mhurhangee/ep-ind-claims huggingface dataset:
A device to be placed on the floor of a storage room, used to draw in bulk goods composed of solid, individual particles from the storage room into a pneumatic conveyor section, wherein in the device a suction line of the pneumatic conveyor section ends with its suction end and an air supply duct ends with its outlet end, wherein the device includes a hollow body open on one side, of which the first opening area (1.1), viewed from the outside, runs upward diagonally and overhangs to the outside, wherein the suction line and the air supply duct end in the hollow body, with the end of the air supply duct being higher than the end of the suction line and the ends of the air supply duct and the suction line are aligned towards the first opening area (1.1) of the hollow body, characterised in that the hollow body is formed by a hollow profile (1.2) lying on the floor of the storage room and a flat piece (1.3) which closes a second opening area of the hollow profile (1.2) and that the suction line and the air supply duct pass into the hollow body through the flat piece(1.3) opposite the first opening area (1.1).
A cochleate composition comprising a population of cochleates, wherein the cochleates comprise: a) a negatively charged first lipid; b) a cation, wherein the cation is a divalent cation selected from the group consisting of calcium, zinc, barium, and magnesium cations; c) a neutral second lipid; and d) a biologically relevant molecule, wherein the biologically relevant molecule is an aminoglycoside; wherein the ratio of the negatively charged first lipid to the neutral second lipid is between 1:1 to 9:1; wherein the negatively charged first lipid is phosphatidylserine and comprises at least 50% of the total lipid; and wherein the neutral second lipid is phosphatidylcholine or sphingomyelin. a) a negatively charged first lipid; b) a cation, wherein the cation is a divalent cation selected from the group consisting of calcium, zinc, barium, and magnesium cations; c) a neutral second lipid; and d) a biologically relevant molecule, wherein the biologically relevant molecule is an aminoglycoside;
A fluid management catheter for insertion into a ventricle in a brain of a patient, comprising: an elongated shaft having a distal end and a proximal end, the shaft defining at least one lumen extending substantially therethrough, the shaft further defining a plurality of drainage holes (70, 72) along a distal portion of the shaft, the drainage holes being in fluid communication with the lumen, a substantially transparent tip portion attached to the distal end of the shaft and having an outer distal leading surface that is substantially rounded to assist insertion through tissue, characterized in that the shaft includes at least one substantially transparent insert disposed along the distal portion of the shaft, wherein the shaft carries an optical conduit in optical communication with the at least one insert. an elongated shaft having a distal end and a proximal end, the shaft defining at least one lumen extending substantially therethrough, the shaft further defining a plurality of drainage holes (70, 72) along a distal portion of the shaft, the drainage holes being in fluid communication with the lumen, a substantially transparent tip portion attached to the distal end of the shaft and having an outer distal leading surface that is substantially rounded to assist insertion through tissue,
Inductive component comprising a copper wire winding and a coating mass surrounding the copper wire winding, wherein the coating mass comprises a matrix and at least a first filler, - wherein the matrix comprises at least one selected from alumina cement, phosphate cement, SiO 2, MgO and reactive alumina and - wherein the first filler comprises at least one soft magnetic powder, further comprising in the coating mass at least a second filler, the second filler comprising Al 2 O 3, wherein the total mass of first filler, based on the total mass of the first and second fillers (6, 7), is 1 to 50 mass% and wherein the total mass of second filler, based on the total mass of the first and second fillers (6, 7), is 50 to 99 mass%. - wherein the matrix comprises at least one selected from alumina cement, phosphate cement, SiO 2, MgO and reactive alumina and - wherein the first filler comprises at least one soft magnetic powder, further comprising in the coating mass at least a second filler, the second filler comprising Al 2 O 3,
A laser welding system, comprising: a laser source configured to produce at least one laser beam; beam modifying means, preferably a diffractive optical element, configured to split the at least one laser beam; directing means; optionally, impingement means configured to apply a force to a target; and characterised by: controlling means configured to control the directing means to: cause the split laser beam to form at least three heat source points on the target, the at least three heat source points comprising two or more subsidiary heat source points, and at least one primary heat source point positioned between the two or more subsidiary heat source points, the at least one primary heat source point having higher power than the subsidiary heat source points, the heat source points maintaining a linear profile, and move the at least three heat source points in a travel direction along the target, wherein the linear profile forms a predetermined, oblique angle (α) relative to the travel direction. a laser source configured to produce at least one laser beam; beam modifying means, preferably a diffractive optical element, configured to split the at least one laser beam; directing means; optionally, impingement means configured to apply a force to a target; controlling means configured to control the directing means to: cause the split laser beam to form at least three heat source points on the target, the at least three heat source points comprising two or more subsidiary heat source points, and at least one primary heat source point positioned between the two or more subsidiary heat source points, the at least one primary heat source point having higher power than the subsidiary heat source points, the heat source points maintaining a linear profile, and move the at least three heat source points in a travel direction along the target, wherein the linear profile forms a predetermined, oblique angle (α) relative to the travel direction.
Lighting arrangement for airports, in particular inpavement light, comprising: - a multipart-formed lighting module housing with a light outlet housing part (1.1) being arranged above ground in the mounted above state and with a function component housing part (1.2) being arranged under ground in the mounted state, wherein in the lighting module housing at least one illuminant for providing light and at least one optics being assigned to the at least one illuminant for forming a light distribution, and a drive for the at least one illuminant are provided, and - a multipart-formed power supply housing with an upper shell (4.1) applied to the functional component housing part (1.2) and a lower shell (4.2) being connected to the upper shell (4.1), wherein at least one access opening (7, 8) and at least one exit opening are formed at the power supply housing for a first power supply line and for a second power supply line, wherein at least one induction coil (13, 14) being connected in an electrically conductive manner to the drive is assigned to each of the sections of the power supply lines (5, 6) guided in the power supply housing such that during operation a voltage is induced in the induction coils (13, 14) and by means of the induced voltage the at least one illuminant is operated, and wherein a first ferrite core and a second ferrite core are provided in the power supply housing which enclose the induction coils (13, 14) and the power supply lines (5, 6) on the shell side. - a multipart-formed lighting module housing with a light outlet housing part (1.1) being arranged above ground in the mounted above state and with a function component housing part (1.2) being arranged under ground in the mounted state, wherein in the lighting module housing at least one illuminant for providing light and at least one optics being assigned to the at least one illuminant for forming a light distribution, and a drive for the at least one illuminant are provided, and - a multipart-formed power supply housing with an upper shell (4.1) applied to the functional component housing part (1.2) and a lower shell (4.2) being connected to the upper shell (4.1), wherein at least one access opening (7, 8) and at least one exit opening are formed at the power supply housing for a first power supply line and for a second power supply line,
Apparatus for footcare, which comprises an abrasive body and members for supporting the abrasive body relatively a ground, the abrasive body has an external surface, and the external surface is at least partly abrasive, whereby the portion of the external surface of the abrasive body that is abrasive comprises a number of partial surfaces, and these partial surfaces comprises at least a concave surface (9, 12) and a convex surface (10, 15), characterised in that a main surface of the concave surface, which at the position of the abrasive body on the ground is faced upwardly, has two concave partial surfaces (A, B) angled against each other, whereby a first partial surface has an angle in the range 15-45° in relation to the ground and a second partial surface has an angle up to 15° in relation to the ground.
A device for treatment of exhaust gases comprising: a housing; a fragile structure resiliently mounted within said housing; and a flexible non-intumescent mounting mat disposed in a gap between said housing and said fragile structure, characterized by said mounting mat including melt-formed and leached glass fibers containing at least 67 percent by weight silica wherein the leached glass fibers are heat-treated prior to the formation of the mounting mat or the mounting mat is heat treated prior to wrapping the fragile structure at a temperature of at least 300°C or at least 900°C for an effective period of time such that the mounting mat meets or exceeds the minimum holding pressure for holding the fragile structure within the housing of one of (i) at least 10 kPa after 1000 cycles of testing at a hot face temperature of 900°C, a gap bulk density of from 0.3 to 0.5 g/cm 3, and a percent gap expansion of 5 percent, or (ii) at least 50 kPa after 1000 cycles of testing at a hot face temperature of 300°C, a gap bulk density of from 0.3 to 0.5 g/cm 3, and a percent gap expansion of 2 percent. a housing; a fragile structure resiliently mounted within said housing; and a flexible non-intumescent mounting mat disposed in a gap between said housing and said fragile structure, characterized by said mounting mat including melt-formed and leached glass fibers containing at least 67 percent by weight silica wherein the leached glass fibers are heat-treated prior to the formation of the mounting mat or the mounting mat is heat treated prior to wrapping the fragile structure at a temperature of at least 300°C or at least 900°C for an effective period of time such that the mounting mat meets or exceeds the minimum holding pressure for holding the fragile structure within the housing of one of (i) at least 10 kPa after 1000 cycles of testing at a hot face temperature of 900°C, a gap bulk density of from 0.3 to 0.5 g/cm 3, and a percent gap expansion of 5 percent, or (ii) at least 50 kPa after 1000 cycles of testing at a hot face temperature of 300°C, a gap bulk density of from 0.3 to 0.5 g/cm 3, and a percent gap expansion of 2 percent.
A nozzle for a vacuum cleaner, the nozzle comprising: a base having an edge (4, 5), a suction aperture in the base, and at least one flexible flap (24, 26) protruding from the base between the edge and the suction aperture, the flexible flap having first and second sections (32, 33) separable by an opening, characterized in that the first and second sections are arranged to be urged towards each other when the nozzle is moved in a first direction in which the edge is a leading edge to close the opening or tend the opening towards closing, and to be urged away from each other when the nozzle is moved in a second direction in which the edge is a trailing edge to open the opening or to further open the opening. a base having an edge (4, 5), a suction aperture in the base, and at least one flexible flap (24, 26) protruding from the base between the edge and the suction aperture, the flexible flap having first and second sections (32, 33) separable by an opening, characterized in that the first and second sections are arranged to be urged towards each other when the nozzle is moved in a first direction in which the edge is a leading edge to close the opening or tend the opening towards closing, and to be urged away from each other when the nozzle is moved in a second direction in which the edge is a trailing edge to open the opening or to further open the opening.
A windrower, comprising: a header comprising a crop cutting assembly; a chassis coupled to the header; and a system, comprising: plural sensors comprising first and second sensors, wherein the first sensor monitors alfalfa plant height and the second sensor monitors cut alfalfa volume; a controller configured to: receive input from the plural sensors; determine a feed quality value based on the received input; and present the feed quality value to an operator of the windrower characterised in that the windrower further comprises a set of conditioning rolls (34,36), wherein the second sensor monitors a gap between the set of conditioning rolls through which the cut alfalfa volume flows, and the controller is further configured to associate the cut alfalfa volume with an alfalfa stem diameter. a header comprising a crop cutting assembly; a chassis coupled to the header; and a system, comprising: plural sensors comprising first and second sensors, wherein the first sensor monitors alfalfa plant height and the second sensor monitors cut alfalfa volume; a controller configured to: receive input from the plural sensors; determine a feed quality value based on the received input; and present the feed quality value to an operator of the windrower plural sensors comprising first and second sensors, wherein the first sensor monitors alfalfa plant height and the second sensor monitors cut alfalfa volume; a controller configured to: receive input from the plural sensors; determine a feed quality value based on the received input; and present the feed quality value to an operator of the windrower receive input from the plural sensors; determine a feed quality value based on the received input; and present the feed quality value to an operator of the windrower characterised in that the windrower further comprises a set of conditioning rolls (34,36), wherein the second sensor monitors a gap between the set of conditioning rolls through which the cut alfalfa volume flows, and the controller is further configured to associate the cut alfalfa volume with an alfalfa stem diameter.
Use of a food supplement in the form of a capsule, wherein the food supplement comprises a. Biotin in an amount of 0,05 to 2 mg based on each capsule, and b. L-cystine in an amount of 1 to 5 mg based on each capsule, and c. millet extract in an amount of 100 to 500 mg based on each capsule, and d. pantothenic acid and/or a salt thereof in an amount of 5 to 50 mg based on each capsule, and e. optionally at least one auxiliary ingredient for obtaining shiny hair or soft and elastic hair or smooth hair moisturized hair or vital hair when applied in the form of two capsules once a day on a daily basis for at least eight weeks. a. Biotin in an amount of 0,05 to 2 mg based on each capsule, and b. L-cystine in an amount of 1 to 5 mg based on each capsule, and c. millet extract in an amount of 100 to 500 mg based on each capsule, and d. pantothenic acid and/or a salt thereof in an amount of 5 to 50 mg based on each capsule, and e. optionally at least one auxiliary ingredient
A method of making a polymeric material capable of reversible chain cleavage, the method comprising the step of: forming a mixture comprising one or more monomers, wherein at least one monomer contains an addition-fragmentation chain transfer group in the monomer backbone and a plurality of polymerizable groups, and subjecting the mixture to polymerization conditions. forming a mixture comprising one or more monomers, wherein at least one monomer contains an addition-fragmentation chain transfer group in the monomer backbone and a plurality of polymerizable groups, and subjecting the mixture to polymerization conditions.
A method for selecting a plurality of binders specific for a relevant polypeptide comprising i) building a binder library by using PBMCs obtained from at least one animal immunized with a fusion protein consisting of the relevant polypeptide fused to an irrelevant polypeptide ii) producing a phage binder library by infecting the binder library of step i) with a helper phage iii) performing with the phage binder library of step ii) at least one round of selection against the irrelevant polypeptide iv) producing soluble binders with selected clones obtained at step iii) v) performing with the phage binder library of step ii) at least one round of selection against the fusion protein of step i) in the presence of an excess of binders produced by step iv) vi) cloning, recovering and optionally sequencing the binders from the clones selected at step v). i) building a binder library by using PBMCs obtained from at least one animal immunized with a fusion protein consisting of the relevant polypeptide fused to an irrelevant polypeptide ii) producing a phage binder library by infecting the binder library of step i) with a helper phage iii) performing with the phage binder library of step ii) at least one round of selection against the irrelevant polypeptide iv) producing soluble binders with selected clones obtained at step iii) v) performing with the phage binder library of step ii) at least one round of selection against the fusion protein of step i) in the presence of an excess of binders produced by step iv) vi) cloning, recovering and optionally sequencing the binders from the clones selected at step v).
Profile, more particularly a tube, having at least one bent metal sheet which surrounds an interior space by at least 360° and whose longitudinal edges (10, 11) are connected to respectively adjacent wall sections (4, 6) of the metal sheet, wherein the longitudinal edges (10, 11) of respectively adjacent wall sections (4, 6) or longitudinal edges (11, 10) are spaced apart from one another by means of spacers arranged between them in such a way so that a gap exists, and are positively connected thereto by connecting means such as screws, rivets or the like, characterized in that deep-drawn cups (34, 36) are attached in at least one longitudinal edge (10, 11) or in at least one wall section (4, 6) in the connecting regions in which the connecting means are arranged.
A method for synthesizing a chiral cyclopropyl ethynyl tertiary alcohol compound, wherein the method comprises the following steps: In an organic solvent, in the presence of an alkaline reagent and a salt thereof, reacting cyclopropyl acetylene with a chiral inducing agent, a chiral auxiliary reagent and zinc halide, thereby obtaining a first reaction mixture; reacting the first reaction mixture obtained in step with 5-chloro-2-aminotrifluorobenzophenone to form a compound of formula I: that is -2-amino-5-chloro-α-cyclopropyl acetylene-α-trifluoromethylbenzyl alcohol; wherein the salt is a sulfonate, a sulfinate, or a combination thereof; wherein the chiral inducing agent is selected from chiral aminoalcohol or -2-amino-5-chloro-α-cyclopropyl acetylene-α-trifluoromethylbenzyl alcohol; the chiral auxiliary reagent is selected from trifluoroethanol, trichloroethanol, t-butanol, neopentyl alcohol, triphenylcarbinol, isopropanol, ethanol, methanol, or a combination thereof; the alkaline agent is selected from alkali hydrides. In an organic solvent, in the presence of an alkaline reagent and a salt thereof, reacting cyclopropyl acetylene with a chiral inducing agent, a chiral auxiliary reagent and zinc halide, thereby obtaining a first reaction mixture; reacting the first reaction mixture obtained in step with 5-chloro-2-aminotrifluorobenzophenone to form a compound of formula I: that is -2-amino-5-chloro-α-cyclopropyl acetylene-α-trifluoromethylbenzyl alcohol; wherein the salt is a sulfonate, a sulfinate, or a combination thereof; wherein the chiral inducing agent is selected from chiral aminoalcohol or -2-amino-5-chloro-α-cyclopropyl acetylene-α-trifluoromethylbenzyl alcohol; the chiral auxiliary reagent is selected from trifluoroethanol, trichloroethanol, t-butanol, neopentyl alcohol, triphenylcarbinol, isopropanol, ethanol, methanol, or a combination thereof; the alkaline agent is selected from alkali hydrides.
Method for controlling a compressor comprising at least a last stage (40; 60) and a compressor load controller, a first set point outlet pressure, corresponding to a consumer needed pressure, being given in the compressor load controller, characterised in that it comprises the steps of: a- measuring the temperature at the inlet of the last stage (40; 60), b- measuring the ratio between the outlet pressure (Pout) and the inlet pressure (Pin) of the last stage (40; 60) of the compressor, c- computing a coefficient (Ψ) based at least on the value of the inlet temperature (Tin) and on the measured pressure ratio (Pout/Pin), d- if the computed coefficient (Ψ) is in a predetermined range, changing the first set point outlet pressure by a second set point outlet pressure greater than the first set point outlet pressure until the coefficient (Ψ) computed with the second set point outlet pressure goes out of the predetermined range, and e- adapting the pressure of the fluid coming out of the compressor in a pressure regulator to the first set point outlet pressure corresponding to the consumer needed pressure. a- measuring the temperature at the inlet of the last stage (40; 60), b- measuring the ratio between the outlet pressure (Pout) and the inlet pressure (Pin) of the last stage (40; 60) of the compressor, c- computing a coefficient (Ψ) based at least on the value of the inlet temperature (Tin) and on the measured pressure ratio (Pout/Pin), d- if the computed coefficient (Ψ) is in a predetermined range, changing the first set point outlet pressure by a second set point outlet pressure greater than the first set point outlet pressure until the coefficient (Ψ) computed with the second set point outlet pressure goes out of the predetermined range, and e- adapting the pressure of the fluid coming out of the compressor in a pressure regulator to the first set point outlet pressure corresponding to the consumer needed pressure.