mhurhangee/ep-ind-claims huggingface dataset:
A spindle gear unit for an adjusting mechanism in a motor vehicle, in particular in a motor vehicle seat, comprising a) a housing (20, 22), b) a spindle nut (40, 140, 240) for cooperation with a spindle, wherein the spindle nut (40, 140, 240) has an external toothing (44, 144, 244) and the spindle nut (40, 140, 240) has at least one bearing surface (46, 146, 246) for rotatably mounting the spindle nut (40, 140,240) in the housing (20, 22), c) a thrust washer (50, 150, 250) which is positioned on the bearing surface (46, 146, 246) and encompasses said bearing surface and d) a worm which is rotatably mounted in the housing (20, 22) and has a worm gear which is in engagement with the external toothing (44, 144, 244) of the spindle nut (40, 140, 240), characterized in that the thrust washer (50, 150, 250) is pressed onto the spindle nut (40, 140, 240). a) a housing (20, 22), b) a spindle nut (40, 140, 240) for cooperation with a spindle, wherein the spindle nut (40, 140, 240) has an external toothing (44, 144, 244) and the spindle nut (40, 140, 240) has at least one bearing surface (46, 146, 246) for rotatably mounting the spindle nut (40, 140,240) in the housing (20, 22), c) a thrust washer (50, 150, 250) which is positioned on the bearing surface (46, 146, 246) and encompasses said bearing surface and d) a worm which is rotatably mounted in the housing (20, 22) and has a worm gear which is in engagement with the external toothing (44, 144, 244) of the spindle nut (40, 140, 240),
An airfoil (60; 160) comprising an airfoil body (62; 64; 66) having a geometrically segmented coating section, the geometrically segmented coating section including: a wall having an outer side, the outer side including an array of cells, and a coating disposed in the array of cells, wherein the airfoil body is an airfoil section, and the geometrically segmented coating section is on a portion of the airfoil section, characterised in that: an adjacent portion of the airfoil section includes the coating but excludes the cells. a wall having an outer side, the outer side including an array of cells, and a coating disposed in the array of cells, wherein the airfoil body is an airfoil section, and the geometrically segmented coating section is on a portion of the airfoil section,
A dietary fiber having terminal sugars, which is indigestible dextrin, characterized in that the value of the following is 0 to 0.04 and the value of is 0.95 to 1 and the value of is 0.95 to 1 for the indigestible dextrin, A = X / X + Y + Z B = Y ⁢ / X + Y. C = Z / X + Z, wherein X represents the number of sugar chains in which the terminal sugar is an aldose, Y represents the number of sugar chains in which the terminal sugar is an anhydrosugar, and Z represents the number of sugar chains in which the terminal sugar is a sugar alcohol.
Electric drive motor for a pump, having an electrically actuatable stator winding and a rotor mounted to be rotationally drivable in the field of the stator winding leaving an annular gap, said rotor having a motor shaft, a magnet carrier sitting on said motor shaft and at least one permanent magnet arranged on the magnet carrier, characterised in that the magnet carrier is produced from a ferromagnetic chrome steel.
A running gear for a railway vehicle, comprising a set of wheels, a frame and a pneumatic suspension borne on the frame, wherein the pneumatic suspension comprises: - at least one left air bellows and at least one right air bellows to be positioned between a vehicle body of a railway vehicle and the running gear respectively on a left and on a right side of a median longitudinal vertical plane of the running gear to support the vehicle body on the running gear, - additional air volume means (36L, 36R, 236) connected to the left and right air bellows (34L, 34R) by means of anti-roll valve means (40L, 40R, 140), and - a curve detector for detecting a curve, characterised in that the curve detector is connected to the antiroll valve means (40L, 40R, 140) such as to form a closed left air volume and a closed right air volume and isolate the left and right air bellows (34L, 34R) from the additional air volume means (36L, 36R, 236) when a curve is detected, wherein the closed left air volume consists of a volume of the left air bellows and of a left air connection line between the left air bellows and the antiroll valve means (40L, 40R, 140), and the closed right air volume consists of a volume of the right air bellows and of a right air connection line between the right air bellows and the antiroll valve means (40L, 40R, 140). - at least one left air bellows and at least one right air bellows to be positioned between a vehicle body of a railway vehicle and the running gear respectively on a left and on a right side of a median longitudinal vertical plane of the running gear to support the vehicle body on the running gear, - additional air volume means (36L, 36R, 236) connected to the left and right air bellows (34L, 34R) by means of anti-roll valve means (40L, 40R, 140), and - a curve detector for detecting a curve,
A printer, comprising: a mechanism frame configured to receive a recording medium including a liner having a large length, and a plurality of labels temporarily bonded on the liner; a support member supported on the mechanism frame through intermediation of a support shaft; a head which is mounted to the support member, and is configured to perform printing on at least one of the plurality of labels; and a transmissive sensor which is arranged between the head and the support shaft, and is configured to detect the at least one of the plurality of labels, characterized in that the mechanism frame includes: a frame portion provided between the head and the support shaft at a distance from the support shaft; and a recessed portion which is formed in the frame portion, and is configured to increase the distance so as to allow the transmissive sensor to pass through a space having the distance. a mechanism frame configured to receive a recording medium including a liner having a large length, and a plurality of labels temporarily bonded on the liner; a support member supported on the mechanism frame through intermediation of a support shaft; a head which is mounted to the support member, and is configured to perform printing on at least one of the plurality of labels; and a transmissive sensor which is arranged between the head and the support shaft, and is configured to detect the at least one of the plurality of labels, characterized in that the mechanism frame includes: a frame portion provided between the head and the support shaft at a distance from the support shaft; and a recessed portion which is formed in the frame portion, and is configured to increase the distance so as to allow the transmissive sensor to pass through a space having the distance. a frame portion provided between the head and the support shaft at a distance from the support shaft; and a recessed portion which is formed in the frame portion, and is configured to increase the distance so as to allow the transmissive sensor to pass through a space having the distance.
A method of injecting a substance into a living cell having a cell membrane, comprising the steps of: a. placing the substance, the cell and a liquid into a tapering passage; and b. applying an energy to the cell sufficient to induce poration of the cell, wherein the step of applying an energy to the cell, comprises applying an acoustic pressure wave to the liquid, thereby inducing sonoporation in the cell, wherein the tapering passage includes a narrow end that defines an opening passing therethrough, wherein the method further comprises the step of forcing the cell through the opening so that as the cell passes through the opening and the cell membrane allows the substance to pass therethrough. a. placing the substance, the cell and a liquid into a tapering passage; and b. applying an energy to the cell sufficient to induce poration of the cell, wherein the step of applying an energy to the cell, comprises applying an acoustic pressure wave to the liquid, thereby inducing sonoporation in the cell, wherein the tapering passage includes a narrow end that defines an opening passing therethrough,
A method for connecting a first plastic part (2, 2') to a second plastic part by laser welding, wherein the two plastic parts (2, 2', 4) are positioned on one another, pressed together in a clamping device by a transparent holding-down element and tightly bonded to one another by laser welding with a laser light, wherein the two plastic parts (2, 2', 4) are made transparent to laser light, wherein at least the second plastic part is made thin, wherein, for the welding, the second plastic part has placed in front of it, on the outer side that is facing away from the first plastic part, a mat that absorbs the laser light, cannot be melted by the laser light and does not become connected to the second plastic part in contact with it, and wherein the laser light is fed to the second plastic part via the first plastic part., characterized in that the second plastic part is made as a filter membrane that is reinforced on the underside by a reinforcing nonwoven that can be melted by the laser light.
A composition for use in a method for treating pulmonary fibrosis in a mammal, said method comprising: administering an inhibitor of fatty acid synthase activity to a mammal identified as having pulmonary fibrosis; wherein a symptom of said pulmonary fibrosis is reduced. administering an inhibitor of fatty acid synthase activity to a mammal identified as having pulmonary fibrosis; wherein a symptom of said pulmonary fibrosis is reduced.
A wind turbine generator characterized in that it comprises: a blade; a hub on which the blade is mounted; a main shaft which is coupled to the hub; a nacelle which houses at least the main shaft; a tower which supports the nacelle via a yaw bearing; and a component lifting and lowering mechanism which is installed in the nacelle, wherein the nacelle has a nacelle opening formed in a base plate of the nacelle in at least a part of an area which is surrounded by the yaw bearing and above which the main shaft does not extend, wherein the nacelle opening includes a first opening part and a second opening part on both sides of the main shaft, the first and second opening parts (40A, 40B) being arranged across a center axis of the yaw bearing, and wherein the component lifting and lowering mechanism is configured to transfer a transfer-object component between an interior of the nacelle and an interior of the tower via the nacelle opening while suspending the transfer-object component from above the main shaft. a blade; a hub on which the blade is mounted; a main shaft which is coupled to the hub; a nacelle which houses at least the main shaft; a tower which supports the nacelle via a yaw bearing; and a component lifting and lowering mechanism which is installed in the nacelle, wherein the nacelle has a nacelle opening formed in a base plate of the nacelle in at least a part of an area which is surrounded by the yaw bearing and above which the main shaft does not extend, wherein the nacelle opening includes a first opening part and a second opening part on both sides of the main shaft, the first and second opening parts (40A, 40B) being arranged across a center axis of the yaw bearing, and wherein the component lifting and lowering mechanism is configured to transfer a transfer-object component between an interior of the nacelle and an interior of the tower via the nacelle opening while suspending the transfer-object component from above the main shaft.
An apparatus for receiving radiant energy and for generating electricity from a radiant energy source comprising: a support base, the support base comprising an electric terminal; a plurality of photovoltaic cells mounted to the support base, each of the plurality of photovoltaic cells having three sides and being electrically coupled to the electric terminal; wherein each side of each of the plurality of photovoltaic cells is oriented in a perpendicular relationship with each neighboring side of each of the neighboring photovoltaic cells, each of the plurality of photovoltaic cell is angled such that the three sides of each of the plurality of photovoltaic cell are configured to receive radiant energy from said radiant energy source for conversation into electricity, and wherein each of the plurality of photovoltaic cells has a cubic shape and the angling of each of the plurality of photovoltaic cell provides a hexagonal footprint relative to said support base. a support base, the support base comprising an electric terminal; a plurality of photovoltaic cells mounted to the support base, each of the plurality of photovoltaic cells having three sides and being electrically coupled to the electric terminal; wherein each side of each of the plurality of photovoltaic cells is oriented in a perpendicular relationship with each neighboring side of each of the neighboring photovoltaic cells, each of the plurality of photovoltaic cell is angled such that the three sides of each of the plurality of photovoltaic cell are configured to receive radiant energy from said radiant energy source for conversation into electricity, and wherein each of the plurality of photovoltaic cells has a cubic shape and the angling of each of the plurality of photovoltaic cell provides a hexagonal footprint relative to said support base.
A process comprising conversion of formyl group of compound of formula II to cyano group, to produce compound of formula III, in the presence of ammonia, oxygen, and a metal catalyst, wherein the temperature range is 60-120 °C, wherein R 1 is a hydrogen atom, an alkyl, alkenyl, or alkynyl group wherein chain group is either straight or branched with 1 to 15 carbon atoms and R 2 is an alkyl, alkenyl, or alkynyl group wherein chain group is either straight or branched with 1 to 15 carbon atoms.
Cartridge system for producing a beverage, wherein the cartridge system is insertable into a beverage preparation machine, has a cartridge which comprises a reservoir filled with a beverage substance, and has a cartridge receptacle connected to the cartridge, wherein the cartridge receptacle has a mixing chamber which is able to be fluidically connected to the reservoir, and a fluid feed opening into the mixing chamber, wherein the cartridge has a cartridge wall (2"), wherein the cartridge system has a sealing element for closing the reservoir, wherein a seal is formed between the cartridge and the cartridge receptacle with the aid of a sealing means, characterized in that the sealing element is formed with the aid of or by a screw cap, wherein the screw cap has a seal and a bore, wherein a mouth region of the cartridge has a thread for screwing on the screw cap, wherein the screw cap is screwed onto the cartridge, wherein the cartridge receptacle is fastened to the cartridge and/or the screw cap after the screw cap has been screwed on.
A binocular OCT device, comprising: a tunable laser configured to emit light as a tuned wavelength of the light; a first beam splitter installed on a path of the light emitted from the tunable laser; and a reference mirror installed on a path of the light that has passed through the first beam splitter, wherein one side of the OCT device is configured to be mounted at a light output side of the optical device where an ocular lens is located so that light reflected by the first beam splitter is irradiated to the ocular lens of the optical device, and the other sides of the OCT device are not configured to be mounted to the optical device characterized in that the binocular OCT device is configured to be attachable to or detachable from a light output side of an optical device for dual eyes and configured by combining, in parallel, two OCT devices. a tunable laser configured to emit light as a tuned wavelength of the light; a first beam splitter installed on a path of the light emitted from the tunable laser; and a reference mirror installed on a path of the light that has passed through the first beam splitter, wherein one side of the OCT device is configured to be mounted at a light output side of the optical device where an ocular lens is located so that light reflected by the first beam splitter is irradiated to the ocular lens of the optical device, and the other sides of the OCT device are not configured to be mounted to the optical device characterized in that the binocular OCT device is configured to be attachable to or detachable from a light output side of an optical device for dual eyes and configured by combining, in parallel, two OCT devices.
A flexible container comprising: four panels (18, 20, 22, 24), each panel (18, 20, 22, 24) formed from a flexible multilayer film composed of one or more polymeric materials, the four panels forming (i) a body, and (ii) a neck; a fitment comprising a top portion and a base, the base composed of a polymeric material, the base sealed in the neck; and a sleeve and bag-on-valve assembly (SBoV) comprising a valve, valve seat, a bladder, and an elastic sleeve; the bladder and the elastic sleeve able to be inserted through the fitment and located in the body; and the valve seat is attached to the fitment. four panels (18, 20, 22, 24), each panel (18, 20, 22, 24) formed from a flexible multilayer film composed of one or more polymeric materials, the four panels forming (i) a body, and (ii) a neck; (i) a body, and (ii) a neck; a fitment comprising a top portion and a base, the base composed of a polymeric material, the base sealed in the neck; and a sleeve and bag-on-valve assembly (SBoV) comprising a valve, valve seat, a bladder, and an elastic sleeve; the bladder and the elastic sleeve able to be inserted through the fitment and located in the body; and the valve seat is attached to the fitment.
A porous membrane with an electrolyte for electrochemical devices comprising a first main surface and a second main surface separated by a thickness wherein: - carbon nanotubes, defining through-pores or through-channels open at both of their ends (25, 26), with a diameter of less than or equal to 100 nm, oriented in the direction of the thickness of the membrane and all substantially parallel, on the totality of the thickness of the membrane, connect the first main surface and the second main surface; - the carbon nanotubes are separated by a space, and said space between the carbon nanotubes is totally filled with at least one solid material; an electrolyte is confined inside the carbon nanotubes; and - the chemical composition of the confined electrolyte is the same in all the inside of the nanotubes; - preferably the first and the second main surfaces are planar and parallel, the membrane is a planar membrane and the nanotubes, the pores or channels, are substantially aligned, or aligned, perpendicularly to said surface. - carbon nanotubes, defining through-pores or through-channels open at both of their ends (25, 26), with a diameter of less than or equal to 100 nm, oriented in the direction of the thickness of the membrane and all substantially parallel, on the totality of the thickness of the membrane, connect the first main surface and the second main surface; - the carbon nanotubes are separated by a space, and said space between the carbon nanotubes is totally filled with at least one solid material; an electrolyte is confined inside the carbon nanotubes; and - the chemical composition of the confined electrolyte is the same in all the inside of the nanotubes; - preferably the first and the second main surfaces are planar and parallel, the membrane is a planar membrane and the nanotubes, the pores or channels, are substantially aligned, or aligned, perpendicularly to said surface.
An additive manufacturing apparatus, comprising: at least one build unit comprising a powder delivery mechanism, a powder recoating mechanism and an irradiation beam directing mechanism; a build platform; a gas inlet nozzle and a gas exhaust nozzle; and a positioning mechanism connected to the gas inlet nozzle and the gas exhaust nozzle, the positioning mechanism configured to provide independent movement of the gas inlet nozzle and the gas exhaust nozzle; and wherein the positioning mechanism is comprised of a first articulated arm connected to the gas inlet nozzle, and a second articulated arm connected to the gas exhaust nozzle; wherein the positioning mechanism is further configured to provide independent movement of the gas inlet nozzle and the gas exhaust nozzle in at least two dimensions that are substantially parallel to the build platform and a third dimension that is substantially perpendicular to the build platform. at least one build unit comprising a powder delivery mechanism, a powder recoating mechanism and an irradiation beam directing mechanism; a build platform; a gas inlet nozzle and a gas exhaust nozzle; and a positioning mechanism connected to the gas inlet nozzle and the gas exhaust nozzle, the positioning mechanism configured to provide independent movement of the gas inlet nozzle and the gas exhaust nozzle; and wherein the positioning mechanism is comprised of a first articulated arm connected to the gas inlet nozzle, and a second articulated arm connected to the gas exhaust nozzle; wherein the positioning mechanism is further configured to provide independent movement of the gas inlet nozzle and the gas exhaust nozzle in at least two dimensions that are substantially parallel to the build platform and a third dimension that is substantially perpendicular to the build platform.
A system for supplying power to at least one load (20, 22, 24, 26), the at least one load (20, 22, 24, 26)coupled to at least one power source (12, 14, 16); the system comprising: a load bank coupled to the at least one power source (12, 14, 16) and the at least one load (20, 22, 24, 26), the load bank comprising a controllable voltage source comprising switches, at least three resistors (R1, R2, R3) coupled between an output side of the controllable voltage source and the at least one power source (12, 14, 16), and at least one storage element comprising one or more capacitors, batteries, or combinations thereof; and a control device for controlling the switches during a first condition such that, to the extent that an output power of the at least one power source (12, 14, 16) exceeds a requisite power of the at least one load (20, 22, 24, 26), any excess output power is either supplied to the at least one storage element or consumed by the at least three resistors (R1, R2, R3) wherein the control device comprises: a power to voltage conversion unit for receiving a power command and converting the power command to a voltage command, a subtractor for subtracting the voltage command from a voltage of the load bank, and a control unit for generating switching commands for controlling operations of the switches to reduce a difference between the voltage command and the voltage of the load bank.