mhurhangee/ep-ind-claims huggingface dataset:
A Tug-of-war apparatus capable of supporting up to 8 users at any one time for competition and training comprising; at least one frame section supporting a horizontal movable surface comprising a continuous running belt mounted between rollers (8, 9) on the frame section wherein one of the rollers comprises a drive shaft; at least one stationary upright support means attached to the front of the frame section; at least one pulling rope extending substantially horizontally from the stationary support means; and means for determining the distance the movable surface has moved. wherein the frame section comprises a solid under-belt support directly beneath the movable surface to support the users on the movable surface and weighing means attached to the under-belt support for determining the weight of the users on the movable surface. at least one frame section supporting a horizontal movable surface comprising a continuous running belt mounted between rollers (8, 9) on the frame section wherein one of the rollers comprises a drive shaft; at least one stationary upright support means attached to the front of the frame section; at least one pulling rope extending substantially horizontally from the stationary support means; and means for determining the distance the movable surface has moved.
A polypeptide comprising an immunoglobulin single variable domain that can bind HGF represented by SEQ ID NO: 1 with a Kd of less than 50nM and an immunoglobulin single variable domain binding human serum albumin such as e.g. Alb8 represented by SEQ ID NO: 115 or Alb11 represented by SEQ ID NO: 114, wherein the immunoglobulin single variable domain that can bind HGF comprises an amino acid sequence of formula 1: FR1 - CDR1 - FR2 - CDR2 - FR3 - CDR3 - FR4; wherein CDR1 is SEQ ID NO: 40, CDR2 is SEQ ID NO: 64; and CDR3 is SEQ ID NO: 88; or wherein CDR1 is SEQ ID NO: 45, CDR2 is SEQ ID NO: 69; and CDR3 is SEQ ID NO: 93.
A method of manufacturing molten iron, the method comprising: manufacuturing of a coal briquettes; providing the coal brequettes manufactured; providing reduced iron made by reducing iron ore in a reducing furnace; and providing molten iron by inputting the coal briquettes and the reduced iron into a melting and gasifying furnace, wherein manufacturing coal briquettes comprising: i) providing powdered coal; ii) mixing the powdered coal with a powdered binder and providing a mixture; iii) adding water to the mixture; iv) providing coal briquettes by compressing and molding the mixture to which the water is added; and v) performing a heat treatment of heating the coal briquettes to improve compressive strength of the coal briquettes, wherein the powdered binder includes at least one compound selected from a group consisting of methyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, hydroxypropylmethyl cellulose (HPMC), and hydroxyethylmethyl cellulose (HEMC), wherein in the performing of the heat treatment, the coal briquette is heated at a temperature of 80 to 150°C for 1 to 24 hours. manufacuturing of a coal briquettes; providing the coal brequettes manufactured; providing reduced iron made by reducing iron ore in a reducing furnace; and providing molten iron by inputting the coal briquettes and the reduced iron into a melting and gasifying furnace, wherein manufacturing coal briquettes comprising: i) providing powdered coal; ii) mixing the powdered coal with a powdered binder and providing a mixture; iii) adding water to the mixture; iv) providing coal briquettes by compressing and molding the mixture to which the water is added; and v) performing a heat treatment of heating the coal briquettes to improve compressive strength of the coal briquettes, i) providing powdered coal; ii) mixing the powdered coal with a powdered binder and providing a mixture; iii) adding water to the mixture; iv) providing coal briquettes by compressing and molding the mixture to which the water is added; and v) performing a heat treatment of heating the coal briquettes to improve compressive strength of the coal briquettes, wherein the powdered binder includes at least one compound selected from a group consisting of methyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, hydroxypropylmethyl cellulose (HPMC), and hydroxyethylmethyl cellulose (HEMC), wherein in the performing of the heat treatment, the coal briquette is heated at a temperature of 80 to 150°C for 1 to 24 hours.
A filter for use in a method for dispelling tobacco addiction, characterized in that the filter comprises theanine and glutamic acid as active ingredients.
Combustion chamber having a rotationally symmetrical load-bearing structure (21,31), which (21,31) has multiple peripheral fastening grooves spaced apart in a longitudinal direction and serving for attachment of fastening means, and having a plurality of heat-shield elements, which are arranged on the load-bearing structure (21,31) so as to run around peripherally in rows and which surround a combustion chamber and which are produced from a ceramic material and which have a hot side, which is arranged oriented towards the combustion chamber, and have an oppositely situated cold side, which is arranged oriented towards the load-bearing structure (21,31), and have a longitudinal direction and a transverse direction, wherein the hot side is connected to the cold side via two oppositely situated longitudinal edges (04,14), which extend along the longitudinal direction, and via two transverse edges, which extend along the transverse direction, wherein the longitudinal edges (04,14) each have at least one fastening receptacle (06,16), wherein the heat-shield elements are fastened to the load-bearing structure by means of fastening means, wherein at least one peripheral row of heat-shield tiles (01,11) is formed, wherein at least one fixing recess (07,17), which (07,17) allows the heat-shield tile (01,11) to be fixed in the longitudinal direction, is arranged on the cold side, wherein the load-bearing structure (21,31) directly or indirectly has at least one fixing elevation (23,33) which engages into a fixing recess (07,17), wherein the load-bearing structure has at least one peripheral fixing elevation which is arranged between two fastening grooves; or wherein the load-bearing structure has multiple fixing elevations which are spaced apart from one another in the transverse direction and which are formed by mounted centring elements, characterized in that the fixing recess extends in the transverse direction over at least 0.1 times the width of the heat-shield tile. wherein the load-bearing structure (21,31) directly or indirectly has at least one fixing elevation (23,33) which engages into a fixing recess (07,17), wherein the load-bearing structure has at least one peripheral fixing elevation which is arranged between two fastening grooves; or wherein the load-bearing structure has multiple fixing elevations which are spaced apart from one another in the transverse direction and which are formed by mounted centring elements, characterized in that the fixing recess extends in the transverse direction over at least 0.1 times the width of the heat-shield tile.
Ventilating apparatus for rooms, with a housing, in particular for installation in a window or door, with a sash frame and/or leaf frame (3,4), wherein the housing contains at least several longitudinally extended extruded profiles (6,7,8,9,10,11) and two face caps, and with which each extruded profile (6,7,8,9,10,11) consists optionally of a light metal or plastic, that the housing contains at least one housing module with an air conduit, a closure drive, and at least one mounting element, which can be coupled by means of positive fit or non-positive fit connections, characterized in that the mounting element is configured as a rectangular block, wherein, at an upright outer surface and inner surface (201,202) and at the face surfaces of the rectangular block, corresponding to the shaped parts, projections (204,205) and/or profile slots (206,207) are provided.
A metallic-composite joint fitting, comprising: a composite structure; and an integral bearing comprising a first frustoconical portion and a second frustoconical portion each having a complimentary shape to the composite structure; and characterized by further comprising: a sleeve comprising a bearing surface portion and a third frustoconical portion, wherein the sleeve is coupled to the integral bearing at a cylindrical bearing surface of the integral bearing, wherein the bearing surface portion comprises a cylindrical structure defined by the diameter of the cylindrical bearing surface and wherein the third frustoconical portion is coupled to the first frustoconical portion and the bearing surface portion; and a metallic end fitting coupled to the third frustoconical portion, wherein the metallic end fitting comprises a bearing portion contacting the bearing surface portion of the sleeve and engaging with the cylindrical bearing surface via the bearing surface portion of the sleeve. a composite structure; and an integral bearing comprising a first frustoconical portion and a second frustoconical portion each having a complimentary shape to the composite structure; and characterized by further comprising: a sleeve comprising a bearing surface portion and a third frustoconical portion, wherein the sleeve is coupled to the integral bearing at a cylindrical bearing surface of the integral bearing, wherein the bearing surface portion comprises a cylindrical structure defined by the diameter of the cylindrical bearing surface and wherein the third frustoconical portion is coupled to the first frustoconical portion and the bearing surface portion; and a metallic end fitting coupled to the third frustoconical portion, wherein the metallic end fitting comprises a bearing portion contacting the bearing surface portion of the sleeve and engaging with the cylindrical bearing surface via the bearing surface portion of the sleeve. a sleeve comprising a bearing surface portion and a third frustoconical portion, wherein the sleeve is coupled to the integral bearing at a cylindrical bearing surface of the integral bearing, wherein the bearing surface portion comprises a cylindrical structure defined by the diameter of the cylindrical bearing surface and wherein the third frustoconical portion is coupled to the first frustoconical portion and the bearing surface portion; and a metallic end fitting coupled to the third frustoconical portion, wherein the metallic end fitting comprises a bearing portion contacting the bearing surface portion of the sleeve and engaging with the cylindrical bearing surface via the bearing surface portion of the sleeve.
A method for producing a nitrobenzene compound represented by general formula: (wherein R 1 and R 5 are the same or different, and each is a halogen atom, a C1 to C4 alkoxycarbonyl group, a C1 to C4 alkyl group, a C1 to C4 alkoxy group, or a C1 to C4 alkoxy C1 to C4 alkyl group, and R 2, R 3, and R 4 are the same or different, and each is a hydrogen atom, a halogen atom, a C1 to C4 alkyl group, a C1 to C4 alkoxy group, or a C1 to C4 haloalkyl group) comprising oxidizing an aniline compound represented by general formula: (wherein R 1, R 2, R 3, R 4, and R 5 are the same as described above) with hydrogen peroxide in the presence of a tungsten compound under an acidic condition, followed by oxidation with hydrogen peroxide under a neutral to alkaline condition.
A filter for a cathode arc source, said filter comprising: a filter duct having two bends (104a, 104b), and a first magnetic field source for steering plasma through the filter duct for removal of macroparticles from the plasma; characterised in that the apparatus comprises a second magnetic field source which is rotatably mounted surrounding a portion of the filter duct between the two bends (104a, 104b). a filter duct having two bends (104a, 104b), and a first magnetic field source for steering plasma through the filter duct for removal of macroparticles from the plasma;
A method for the purification and/or separation of a virus from a sample comprising the steps of - mixing the sample containing the virus with a non-ionic organic polymer, - contacting the mixture of the sample containing the virus and the non-ionic organic polymer with a hydrophilic membrane; - optionally washing the hydrophilic membrane with a washing solution containing the non-ionic organic polymer; and - eluting the virus from the hydrophilic membrane with an elution solution containing no or a reduced amount of the non-ionic organic polymer used for the binding thereby obtaining a purified virus composition. - mixing the sample containing the virus with a non-ionic organic polymer, - contacting the mixture of the sample containing the virus and the non-ionic organic polymer with a hydrophilic membrane; - optionally washing the hydrophilic membrane with a washing solution containing the non-ionic organic polymer; and - eluting the virus from the hydrophilic membrane with an elution solution containing no or a reduced amount of the non-ionic organic polymer used for the binding thereby obtaining a purified virus composition.
Pressure-resistantpiston media separator, wherein the pressure-resistantpiston media separator has a first piston cylinder with a first piston, wherein the piston media separator has a first region and a second region, wherein the first region is separated from the second region by the first piston, wherein the first region is in contact with the environment, wherein the second region can be connected to a hydraulic system, wherein the pressure-resistant piston media separator has a piston rod, wherein the piston rod is connected to the first piston, wherein the pressure-resistant piston media separator has a second piston cylinder and a second piston, wherein the second piston is connected to the piston rod, wherein the pressure-resistant piston media separator has a third region, wherein the third region is a sealed gas volume, wherein the third region can be resized by the second piston, wherein the third region comprises the fourth region and a fifth region, wherein the fourth region is arranged within the second piston cylinder, wherein the fifth region is arranged outside the second piston cylinder, wherein the fourth region and the fifth region are connected to one another in a gas-conducting manner, characterised in that the first piston has a first seal against the first region and a second seal against the second region, wherein the first piston has a test cavity located between the first seal and the second seal, wherein the first piston and the piston rod have a feedthrough, wherein the feedthrough connects the test cavity to the side of the second piston facing away from a fourth region.
A timepiece comprising a solar battery and a cover glass, the cover glass covering the solar battery, the cover glass comprising an antireflective layer formed on both sides of the timepiece cover glass, wherein (i) formula below is satisfied by the antireflective layer: f x y z ≤ 40 where f(x, y, z) expresses the absolute value of the difference between the maximum value and minimum value among x, y, and z; x represents a wavelength, expressed in nanometres, exhibiting a minimum reflectance in a reflectance curve based on the antireflective layer, y represents a maximum sensitivity wavelength, expressed in nanometres, of the solar battery, and z represents a maximum visible sensitivity wavelength expressed in nanometres, and has a value of 550 nm; and (ii) the luminous reflectance of the antireflective layer is 0.6% or less. (i) formula below is satisfied by the antireflective layer: f x y z ≤ 40 where f(x, y, z) expresses the absolute value of the difference between the maximum value and minimum value among x, y, and z; x represents a wavelength, expressed in nanometres, exhibiting a minimum reflectance in a reflectance curve based on the antireflective layer, y represents a maximum sensitivity wavelength, expressed in nanometres, of the solar battery, and z represents a maximum visible sensitivity wavelength expressed in nanometres, and has a value of 550 nm; and where f(x, y, z) expresses the absolute value of the difference between the maximum value and minimum value among x, y, and z; x represents a wavelength, expressed in nanometres, exhibiting a minimum reflectance in a reflectance curve based on the antireflective layer, y represents a maximum sensitivity wavelength, expressed in nanometres, of the solar battery, and z represents a maximum visible sensitivity wavelength expressed in nanometres, and has a value of 550 nm; and (ii) the luminous reflectance of the antireflective layer is 0.6% or less.
A thermal recording material comprising: - a base layer; - one or more undercoat layers which is/are laid down on the base layer; - a thermo-sensitive coloring layer which is laid down on the uppermost undercoat layer, on the opposite side with respect to the base layer; and - one or more protective layers which is/are laid down on the thermo-sensitive coloring layer, on the opposite side with respect to the undercoat layer(s), wherein one or more of said protective layer(s) and/or said thermosensitive layer contains a chelating agent whose structure is given by following general formula: wherein R 1 is a linear alkyl group of 1 to 8 carbon atoms, optionally substituted with one or more carboxyl groups -CO 2 M, wherein M is hydrogen, ammonium or substituted ammonium, alkali metal, alkaline earth metal or a combination thereof. - a base layer; - one or more undercoat layers which is/are laid down on the base layer; - a thermo-sensitive coloring layer which is laid down on the uppermost undercoat layer, on the opposite side with respect to the base layer; and - one or more protective layers which is/are laid down on the thermo-sensitive coloring layer, on the opposite side with respect to the undercoat layer(s), wherein one or more of said protective layer(s) and/or said thermosensitive layer contains a chelating agent whose structure is given by following general formula: wherein R 1 is a linear alkyl group of 1 to 8 carbon atoms, optionally substituted with one or more carboxyl groups -CO 2 M, wherein M is hydrogen, ammonium or substituted ammonium, alkali metal, alkaline earth metal or a combination thereof.
A rotary connector device comprising: a stator including a first stator main body and a second stator main body that is a separate member from the first stator main body and is coupled to the first stator main body; and a rotation body provided rotatably about a rotational axis with respect to the stator; wherein the stator and the rotation body define a cable housing space between the stator and the rotation body, the cable housing space being provided to surround the rotational axis, the second stator main body (30, 230) includes a first wall extending along an axial direction parallel to the rotational axis and a second wall extending along the axial direction and spaced apart from the first wall in a radial direction perpendicular to the rotational axis, the first wall is disposed between the cable housing space and the second wall in the radial direction, and the first stator main body includes an intermediate wall extending along the axial direction and disposed between the first wall and the second wall in the radial direction, characterized in that the intermediate wall includes an intermediate outer peripheral surface and an intermediate recess provided on the intermediate outer peripheral surface, and the second wall includes a protrusion disposed in the intermediate recess. a stator including a first stator main body and a second stator main body that is a separate member from the first stator main body and is coupled to the first stator main body; and a rotation body provided rotatably about a rotational axis with respect to the stator; wherein the stator and the rotation body define a cable housing space between the stator and the rotation body, the cable housing space being provided to surround the rotational axis, the second stator main body (30, 230) includes a first wall extending along an axial direction parallel to the rotational axis and a second wall extending along the axial direction and spaced apart from the first wall in a radial direction perpendicular to the rotational axis, the first wall is disposed between the cable housing space and the second wall in the radial direction, and the first stator main body includes an intermediate wall extending along the axial direction and disposed between the first wall and the second wall in the radial direction, characterized in that the intermediate wall includes an intermediate outer peripheral surface and an intermediate recess provided on the intermediate outer peripheral surface, and
An isolated antibody that specifically binds to an amino acid sequence depicted at SEQ ID NO:1, or to an immunogenic fragment of SEQ ID NO:1 comprising at least seven contiguous amino acids from SEQ ID NO:1.
Modular assembly, comprising at least two housing parts in which in each case a circuit board is received, at least one internal connecting means, a cover element and a closing element, wherein each housing part is formed from a base plate, a rear wall and side walls that are connected to said rear wall, wherein the housing parts are stacked in such a manner that the side walls combine to form a first and a second complete side wall and that the rear walls combine to form a complete rear wall, wherein at least two of the housing parts are stacked in such a manner that the base plate of the one housing part is connected to the side walls of the other housing part, wherein the at least one internal connecting means extends in a direction perpendicular to the base plates and connects multiple circuit boards by way of first connectors, wherein the cover element lies on the side walls precisely of a housing part, characterized in that the closing element is attached to a front side of the housing parts, said front side lying opposite the complete rear wall, wherein at least one circuit board extends into the closing housing, wherein an expansion plate is attached to at least one circuit board, said expansion plate being located in the closing housing, wherein a recess is provided between the circuit board and the expansion plate for feeding through at least one of the internal connecting means, wherein the at least one of the internal connecting means is connected by way of first connectors to multiple circuit boards or to multiple expansion plates or to both at least one circuit board as well as at least one expansion plate.
An aerosol-generating system, the system comprising: a liquid storage portion for storing liquid aerosol-forming substrate; a vaporiser comprising a heating element having a structure defining an open-ended internal passage; a micro pump configured for delivering liquid aerosol-forming substrate from the liquid storage portion to the internal passage of the heating element; and a tubing segment through which the liquid aerosol-forming substrate is delivered from the micro pump to the vaporiser; wherein the heating element comprises a conical heating element extending from the tubing segment in a longitudinal direction and the vaporiser is configured for heating the delivered liquid aerosol-forming substrate at the internal passage to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate. a liquid storage portion for storing liquid aerosol-forming substrate; a vaporiser comprising a heating element having a structure defining an open-ended internal passage; a micro pump configured for delivering liquid aerosol-forming substrate from the liquid storage portion to the internal passage of the heating element; and a tubing segment through which the liquid aerosol-forming substrate is delivered from the micro pump to the vaporiser; wherein the heating element comprises a conical heating element extending from the tubing segment in a longitudinal direction and the vaporiser is configured for heating the delivered liquid aerosol-forming substrate at the internal passage to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate.