on the basis of whether the index of turbulence degree is at least a threshold, wherein the threshold of the index of turbulence degree is variable in accordance with the wind direction; and wherein the threshold of the index of turbulence degree is k×X th where 0≤k<1 when the wind direction is in a second range being at least a part of a range other than a first range, provided that the threshold of the index of turbulence degree is X th when the wind direction of the wind turbine power generating apparatus is in the first range. a step of obtaining a wind direction of a wind received by the wind turbine rotor; a step of obtaining an index of turbulence degree of a wind velocity of the wind received by the wind turbine rotor; and a step of selecting an operation mode of the wind turbine power generating apparatus from among a plurality of operation modes including a normal operation mode and at least one load-suppressing operation mode in which a load applied to the wind turbine blade is smaller than in the normal operation mode, on the basis of whether the index of turbulence degree is at least a threshold, wherein the threshold of the index of turbulence degree is variable in accordance with the wind direction; and wherein the threshold of the index of turbulence degree is k×X th where 0≤k<1 when the wind direction is in a second range being at least a part of a range other than a first range, provided that the threshold of the index of turbulence degree is X th when the wind direction of the wind turbine power generating apparatus is in the first range.
A secondary battery cartridge comprising: a battery storing box comprising a battery accommodation space in which a secondary battery B is stored, and a flow channel partitioned from the battery accommodation space and having a hollow structure, and comprising, at opposite side parts thereof, respectively, a slot communicating with the battery accommodation space, and a venting hole communicating with the flow channel; a sensing unit comprising an electrically conductive material, mounted on at least one side part of the battery storing box, and electrically connected to an electrode lead of the secondary battery, the electrode lead extending to an inside and an outside of the battery storing box through the slot; and a cover unit provided in a box form having one open side, and mounted on the opposite side parts of the battery storing box in order to shield the slot, the venting hole, and the sensing unit of the battery storing box, wherein a gas outlet is provided to the cover unit mounted on at least one of the opposite side parts of the battery storing box, wherein the battery storing box comprises an upper case and a lower case, and the battery accommodation space, the flow channel, the slot, and the venting hole are formed by mutual coupling of the upper case and the lower case. a battery storing box comprising a battery accommodation space in which a secondary battery B is stored, and a flow channel partitioned from the battery accommodation space and having a hollow structure, and comprising, at opposite side parts thereof, respectively, a slot communicating with the battery accommodation space, and a venting hole communicating with the flow channel; a sensing unit comprising an electrically conductive material, mounted on at least one side part of the battery storing box, and electrically connected to an electrode lead of the secondary battery, the electrode lead extending to an inside and an outside of the battery storing box through the slot; and a cover unit provided in a box form having one open side, and mounted on the opposite side parts of the battery storing box in order to shield the slot, the venting hole, and the sensing unit of the battery storing box, wherein a gas outlet is provided to the cover unit mounted on at least one of the opposite side parts of the battery storing box, wherein the battery storing box comprises an upper case and a lower case, and the battery accommodation space, the flow channel, the slot, and the venting hole are formed by mutual coupling of the upper case and the lower case.
An intravascular balloon catheter, comprising: a first elongate member having a proximal end, an opening at the distal end and a lumen therebetween; a balloon defining a cavity, the balloon having a proximal waist sealingly attached to the first elongate member proximal the distal end, a distal waist, and a tubular portion therebetween; a second elongate member (2; 26) having a proximal end, a distal end and a lumen therebetween, the second elongate member (2; 26) disposed in the first elongate member and sealingly attached to the balloon distal waist; and a stopper (20; 22; 24; 25; 34) attached to the second elongate member (2; 26) distal the distal end of the first elongate member, the stopper (20; 22; 24; 25; 34) having an outer profile that prevents movement of the first elongate member thereover, the first elongate member having an inner diameter at the distal end large enough to permit the passage of fluid therethrough over the second elongate member (2; 26), wherein the second elongate member (2; 26) is configured to move distally with respect to the first elongate member; wherein the proximal waist extends distally of the distal end of the first elongate member; and wherein the stopper (20; 22; 24; 25; 34) is fixed to the second elongate member (2; 26) and sized to abut a distal face of the first elongate member; characterised by further comprising one or more orifices in the first elongate member proximal the first elongate member distal end and distal the balloon proximal waist to provide a flow path for inflation fluid. a first elongate member having a proximal end, an opening at the distal end and a lumen therebetween; a balloon defining a cavity, the balloon having a proximal waist sealingly attached to the first elongate member proximal the distal end, a distal waist, and a tubular portion therebetween; a second elongate member (2; 26) having a proximal end, a distal end and a lumen therebetween, the second elongate member (2; 26) disposed in the first elongate member and sealingly attached to the balloon distal waist; and a stopper (20; 22; 24; 25; 34) attached to the second elongate member (2; 26) distal the distal end of the first elongate member, the stopper (20; 22; 24; 25; 34) having an outer profile that prevents movement of the first elongate member thereover, the first elongate member having an inner diameter at the distal end large enough to permit the passage of fluid therethrough over the second elongate member (2; 26), wherein the second elongate member (2; 26) is configured to move distally with respect to the first elongate member; wherein the proximal waist extends distally of the distal end of the first elongate member; and wherein the stopper (20; 22; 24; 25; 34) is fixed to the second elongate member (2; 26) and sized to abut a distal face of the first elongate member; characterised by further comprising one or more orifices in the first elongate member proximal the first elongate member distal end and distal the balloon proximal waist to provide a flow path for inflation fluid.
Method for keeping the voltage or the current constant during the fusion process of an electro fusion fitting with a device for welding of electrofusion fittings (1 comprising the following steps: • detection and recording of the electrofusion fitting to be welded and its data by a welding power supply unit, • autonomous supplying of the required current or voltage with the welding power supply unit, • connection of an extension cable between a connection cable of the welding power supply unit and the fitting to be welded, • detection of the extension cable by the welding power supply unit, characterized in • autonomous regulation of the current or voltage due to the connected extension cable and the resulting increased resistance, wherein the current or voltage adjusts in such a way that the current or voltage remains constant. • detection and recording of the electrofusion fitting to be welded and its data by a welding power supply unit, • autonomous supplying of the required current or voltage with the welding power supply unit, • connection of an extension cable between a connection cable of the welding power supply unit and the fitting to be welded, • detection of the extension cable by the welding power supply unit, characterized in • autonomous regulation of the current or voltage due to the connected extension cable and the resulting increased resistance, wherein the current or voltage adjusts in such a way that the current or voltage remains constant.
A provisioning method, comprising: receiving a DHCPDISCOVER request from a radio frequency identification, RFID, middleware server (215, 220), the DHCPDISCOVER request including identification and location information of the RFID middleware server; determining, based at least in part upon the DHCPDISCOVER request, appropriate provisioning data for the RFID middleware server (215, 220); and providing the RFID middleware server (215, 220) with at least some of the appropriate provisioning data, wherein the determining step comprises determining whether the RFID middleware server (215, 220) has been replaced based on the identification and location information. receiving a DHCPDISCOVER request from a radio frequency identification, RFID, middleware server (215, 220), the DHCPDISCOVER request including identification and location information of the RFID middleware server; determining, based at least in part upon the DHCPDISCOVER request, appropriate provisioning data for the RFID middleware server (215, 220); and providing the RFID middleware server (215, 220) with at least some of the appropriate provisioning data, wherein the determining step comprises determining whether the RFID middleware server (215, 220) has been replaced based on the identification and location information.
Radial magnetic bearing with an axis, a stator and a rotor, where said stator comprises at least two stator assemblies axially spaced from one another, where each of said stator assemblies comprises a magnetically soft core, where at least one of said stator assemblies comprises one said magnetically soft core with several radially projecting teeth arranged distributed in the circumferential direction, and several coils likewise arranged distributed in the circumferential direction, and where two respective teeth of said magnetically soft core that are successive in the circumferential direction are connected to each other by way of a connecting section of said core, where said magnetic bearing further comprises a permanent magnet assembly disposed axially between said two magnetically soft cores, characterized in that at least one said stator arrangement, which comprises several coils arranged distributed in the circumferential direction and the magnetically soft core of which comprises several radially projecting teeth arranged distributed in the circumferential direction, is configured such that one of said respective connecting sections is wound with one of said respective coils.
A water supply system for a plurality of water consumer units (11, 12) in an aircraft, the system comprising: a main tank configured to store a main supply of water; a main water pipe connected to an outlet of the main tank; and a plurality of water networks (150, 152), each configured to conduct water from the main tank to at least one of the plurality of water consumer units (11, 12), wherein the plurality of water consumer units (11, 12) is partitioned in a first group of water consumer units (11a, 11b, 11c) and at least a second group of water consumer units (12a, 12b, 12c, 12d), characterized in that each of the plurality of water networks (150, 152) comprises a conveying device (130, 132) configured to convey water to each water consumer unit (11a, 11b, 11c, 12a, 12b, 12c, 12d) of one of the groups (11, 12), and the water supply system further comprises: a cross feed valve configured to fluidically connect or separate the plurality of water networks (150, 152) downstream of the conveying devices (130, 132) in the plurality of water networks (150, 152). a main tank configured to store a main supply of water; a main water pipe connected to an outlet of the main tank; and a plurality of water networks (150, 152), each configured to conduct water from the main tank to at least one of the plurality of water consumer units (11, 12), wherein the plurality of water consumer units (11, 12) is partitioned in a first group of water consumer units (11a, 11b, 11c) and at least a second group of water consumer units (12a, 12b, 12c, 12d), characterized in that each of the plurality of water networks (150, 152) comprises a conveying device (130, 132) configured to convey water to each water consumer unit (11a, 11b, 11c, 12a, 12b, 12c, 12d) of one of the groups (11, 12), and the water supply system further comprises: a cross feed valve configured to fluidically connect or separate the plurality of water networks (150, 152) downstream of the conveying devices (130, 132) in the plurality of water networks (150, 152).
A screw compressor, including a compressor housing having a screw rotor chamber arranged therein, two screw rotors (26, 28) that are arranged in the screw rotor chamber and are mounted on the compressor housing, each rotatably about a respective screw rotor axis (22, 24), and engage in each other by means of their helical contours (32, 34) and each cooperate with compression wall surfaces (36, 38) which are adjacent thereto and partly surround them in order to receive gaseous medium that is supplied by way of a low-pressure chamber arranged in the compressor housing and to discharge it in the region of a high-pressure chamber that is arranged in the compressor housing, wherein the gaseous medium is enclosed in compression chambers that are formed between the helical contours (32, 34) and compression wall surfaces (36, 38) that are adjacent to the latter with an intake volume at low pressure and is compressed to a final volume at high pressure, and including two control sliders (52, 54) which are arranged in a slider channel of the compressor housing and are adjacent to both screw rotors (26, 28) by means of slider compression wall surfaces (62, 64) and are movable in a direction of displacement parallel to the screw rotor axes (22, 24), wherein a first control slider (takes a form that) affects the final volume and a second control slider (takes a form that) affects the initial volume, and wherein there is provided a position determining device for at least one control slider (52, 54), characterised in that a position determining device is provided for both the control sliders (52, 54), the position determining device comprising a first position indicator element coupled to the first control slider and a second position indicator element coupled to the second control slider, in that both position indicator elements (156, 158) cooperate with a common detector element, which extends parallel to the direction of displacement of the control sliders (52, 54) and along which the position indicator elements (156, 158) are movable upon movement of the control sliders (52, 54), and in that the detector element is coupled to and evaluation device, which determines the respective positions of the position indicator elements (156, 158) along the detector element.
A surface having anti-icing properties, comprising: a surface; and a viscoelastic icephobic coating deposited on the surface, wherein the viscoelastic icephobic coating comprises an elastomer matrix and organogel particle beads dispersed throughout the elastomer matrix, wherein the organogel particle beads comprise a non-crosslinked liquid phase entrapped in a three-dimensionally crosslinked gel, wherein the elastomer matrix is cured to form the viscoelastic icephobic coating, and wherein the viscoelastic icephobic coating imparts anti-icing properties to the surface. a surface; and a viscoelastic icephobic coating deposited on the surface, wherein the viscoelastic icephobic coating comprises an elastomer matrix and organogel particle beads dispersed throughout the elastomer matrix, wherein the organogel particle beads comprise a non-crosslinked liquid phase entrapped in a three-dimensionally crosslinked gel, wherein the elastomer matrix is cured to form the viscoelastic icephobic coating, and wherein the viscoelastic icephobic coating imparts anti-icing properties to the surface.
A catheter device, comprising: a tube to be inserted into a body; a light emitting unit, which is provided on a distal end side of the tube, and includes an infrared light emitting element configured to emit infrared light for verifying a position of the tube; a light receiving unit configured to receive the infrared light radiated from the light emitting unit; a power supply line configured to supply electric power to the infrared light emitting element; and a conduction detection unit including a visible light emitting element configured to notify a conduction state between the power supply line and the infrared light emitting element by means of visible light. a tube to be inserted into a body; a light emitting unit, which is provided on a distal end side of the tube, and includes an infrared light emitting element configured to emit infrared light for verifying a position of the tube; a light receiving unit configured to receive the infrared light radiated from the light emitting unit; a power supply line configured to supply electric power to the infrared light emitting element; and a conduction detection unit including a visible light emitting element configured to notify a conduction state between the power supply line and the infrared light emitting element by means of visible light.
A method of manufacturing a composite structure, the method comprising: forming a bond-line interlayer by growing a plurality of carbon nanotubes on one side of a substrate; after growing the plurality of carbon nanotubes on the one side of the substrate, applying a bond layer to an opposite side of the substrate; positioning the bond-line interlayer on a first fiber layer, wherein the first fiber layer and the bond-line interlayer have different material compositions; positioning a second fiber layer on the bond-line interlayer, whereby the bond-line interlayer is positioned between the first fiber layer and the second fiber layer; infusing at least the first and second fiber layers with resin; and curing the resin to harden the composite structure. forming a bond-line interlayer by growing a plurality of carbon nanotubes on one side of a substrate; after growing the plurality of carbon nanotubes on the one side of the substrate, applying a bond layer to an opposite side of the substrate; positioning the bond-line interlayer on a first fiber layer, wherein the first fiber layer and the bond-line interlayer have different material compositions; positioning a second fiber layer on the bond-line interlayer, whereby the bond-line interlayer is positioned between the first fiber layer and the second fiber layer; infusing at least the first and second fiber layers with resin; and curing the resin to harden the composite structure.
A hot water heating device for space heating and domestic hot water preparation, comprising a primary heat exchanger connected to a heating source, a circulation pump, a secondary heat exchanger, a motor-controlled three-way diverter valve for switching the heating water circuits being equipped with an integrated bypass valve connected to a bypass duct, electrical and electronic communication means, characterized in that, a permanent magnet is arranged on a movable piston of the bypass valve, an electronic module comprising a Hall proximity sensor is placed within the magnetic field of the permanent magnet and the electronic module is connected to the electrical and electronic communication means, a control unit, the electrical and electronic communication means are arranged to transmit signals from the Hall proximity sensor to the control unit, the control unit is equipped with a processor and memory means for recording signals from the Hall proximity sensor, the control unit is equipped with control software and/or a user interface for evaluating the states of the bypass valve from the recorded signals from the Hall proximity sensor. a primary heat exchanger connected to a heating source, a circulation pump, a secondary heat exchanger, a motor-controlled three-way diverter valve for switching the heating water circuits being equipped with an integrated bypass valve connected to a bypass duct, electrical and electronic communication means, a permanent magnet is arranged on a movable piston of the bypass valve, an electronic module comprising a Hall proximity sensor is placed within the magnetic field of the permanent magnet and the electronic module is connected to the electrical and electronic communication means, a control unit, the electrical and electronic communication means are arranged to transmit signals from the Hall proximity sensor to the control unit, the control unit is equipped with a processor and memory means for recording signals from the Hall proximity sensor, the control unit is equipped with control software and/or a user interface for evaluating the states of the bypass valve from the recorded signals from the Hall proximity sensor.