mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode plate, comprising a metal current collector, a positive electrode active material layer and a safety coating disposed between the metal current collector and the positive electrode active material layer; wherein: the safety coating comprises a polymer matrix, a conductive material and an inorganic filler; in the safety coating, based on the total weight of the polymer matrix, the conductive material and the inorganic filler, a content of the inorganic filler is from 10 wt% to 60 wt%, a content of the polymer matrix is from 35 wt% to 75 wt%, a content of the conductive material is from 5 wt% to 25 wt%; the positive electrode active material layer comprises Li 1+x Ni a Co b Me (1-a-b) O 2, wherein -0.1≤x≤0.2, 0.6≤a<1, 0<b<1, 0<(1-a-b)<1, and Me is at least one of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti and Zr; and the metal current collector is a porous aluminum-containing current collector. the safety coating comprises a polymer matrix, a conductive material and an inorganic filler; in the safety coating, based on the total weight of the polymer matrix, the conductive material and the inorganic filler, a content of the inorganic filler is from 10 wt% to 60 wt%, a content of the polymer matrix is from 35 wt% to 75 wt%, a content of the conductive material is from 5 wt% to 25 wt%; the positive electrode active material layer comprises Li 1+x Ni a Co b Me (1-a-b) O 2, wherein -0.1≤x≤0.2, 0.6≤a<1, 0<b<1, 0<(1-a-b)<1, and Me is at least one of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti and Zr; and the metal current collector is a porous aluminum-containing current collector.
Therapeutic concentrate of immunoglobulins G (IgG), characterized in that it has respective contents of anti-A and anti-B antibodies conforming to a negative result for the Coombs in vitro indirect test, at a dilution of 1:64, conducted with an IgG solution whose initial concentration is reduced to 30 g/l and a residual content of polyreactive IgGs comprises between 0.01% and 0.1%, relative to the total IgG content, said residual content of polyreactive IgGs being measured by ELISA using the albumin modified by dinitrophenyl groups (DNP Albumin) antigen.
Semiconductor light-emitting diode having: - at least one p-doped light-emitting diode layer, an n-doped light-emitting diode layer and an optically active zone between the p-doped light-emitting diode layer and the n-doped light-emitting diode layer, - an oxide layer of a transparent conductive oxide, and - at least one mirror layer, wherein the oxide layer is disposed between the light-emitting diode layers (2, 4) and the at least one mirror layer, and comprises a first boundary surface which faces the light-emitting diode layers (2, 4) and a second boundary surface which faces the at least one mirror layer, wherein the mirror layer adjoins the second boundary surface of the oxide layer, characterised in that the second boundary surface of the oxide layer has a roughness, which is smaller than 0.1 nm. - at least one p-doped light-emitting diode layer, an n-doped light-emitting diode layer and an optically active zone between the p-doped light-emitting diode layer and the n-doped light-emitting diode layer, - an oxide layer of a transparent conductive oxide, and - at least one mirror layer,
Tray sealing machine comprising a sealing station configured for sealing a cover film to a plurality of trays; a tray feed unit configured for feeding trays to the sealing station in a production direction; and a transfer device configured for simultaneously holding in a closing position a specific number of trays at least in the tray feed unit and moving the held trays from said tray feed unit to the sealing station, the transfer device comprising a first tray gripper and a second tray gripper horizontally facing one another in a transverse direction relative to the production direction and configured for holding the trays in the closing position of the transfer device, characterized in that the transfer device comprises at least one retaining device for each tray to be held by said transfer device in the tray feed unit, with each retaining device being joined to one of the tray grippers (51, 52) with freedom of movement between a first position in which it prevents or limits the movement of a product arranged on the corresponding tray with respect to said tray at least in a specific direction, and a second position in which it does not prevent or limit said movement of said product.
Extrusion head, in particular printing head, for the layer-by-layer application of material for the generative production of a shaped body, comprising an extrusion nozzle with an extrusion channel and a heating device for melting the polymer material fed to the extrusion nozzle, wherein the heating device is designed as an inductive heater which comprises an inductor surrounding the extrusion nozzle, and wherein the extrusion nozzle consists at least in part of an inductively heatable material and the extrusion nozzle, for thermal and, if necessary, electrical insulation, is supported an insulation body surrounding it, which preferably consists of a ceramic material, characterized in that the inductor, such as at least one induction coil, is arranged in or on the insulating body, in that a material feed body is provided which has a feed channel aligned with the extrusion channel of the extrusion nozzle, and in that the extrusion nozzle is detachably connected to the material feed body, the extrusion nozzle being connected to the material feed body via the insulating body.
An optical imaging system (100, 101) for use with a medical scope, comprising: a first substantially afocal optical group comprising a first beamsplitter optically arranged to receive single optical image light in a substantially afocal state and split the single optical image light into a first portion of light directed along a first optical path and a second portion of light directed along a second optical path; a second optical group comprising refractive elements optically arranged to receive the first and second portions (301, 302) of light from the first beamsplitter and focus them; a second beamsplitter downstream from the second optical group arranged in an image space to split the first portion of light into a third and fourth portion of light and the second portion of light into a fifth and sixth portion of light; wherein the third and fifth portions of light are focused onto a first and second area of a first image sensor, and the fourth and sixth portions of light are focused onto a first area and a second area of a second image sensor, wherein the first and second areas of the first and second image sensor (214, 216) do not overlap; and one or more manipulating optical elements positioned upstream of the second optical group to manipulate one or more of the single optical image light, the first portion of light and the second portion of light. a first substantially afocal optical group comprising a first beamsplitter optically arranged to receive single optical image light in a substantially afocal state and split the single optical image light into a first portion of light directed along a first optical path and a second portion of light directed along a second optical path; a second optical group comprising refractive elements optically arranged to receive the first and second portions (301, 302) of light from the first beamsplitter and focus them; a second beamsplitter downstream from the second optical group arranged in an image space to split the first portion of light into a third and fourth portion of light and the second portion of light into a fifth and sixth portion of light; wherein the third and fifth portions of light are focused onto a first and second area of a first image sensor, and the fourth and sixth portions of light are focused onto a first area and a second area of a second image sensor, wherein the first and second areas of the first and second image sensor (214, 216) do not overlap; and one or more manipulating optical elements positioned upstream of the second optical group to manipulate one or more of the single optical image light, the first portion of light and the second portion of light.
A saddle-ride-type vehicle comprising: a main frame extending rearwardly and downwardly from a head pipe; a seat frame extending rearwardly from the main frame; and a rider's seat supported on the seat frame from below, wherein the seat frame is disposed in an manner toward the main frame such that the seat frame is spaced from a seat bottom surface of the rider's seat thus forming a space below the seat bottom surface, and a seat support member is disposed in the space; characterized in that: the seat support member is configured to gradually increase in height toward one end side in the longitudinal direction of the vehicle as viewed in a side view of the vehicle; the space has a largest storage space (Sp) adjacent to the one end side; the largest storage space (Sp) is disposed between the seat support member and a fuel tank, and a support seat surface which supports the seat bottom surface thereon is formed on an upper portion of the fuel tank. a main frame extending rearwardly and downwardly from a head pipe; a seat frame extending rearwardly from the main frame; and a rider's seat supported on the seat frame from below, wherein the seat frame is disposed in an manner toward the main frame such that the seat frame is spaced from a seat bottom surface of the rider's seat thus forming a space below the seat bottom surface, and a seat support member is disposed in the space; characterized in that: the seat support member is configured to gradually increase in height toward one end side in the longitudinal direction of the vehicle as viewed in a side view of the vehicle; the space has a largest storage space (Sp) adjacent to the one end side; the largest storage space (Sp) is disposed between the seat support member and a fuel tank, and a support seat surface which supports the seat bottom surface thereon is formed on an upper portion of the fuel tank. the seat support member is configured to gradually increase in height toward one end side in the longitudinal direction of the vehicle as viewed in a side view of the vehicle; the space has a largest storage space (Sp) adjacent to the one end side; the largest storage space (Sp) is disposed between the seat support member and a fuel tank, and a support seat surface which supports the seat bottom surface thereon is formed on an upper portion of the fuel tank.
A method comprising: combining one or more catecholate ligands and titanium oxychloride in an aqueous solution; and reacting the one or more catecholate ligands with the titanium oxychloride in the aqueous solution using acidic conditions to form a titanium catecholate complex. combining one or more catecholate ligands and titanium oxychloride in an aqueous solution; and reacting the one or more catecholate ligands with the titanium oxychloride in the aqueous solution using acidic conditions to form a titanium catecholate complex.
A method for chromatographically separating a first saccharide from a liquid eluent comprising the first saccharide and a second saccharide by passing the liquid eluent through a bed comprising a polymeric macroporous alkylene-bridged strong acid cation exchange resin in calcium form.
A voltage limiter device of an assembly of photovoltaic modules (2,4,6), including: - means forming an electronic switch for a current of said assembly, in order to interrupt a current delivered by said assembly of modules, - first comparison means (Comp1, R1, R2, C2) for comparing a voltage at the output of the limiter with a reference voltage value (Vref1), - means (Comp1, 11) for controlling the means forming an electronic switch, in order to open or close these switch-forming means, depending on the result of the comparison carried out by the comparison means. - means forming an electronic switch for a current of said assembly, in order to interrupt a current delivered by said assembly of modules, - first comparison means (Comp1, R1, R2, C2) for comparing a voltage at the output of the limiter with a reference voltage value (Vref1), - means (Comp1, 11) for controlling the means forming an electronic switch, in order to open or close these switch-forming means, depending on the result of the comparison carried out by the comparison means.
A method of controlling a wind turbine to avoid tonal noise production, the method comprising: acquiring noise data representing noise produced by a wind turbine; acquiring vibration data from a plurality of vibration sensors positioned at different locations about the wind turbine; identifying a region of interest in the noise data, the region of interest being a candidate for containing tonal noise generated by the wind turbine; characterized by: identifying a vibration sensor, the data for which correlates with the noise data in the region of interest; and adjusting one or more wind turbine operating parameters in response to the vibration level detected by the identified vibration sensor. acquiring noise data representing noise produced by a wind turbine; acquiring vibration data from a plurality of vibration sensors positioned at different locations about the wind turbine; identifying a region of interest in the noise data, the region of interest being a candidate for containing tonal noise generated by the wind turbine; characterized by: identifying a vibration sensor, the data for which correlates with the noise data in the region of interest; and adjusting one or more wind turbine operating parameters in response to the vibration level detected by the identified vibration sensor. identifying a vibration sensor, the data for which correlates with the noise data in the region of interest; and adjusting one or more wind turbine operating parameters in response to the vibration level detected by the identified vibration sensor.
A chromatographic method comprising the steps of: (a) injecting sample ionic species into an aqueous eluent stream, (b) chromatographically separating said sample ionic species in said eluent stream by flowing the same through chromatographic separation medium, (c) detecting said separated sample ionic species in said eluent stream effluent from said chromatographic medium, and (d) catalytically combining hydrogen and oxygen gases or catalytically decomposing hydrogen peroxide, or both, in said eluent stream in a catalytic gas elimination chamber, to form water and reduce the gas content in said eluent stream. (a) injecting sample ionic species into an aqueous eluent stream, (b) chromatographically separating said sample ionic species in said eluent stream by flowing the same through chromatographic separation medium, (c) detecting said separated sample ionic species in said eluent stream effluent from said chromatographic medium, and (d) catalytically combining hydrogen and oxygen gases or catalytically decomposing hydrogen peroxide, or both, in said eluent stream in a catalytic gas elimination chamber, to form water and reduce the gas content in said eluent stream.
An inspection apparatus, comprising: a stage on which an inspection object is loaded; and a probe configured to: obtain an optical image of the inspection object; obtain optical interference data about the inspection object of an area that is selected from the optical image; and measure a distance between the probe and a surface of the inspection object in a predetermined direction, wherein the probe or the stage is movable to obtain the optical interference data about the inspection object of the selected area, wherein the probe includes: an optical imaging device configured to obtain the optical image; an optical interference detector configured to obtain the optical interference data; and a light guide including a magnification changer, and wherein a position of the probe or the stage is adjustable on a z-axis based on the measured distance such that the surface of the inspection object is located within a measurement range in a z-axis direction of the optical interference detector. a stage on which an inspection object is loaded; and a probe configured to: obtain an optical image of the inspection object; obtain optical interference data about the inspection object of an area that is selected from the optical image; and measure a distance between the probe and a surface of the inspection object in a predetermined direction, obtain an optical image of the inspection object; obtain optical interference data about the inspection object of an area that is selected from the optical image; and measure a distance between the probe and a surface of the inspection object in a predetermined direction, wherein the probe or the stage is movable to obtain the optical interference data about the inspection object of the selected area, wherein the probe includes: an optical imaging device configured to obtain the optical image; an optical interference detector configured to obtain the optical interference data; and a light guide including a magnification changer, and wherein a position of the probe or the stage is adjustable on a z-axis based on the measured distance such that the surface of the inspection object is located within a measurement range in a z-axis direction of the optical interference detector. an optical imaging device configured to obtain the optical image; an optical interference detector configured to obtain the optical interference data; and a light guide including a magnification changer, and wherein a position of the probe or the stage is adjustable on a z-axis based on the measured distance such that the surface of the inspection object is located within a measurement range in a z-axis direction of the optical interference detector.
A recording apparatus, comprising: a stage, which includes a supporting surface for supporting a recording medium; a recording processing unit, which includes a recording unit for performing recording on the recording medium that is supported by the stage, the recording processing unit bridging the stage in a first direction; and a movement unit for causing the recording processing unit to move in relation to the stage in a second direction that is perpendicular to the first direction and is parallel to the supporting surface, wherein the movement unit includes a drive mechanism (87, 88) for causing the recording processing unit to move in the second direction in relation to the stage, and a linear guide mechanism for supporting the recording processing unit to be free sliding in the second direction in relation to the stage, wherein: the linear guide mechanism is disposed on a rear surface side of the stage, and characterized in that the drive mechanism (87, 88) is disposed between a portion of the stage that makes contact with the recording medium and the linear guide mechanism in a third direction, which is perpendicular to the first direction and the second direction. a stage, which includes a supporting surface for supporting a recording medium; a recording processing unit, which includes a recording unit for performing recording on the recording medium that is supported by the stage, the recording processing unit bridging the stage in a first direction; and a movement unit for causing the recording processing unit to move in relation to the stage in a second direction that is perpendicular to the first direction and is parallel to the supporting surface, wherein the movement unit includes a drive mechanism (87, 88) for causing the recording processing unit to move in the second direction in relation to the stage, and a linear guide mechanism for supporting the recording processing unit to be free sliding in the second direction in relation to the stage, wherein: a drive mechanism (87, 88) for causing the recording processing unit to move in the second direction in relation to the stage, and a linear guide mechanism for supporting the recording processing unit to be free sliding in the second direction in relation to the stage, wherein: the linear guide mechanism is disposed on a rear surface side of the stage, and characterized in that the drive mechanism (87, 88) is disposed between a portion of the stage that makes contact with the recording medium and the linear guide mechanism in a third direction, which is perpendicular to the first direction and the second direction.
An electric actuator comprising: - an electric motor, - at least two threaded rods rotated by the electric motor by means of a set of pinions and toothed wheels, and fixed in translation, - a nut rotationally immobilised and guided in translation along each threaded rod, said nut being driven in translation by the rotation of the threaded rods, - a pushing member that can move in translation and set in motion by the movement of the nut, the two threaded rods each driving the translation of a nut along the threaded rod on which the nut is mounted, each nut driving the translation of said pushing member, - an assembly of parts including at least one member for immobilising the rotation of each nut and a connecting member, said assembly being suitable for providing the connection between each nut and one end of the pushing member and for guiding the translation of said pushing member, characterised in that the assembly comprises an open ring surrounding each nut, said ring participating in the assembly of parts providing the connection between the nuts and the pushing member. - an electric motor, - at least two threaded rods rotated by the electric motor by means of a set of pinions and toothed wheels, and fixed in translation, - a nut rotationally immobilised and guided in translation along each threaded rod, said nut being driven in translation by the rotation of the threaded rods, - a pushing member that can move in translation and set in motion by the movement of the nut, the two threaded rods each driving the translation of a nut along the threaded rod on which the nut is mounted, each nut driving the translation of said pushing member, - an assembly of parts including at least one member for immobilising the rotation of each nut and a connecting member, said assembly being suitable for providing the connection between each nut and one end of the pushing member and for guiding the translation of said pushing member, characterised in that the assembly comprises an open ring surrounding each nut, said ring participating in the assembly of parts providing the connection between the nuts and the pushing member.
A method for producing an ultraviolet photocathode, comprising providing a support (10; 20, 21) capable of conducting electrons, and producing a photosensitive layer of nanodiamond particles on the support (10; 20, 21), wherein producing the photosensitive layer comprises providing nanodiamond particles in form of a powder, hydrogenating the particles in an H 2 plasma, preparing a dispersion of the hydrogenated particles in a solvent, and spraying the dispersion onto the support and waiting for the solvent to evaporate from the support, this spraying and waiting cycle being repeated several times to obtain a continuous photosensitive layer.
A floor treatment system, comprising a mobile floor treatment apparatus and a docking station therefor, wherein the floor treatment apparatus has at least one liquid container (66, 70) with a container wall (78, 90) and a container interior (80, 92), wherein the docking station comprises at least one supply conduit through which, in a docked position of the floor treatment apparatus on the docking station, a liquid is suppliable to the container interior (80, 92), characterized in that the floor treatment system comprises an opening device by way of which a wall portion (102, 104) of the container wall (78, 90) is movable into an open position, for clearing at least one container opening (82, 94) of the at least one liquid container (66, 70), and in the docked position of the floor treatment apparatus the liquid can exit from the container interior (80, 92) through the container opening (82, 94), and in that the wall portion (102, 104) is transferable into the open position by the opening device by moving the floor treatment apparatus from a non-docked position into the docked position.