mhurhangee/ep-ind-claims huggingface dataset:
An imager assembly including calibration functionality, the imager assembly comprising: a housing; an imager disposed inside the housing, the imager including a lens assembly defining a field of view of the imager; an electro-optic element optically coupled with the housing, the electro-optic element including a dimming region operable between a substantially clear condition and a substantially darkened condition, and a calibration region within the field of view of the imager; a controller operably coupled with the imager and electro-optic element, the controller configured to run an algorithm that measures the differences between color and intensity of the image at the calibration region and color and intensity of the image through the dimming region so that adjustment can be made to the dimming region; and a seal disposed between the dimming region and calibration region, the seal disposed of a dead zone area in which image data is discarded by the controller. a housing; an imager disposed inside the housing, the imager including a lens assembly defining a field of view of the imager; an electro-optic element optically coupled with the housing, the electro-optic element including a dimming region operable between a substantially clear condition and a substantially darkened condition, and a calibration region within the field of view of the imager; a controller operably coupled with the imager and electro-optic element, the controller configured to run an algorithm that measures the differences between color and intensity of the image at the calibration region and color and intensity of the image through the dimming region so that adjustment can be made to the dimming region; and a seal disposed between the dimming region and calibration region, the seal disposed of a dead zone area in which image data is discarded by the controller.
Tray sealer comprising a sealing tool lower part with a tray receptacle comprising at least one opening for one tray each, and comprising a sealing tool upper part, where said tray receptacle for every opening comprises a respective cutting groove which is each provided circumferentially around said opening in said tray receptacle, and wherein said tray receptacle comprises a plurality of gas introduction openings and evacuation openings each for introducing gas or flushing a tray with gas, characterized in that said tray receptacle additionally comprises at least one inlet opening respectively facing said cutting groove and at least one outlet opening respectively facing said cutting groove for flushing said cutting groove with gas by a gas flow through the cutting groove from the inlet opening to the outlet opening.
A coupling arrangement comprising a tube plate arranged to be attached to a tube bundle, a first groove formed in a surface of the tube plate, a flange arranged to accommodate an end section of the tube plate, and provided with holes for receiving fastening means (306a, 306b), an anchoring ring arranged to be placed around the tube plate and provided with holes for receiving the fastening means (306a, 306b) for attachment to the flange, a retaining element comprising an inner section and an outer section, wherein the inner section is arranged be placed in the first groove of the tube plate, wherein the retaining element comprises a first part and a second part, and a second groove formed by the flange and the anchoring ring in combination, and arranged to accommodate the outer section of the retaining element, characterized in that each of the first part and the second part of the retaining element has a semi annular shape. a tube plate arranged to be attached to a tube bundle, a first groove formed in a surface of the tube plate, a flange arranged to accommodate an end section of the tube plate, and provided with holes for receiving fastening means (306a, 306b), an anchoring ring arranged to be placed around the tube plate and provided with holes for receiving the fastening means (306a, 306b) for attachment to the flange, a retaining element comprising an inner section and an outer section, wherein the inner section is arranged be placed in the first groove of the tube plate, wherein the retaining element comprises a first part and a second part, and a second groove formed by the flange and the anchoring ring in combination, and arranged to accommodate the outer section of the retaining element, characterized in that each of the first part and the second part of the retaining element has a semi annular shape.
A nucleic acid encoding a luminescent enzyme protein of any of the following: (i) a luminescent enzyme protein comprising the amino acid sequence represented by SEQ ID NO: 2; (ii) a luminescent enzyme protein comprising the amino acid sequence represented by SEQ ID NO: 2 in which one to 32 amino acid residues are substituted, added, or deleted, and having luciferase activity; (iii) a luminescent enzyme protein comprising an amino acid sequence encoded by the base sequence represented by SEQ ID NO: 10; or (iv) a luminescent enzyme protein comprising an amino acid sequence encoded by the base sequence represented by SEQ ID NO: 10 in which one to 98 bases are substituted, added, or deleted, and having luciferase activity. (i) a luminescent enzyme protein comprising the amino acid sequence represented by SEQ ID NO: 2; (ii) a luminescent enzyme protein comprising the amino acid sequence represented by SEQ ID NO: 2 in which one to 32 amino acid residues are substituted, added, or deleted, and having luciferase activity; (iii) a luminescent enzyme protein comprising an amino acid sequence encoded by the base sequence represented by SEQ ID NO: 10; or (iv) a luminescent enzyme protein comprising an amino acid sequence encoded by the base sequence represented by SEQ ID NO: 10 in which one to 98 bases are substituted, added, or deleted, and having luciferase activity.
Structural component (10', 10") for a chassis frame of a vehicle, said structural component comprising, for fastening to the chassis frame, a flange-like end (10A, 10A-1) at least on one side or flange-like ends (10A, 10A-1) on both sides, said ends each having a flange collar (10A-2) on their side facing away from the frame, characterized in that • the at least one flange collar (10A-2) has, at least on its outer lateral surface, a form-fitting layer-like encapsulation (U1, U2, U3) composed of a gas-tight thermoplastic material, • wherein that lateral surface of the encapsulation (U1, U2, U3) which faces away from the collar forms a connecting region (V-AB) with a connecting surface to an inner lateral surface of a pressure vessel body which is open at least on one side or which is open on both sides, • said pressure vessel body likewise being formed, at least in the at least one connecting region (V-AB) or completely, from a gas-tight thermoplastic material, • such that, in the assembled state, in the at least one connecting region (V-AB), a form-fitting and materially bonded and gas-tight thermoplastic connection is formed between the at least one at least partially encapsulated flange collar (10A-2) and the pressure vessel body, • with the result that, in the assembled state, the flange-like end (10A, 10A-1) which is arranged at least on one side, and the associated flange collar (10A-2), forms at least one pressure vessel base (10A, 10A-1, 10A-2) on one side or on both sides of the pressure vessel body in the form of a pressure vessel (10A, 10B) overall. • the at least one flange collar (10A-2) has, at least on its outer lateral surface, a form-fitting layer-like encapsulation (U1, U2, U3) composed of a gas-tight thermoplastic material, • wherein that lateral surface of the encapsulation (U1, U2, U3) which faces away from the collar forms a connecting region (V-AB) with a connecting surface to an inner lateral surface of a pressure vessel body which is open at least on one side or which is open on both sides, • said pressure vessel body likewise being formed, at least in the at least one connecting region (V-AB) or completely, from a gas-tight thermoplastic material, • such that, in the assembled state, in the at least one connecting region (V-AB), a form-fitting and materially bonded and gas-tight thermoplastic connection is formed between the at least one at least partially encapsulated flange collar (10A-2) and the pressure vessel body, • with the result that, in the assembled state, the flange-like end (10A, 10A-1) which is arranged at least on one side, and the associated flange collar (10A-2), forms at least one pressure vessel base (10A, 10A-1, 10A-2) on one side or on both sides of the pressure vessel body in the form of a pressure vessel (10A, 10B) overall.
A titanium copper which contains from 2.0 to 4.5% by mass of Ti, and a total amount of from 0 to 0.5% by mass of at least one selected from the group consisting of Fe, Co, Ni, Cr, Zn, Zr, P, B, Mo, V, Nb, Mn, Mg, and Si as a third element, the balance being copper and inevitable impurities, wherein a pole density of <111> is from 2.5 to 4.5, and a pole density of <001> is higher than that of <101>, in an inverse pole figure in a rolling direction.
Rotor for a synchronous electric machine, having several magnet poles, a rotor return having an outer surface on which several retaining elements having an outer contour are arranged, and several permanent magnet elements (5, 6) having two active surfaces (8, 9) which are penetrated perpendicularly by a magnetic field and whose first active surface is formed for placement on the outer surface and whose second active surface is formed as a radial surface for an annular gap between the rotor and a stator of the synchronous electric machine, wherein a web surface connecting the first and second active surfaces (8, 9) is formed as a support profile having a groove, which support profile forms a positive fit, acting in the radial direction, with one of the retaining elements, characterized in that a magnet pole is formed of several permanent magnet elements (5, 6), wherein all permanent magnet elements (5, 6) of a magnet pole have the same magnetic orientation with respect to the rotor return, and that the outer contour of the retaining elements engage in the support profiles of adjacent, permanent magnet elements (5, 6) of a magnet pole in a positive fit.
A charged particle beam source for a surface processing apparatus, the charged particle beam source comprising: a plasma chamber; a plasma generation unit adapted to convert an input gas within the plasma chamber into a plasma containing charged particles; a grid assembly adjacent an opening of the plasma chamber, the grid assembly comprising one or more grids (27; 27a, 27b, 27c) each having a plurality of apertures therethrough, the one or more grids being electrically biased in use so as to accelerate charged particles from the plasma through the grid(s) to thereby output a charged particle beam the major axis of which is substantially perpendicular to the plane of the grid assembly; wherein the transmissivity of the or each grid to the charged particles is defined by the relative proportion of aperture area to non-aperture area, and at least one of the grids has a transmissivity which varies across the grid along a first direction, characterized in the transmissivity being lower adjacent a first extremity of the grid than adjacent a second extremity of the grid opposite the first extremity, the first direction lying parallel to the plane of the grid assembly, such that in use the charged particle beam output by the source has a non-uniform charged particle current density profile in a plane parallel to the plane of the grid assembly which varies along the first direction, the charged particle current density being lower adjacent a first edge of the beam than adjacent a second edge of the beam opposite the first edge. a plasma chamber; a plasma generation unit adapted to convert an input gas within the plasma chamber into a plasma containing charged particles; a grid assembly adjacent an opening of the plasma chamber, the grid assembly comprising one or more grids (27; 27a, 27b, 27c) each having a plurality of apertures therethrough, the one or more grids being electrically biased in use so as to accelerate charged particles from the plasma through the grid(s) to thereby output a charged particle beam the major axis of which is substantially perpendicular to the plane of the grid assembly; wherein the transmissivity of the or each grid to the charged particles is defined by the relative proportion of aperture area to non-aperture area, and at least one of the grids has a transmissivity which varies across the grid along a first direction, characterized in the transmissivity being lower adjacent a first extremity of the grid than adjacent a second extremity of the grid opposite the first extremity, the first direction lying parallel to the plane of the grid assembly, such that in use the charged particle beam output by the source has a non-uniform charged particle current density profile in a plane parallel to the plane of the grid assembly which varies along the first direction, the charged particle current density being lower adjacent a first edge of the beam than adjacent a second edge of the beam opposite the first edge.
A container precursor, comprising a wall of glass which at least partially encloses an interior volume of the container precursor; wherein, on a side of the wall of glass which faces away from the interior volume, the wall of glass is at least partially superimposed by a plurality of particles; wherein the container precursor is a precursor of a packaging container for a medical or a pharmaceutical packaging good or both. wherein, on a side of the wall of glass which faces away from the interior volume, the wall of glass is at least partially superimposed by a plurality of particles; wherein the container precursor is a precursor of a packaging container for a medical or a pharmaceutical packaging good or both.
An autonomous vehicle comprising: an autonomous vehicle control system comprising a first input device configured to accept a destination input, the autonomous vehicle control system configured to calculate a travel duration for the autonomous vehicle to reach the destination, characterized in that the autonomous vehicle further comprises: a dialysis machine (104, 204) comprising a control unit and a second input device configured to accept a prescription therapy input, the control unit configured to accept the travel duration from the autonomous vehicle control system and to calculate a rate of treatment to complete the inputted prescription therapy within the travel duration, the dialysis machine (104, 204) configured to perform a dialysis treatment on a patient while the autonomous vehicle is under the control of the autonomous vehicle control system; and an interface providing an electrical communication between the dialysis machine (104, 204) and the autonomous vehicle control system. an autonomous vehicle control system comprising a first input device configured to accept a destination input, the autonomous vehicle control system configured to calculate a travel duration for the autonomous vehicle to reach the destination, characterized in that the autonomous vehicle further comprises: a dialysis machine (104, 204) comprising a control unit and a second input device configured to accept a prescription therapy input, the control unit configured to accept the travel duration from the autonomous vehicle control system and to calculate a rate of treatment to complete the inputted prescription therapy within the travel duration, the dialysis machine (104, 204) configured to perform a dialysis treatment on a patient while the autonomous vehicle is under the control of the autonomous vehicle control system; and an interface providing an electrical communication between the dialysis machine (104, 204) and the autonomous vehicle control system. a dialysis machine (104, 204) comprising a control unit and a second input device configured to accept a prescription therapy input, the control unit configured to accept the travel duration from the autonomous vehicle control system and to calculate a rate of treatment to complete the inputted prescription therapy within the travel duration, the dialysis machine (104, 204) configured to perform a dialysis treatment on a patient while the autonomous vehicle is under the control of the autonomous vehicle control system; and an interface providing an electrical communication between the dialysis machine (104, 204) and the autonomous vehicle control system.
Sowing machine with a coulter bar, to which coulter arms are connected, each via an elastic bearing, in such a manner that they can rotate to a certain extent about the coulter bar, characterized in that forces which act on the coulter arms parallel to the coulter bar are absorbed substantially inelastically, and in that the sowing machine comprises at least one supporting element, wherein the forces acting parallel to the coulter bar are absorbed by means of the supporting element which is arranged in a form-fitting and/or force-fitting manner with the coulter bar and/or with at least part of a spring element of the bearing.
A plastic film, including: a supporting substrate; a first coating layer which is formed on one side of the supporting substrate; and a second coating layer which is formed on another side of the supporting substrate, wherein a first and a second coating layers include a crosslinking copolymer of a 3- to 6-functional acrylate compound and a thiol-containing compound, and inorganic particles independently equally or differently, and the plastic film shows a pencil hardness of 7H or more measured according to the Japanese Standard JIS K 5400 at the load of 1 kg, wherein the thicknesses of the first coating layer and the second coating layer is 50 to 150 μ m independently equally or differently. a supporting substrate; a first coating layer which is formed on one side of the supporting substrate; and a second coating layer which is formed on another side of the supporting substrate, wherein a first and a second coating layers include a crosslinking copolymer of a 3- to 6-functional acrylate compound and a thiol-containing compound, and inorganic particles independently equally or differently, and the plastic film shows a pencil hardness of 7H or more measured according to the Japanese Standard JIS K 5400 at the load of 1 kg, wherein the thicknesses of the first coating layer and the second coating layer is 50 to 150 μ m independently equally or differently.
A drive device having an electric motor, wherein the electric motor has a stator iron core with stator windings, which core is received in a stator frame, wherein the stator frame has openings passing through axially, therefore in the rotor shaft axial direction, wherein the stator frame is surrounded by a housing, in particular a tubular housing and/or a pot-shaped housing, of the drive device, in particular radially surrounded, wherein the housing is spaced apart from the stator frame, so that an airflow, in particular a circulating airflow, is formable within the housing, wherein the openings guide the airflow through in an axial direction and the airflow is guided back in the opposite direction in the spaced-apart region between stator frame part and housing, characterised in that the drive device has a gear unit driven by the electric motor, wherein a worse heat conductor is used for the housing than for the stator frame.
A filter bank (300, 400, 500, 600), comprising: a housing having walls (303, 403, 503, 603) extending between a front face (310, 410, 509, 609) and a back face (312, 412, 511, 611) and an air channel formed between the walls (303, 403, 503, 603), wherein air flows along an air flow path from the front face (310, 410, 509, 609) to the back face (312, 412, 511, 611); a filtering layer (302, 402, 502, 602) held in the housing, the filtering layer (302, 402, 502,602) oriented between the front (310, 410, 509, 609) and back faces (312, 412, 511, 611) such that air flows through the filtering layer (302, 402, 502, 602) before discharging from the back face (312, 412, 511, 611); and a pair of attenuating layers (304, 404, 504, 604) positioned within the housing and forming a channel therebetween, the attenuating layers (304, 404, 504, 604) configured to attenuate sound as the sound propagates between the front (310, 410, 509, 609) and back faces (312, 412, 511, 611), the attenuation layers (304, 404, 504, 604) oriented to extend along the air flow direction characterized by the filtering layer (302, 402, 502, 602) is positioned within the channel; and the attenuating layers (304, 404, 504, 604) including opposed side faces, the attenuating layers (304, 404, 504, 604) positioned within the air channel and spaced apart from the walls (303, 403, 503, 603) of the housing such that air flows in a common direction along both sides of the opposed side faces of the attenuating layers. a housing having walls (303, 403, 503, 603) extending between a front face (310, 410, 509, 609) and a back face (312, 412, 511, 611) and an air channel formed between the walls (303, 403, 503, 603), wherein air flows along an air flow path from the front face (310, 410, 509, 609) to the back face (312, 412, 511, 611); a filtering layer (302, 402, 502, 602) held in the housing, the filtering layer (302, 402, 502,602) oriented between the front (310, 410, 509, 609) and back faces (312, 412, 511, 611) such that air flows through the filtering layer (302, 402, 502, 602) before discharging from the back face (312, 412, 511, 611); and a pair of attenuating layers (304, 404, 504, 604) positioned within the housing and forming a channel therebetween, the attenuating layers (304, 404, 504, 604) configured to attenuate sound as the sound propagates between the front (310, 410, 509, 609) and back faces (312, 412, 511, 611), the attenuation layers (304, 404, 504, 604) oriented to extend along the air flow direction characterized by the filtering layer (302, 402, 502, 602) is positioned within the channel; and the attenuating layers (304, 404, 504, 604) including opposed side faces, the attenuating layers (304, 404, 504, 604) positioned within the air channel and spaced apart from the walls (303, 403, 503, 603) of the housing such that air flows in a common direction along both sides of the opposed side faces of the attenuating layers.
Electronic device comprising - anode, - cathode, - at least one emitting layer which is arranged between anode and cathode and in each case comprises one or more emitter compounds, which may be phosphorescent or fluorescent, - at least one p-doped layer A which is arranged between anode and emitting layer and which comprises a monotriarylamine as host, as well as - at least one non-p-doped layer layer B comprising a monotriarylamine which is arranged between anode and emitting layer and - a further non-p-doped layer C, comprising a monotriarylamine, between layer B and the emitting layer, characterised in that the p-doped layer A is arranged directly adjacent to the anode, and in that layer C is directly adjacent to the emitting layer. - anode, - cathode, - at least one emitting layer which is arranged between anode and cathode and in each case comprises one or more emitter compounds, which may be phosphorescent or fluorescent, - at least one p-doped layer A which is arranged between anode and emitting layer and which comprises a monotriarylamine as host, as well as - at least one non-p-doped layer layer B comprising a monotriarylamine which is arranged between anode and emitting layer and - a further non-p-doped layer C, comprising a monotriarylamine, between layer B and the emitting layer,