mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a circulating analyte profile of a subject, comprising: contacting a blood sample obtained from a subject with a panel of probes comprising: probes for specific binding to tissue inhibitor of metalloproteinase 1 (TIMP1) and anti-angiopoietin-like protein 3 antibody (anti-ANGPTL3), and, optionally, one or more additional probes for specific binding to analytes selected from the group consisting of: epidermal growth factor receptor (EGFR), pro-surfactant protein B (ProSB), anti-14-3-3 protein theta antibody (anti-YWHAQ), and anti-laminin alpha 1 antibody (anti-LAMR1); and detecting the presence or absence of binding of analytes of the two or more analytes to probes of the panel of probes, to produce a circulating analyte profile of the subject. contacting a blood sample obtained from a subject with a panel of probes comprising: probes for specific binding to tissue inhibitor of metalloproteinase 1 (TIMP1) and anti-angiopoietin-like protein 3 antibody (anti-ANGPTL3), and, optionally, one or more additional probes for specific binding to analytes selected from the group consisting of: epidermal growth factor receptor (EGFR), pro-surfactant protein B (ProSB), anti-14-3-3 protein theta antibody (anti-YWHAQ), and anti-laminin alpha 1 antibody (anti-LAMR1); and detecting the presence or absence of binding of analytes of the two or more analytes to probes of the panel of probes, to produce a circulating analyte profile of the subject.
A connection element for a collision protection system, comprising: a first insertion portion for inserting into a first tubular element; a second insertion portion for inserting into a second tubular element; and a tension spring for connecting the first and second insertion portions (105-1, 105-2); wherein a rod-shaped return element extends inside the first and second insertion portions (105-1, 105-2), is arranged in the center of the first and second insertion portions (105-1, 105-2) and supported at one end of the tension spring. a first insertion portion for inserting into a first tubular element; a second insertion portion for inserting into a second tubular element; and a tension spring for connecting the first and second insertion portions (105-1, 105-2); wherein a rod-shaped return element extends inside the first and second insertion portions (105-1, 105-2), is arranged in the center of the first and second insertion portions (105-1, 105-2) and supported at one end of the tension spring.
Food composition in the form of an oil-in-water emulsion, comprising: • 65 to 85 wt% of vegetable oil, • Water, • Hydrolyzed protein selected from the group consisting of pea protein, lentil protein, chick pea protein, lupine protein and mixtures thereof, wherein the composition is free from egg-derived ingredients, wherein the hydrolysed protein has a degree of hydrolyzation of 2.2 to 5%, according to the TCA test wherein the amount of hydrolysed protein is between 0.5 and 2.5 wt%, based on the weight of the composition, wherein all pea protein, lentil protein, chickpea protein, lupine protein and mixtures thereof in the emulsion consists of hydrolysed protein. • 65 to 85 wt% of vegetable oil, • Water, • Hydrolyzed protein selected from the group consisting of pea protein, lentil protein, chick pea protein, lupine protein and mixtures thereof, wherein the hydrolysed protein has a degree of hydrolyzation of 2.2 to 5%, according to the TCA test wherein the amount of hydrolysed protein is between 0.5 and 2.5 wt%, based on the weight of the composition, wherein all pea protein, lentil protein, chickpea protein, lupine protein and mixtures thereof in the emulsion consists of hydrolysed protein.
A computer-implemented method for creating a surface from a plurality of 3D curves, wherein the method comprises: providing a plurality of 3D curves, determining crossings between pairs of the curves, a crossing between a given pair of curves being an indication of a zone where the given pair of curves are particularly close to each other, wherein determining the crossings includes determining at least one crossing between a respective pair of the curves as a pair of points, each belonging to a different one of the respective pair of the curves, the method comprising projecting the plurality of 3D curves on a support, the support being a surface, thereby obtaining a plurality of corresponding projected curves, determining crossings between pairs of the projected curves, and retrieving the pairs of points of the curves corresponding to the crossings between pairs of the projected curves, defining a base graph comprising nodes representing the crossings and arcs connecting pairs of nodes representing crossings that are neighbors, determining, from the graph, a mesh comprising vertices defined by a 3D position and edges connecting pairs of the vertices, and fitting the mesh with a surface, thereby fitting the surface to the plurality of 3D curves. providing a plurality of 3D curves, determining crossings between pairs of the curves, a crossing between a given pair of curves being an indication of a zone where the given pair of curves are particularly close to each other, wherein determining the crossings includes determining at least one crossing between a respective pair of the curves as a pair of points, each belonging to a different one of the respective pair of the curves, the method comprising projecting the plurality of 3D curves on a support, the support being a surface, thereby obtaining a plurality of corresponding projected curves, determining crossings between pairs of the projected curves, and retrieving the pairs of points of the curves corresponding to the crossings between pairs of the projected curves, defining a base graph comprising nodes representing the crossings and arcs connecting pairs of nodes representing crossings that are neighbors, determining, from the graph, a mesh comprising vertices defined by a 3D position and edges connecting pairs of the vertices, and fitting the mesh with a surface, thereby fitting the surface to the plurality of 3D curves.
Attachment device which is to be attached to a lifting vehicle, having a clamp means comprising at least two correspondingly attached clamps, in particular substantially in a plate form, which are provided for holding and/or transporting a load in a substantially horizontal direction by means of at least one force unit, and are laterally adjustable, having an intermediate fork carrier means, which mediates an adjustment in vertical direction between lifting vehicle and clamp means, wherein at least one force unit is provided on the intermediate fork carrier means, wherein the clamp means together with the load acts on the force unit, whereby a control variable for the force to be exerted by the clamp means can be derived, in particular to this effect, in that a force of the clamps, which increases in particular up to a predetermined limit value, is to be exerted proportional to the load hold by the clamps, the force unit in the intermediate fork carrier means being at least one hydraulic cylinder and/or pneumatic cylinder and/or electric cylinder, which is arranged in a substantially vertical direction, characterized in that the force unit in the intermediate fork carrier means is constructed and arranged with respect to the piston arrangement in the cylinder in such a way that in a basic position of the intermediate fork carrier means, when the load is gripped, the force unit is moved together in an upper stop position and is to be extended subsequently.
Head-up display having an image generator with a light source, a tilted display, an aspheric mirror, an optical system and a transmissive screen, wherein an aspheric lens is arranged between display and aspheric mirror, and wherein a wedge-shaped display glass is provided, characterized in that the display glass is a cooling glass that conducts heat away from the display.
A full charge sensing apparatus for sensing a fully charged state of a secondary battery based on an equivalent circuit model of the secondary battery, the apparatus comprising: a measuring unit (11,12) configured to measure a voltage and a current during charging of the secondary battery; a learning unit configured to perform a learning process on a plurality of parameters in the equivalent circuit model using a result of measurement of the measuring unit; and a determining unit configured to determine that the secondary battery is in a fully charged state in a case where, among the parameters on which the learning process has been performed by the learning unit, a parameter corresponding to a reaction resistance of the secondary battery is greater than a predetermined threshold. a measuring unit (11,12) configured to measure a voltage and a current during charging of the secondary battery; a learning unit configured to perform a learning process on a plurality of parameters in the equivalent circuit model using a result of measurement of the measuring unit; and a determining unit configured to determine that the secondary battery is in a fully charged state in a case where, among the parameters on which the learning process has been performed by the learning unit, a parameter corresponding to a reaction resistance of the secondary battery is greater than a predetermined threshold.
Method for operating a lighting device of a motor vehicle having a light source unit (109; 119) for generating an emission light distribution, - the light source unit (109; 119) being operated in a normal mode on the basis of a wirelessly received control signal, - a loss of the wirelessly received control signal being determined, - the unit being switched into a safety mode if the wirelessly received control signal is lost, the method being characterized in that - the light source unit (109; 119) is operated in the safety mode on the basis of a wirelessly received sensor signal, - a central control unit sends the control signal wirelessly by means of a wireless interface in the normal mode, - a sensor unit sends the sensor signal wirelessly by means of a wireless interface, and - the sensor unit being an axle sensor which transmits a deflection in accordance with the sensor signal wirelessly to the lighting device. - the light source unit (109; 119) being operated in a normal mode on the basis of a wirelessly received control signal, - a loss of the wirelessly received control signal being determined, - the unit being switched into a safety mode if the wirelessly received control signal is lost, the method being characterized in that - the light source unit (109; 119) is operated in the safety mode on the basis of a wirelessly received sensor signal, - a central control unit sends the control signal wirelessly by means of a wireless interface in the normal mode, - a sensor unit sends the sensor signal wirelessly by means of a wireless interface, and - the sensor unit being an axle sensor which transmits a deflection in accordance with the sensor signal wirelessly to the lighting device.
An internal combustion engine comprising: at least one cylinder; a pair of opposed, reciprocating pistons within the cylinder forming a combustion chamber therebetween; a crankshaft positioned at one end of the cylinder, wherein reciprocating motion of the pistons drives the crankshaft; and at least one fuel injector disposed at least partly within the cylinder, the fuel injector having a housing and a nozzle that is positioned within the combustion chamber and through which the fuel is expelled into the combustion chamber; wherein the nozzle of the fuel injector protrudes outwardly from an end face of a housing of the injector in the direction of the cylinder axis so that the nozzle is exposed directly within the combustion chamber and wherein the fuel injector is fixed at the end of the cylinder further from the crankshaft and projects into the cylinder from that end, along or parallel to the central axis of the cylinder, to locate the injector nozzle in a fixed position that is within the combustion chamber when the combustion chamber volume is at its minimum, the fuel injector extending through the piston furthest from the crankshaft and this piston being configured to reciprocate along the housing of the injector. at least one cylinder; a pair of opposed, reciprocating pistons within the cylinder forming a combustion chamber therebetween; a crankshaft positioned at one end of the cylinder, wherein reciprocating motion of the pistons drives the crankshaft; and at least one fuel injector disposed at least partly within the cylinder, the fuel injector having a housing and a nozzle that is positioned within the combustion chamber and through which the fuel is expelled into the combustion chamber; wherein the nozzle of the fuel injector protrudes outwardly from an end face of a housing of the injector in the direction of the cylinder axis so that the nozzle is exposed directly within the combustion chamber and wherein the fuel injector is fixed at the end of the cylinder further from the crankshaft and projects into the cylinder from that end, along or parallel to the central axis of the cylinder, to locate the injector nozzle in a fixed position that is within the combustion chamber when the combustion chamber volume is at its minimum, the fuel injector extending through the piston furthest from the crankshaft and this piston being configured to reciprocate along the housing of the injector.
A colored glass plate made of alkali-containing silica glass containing elements of iron, tin and sulfur, wherein the percentage of the total sulfur calculated as SO 3 is from 0.025% to 0.070% as represented by mass percentage based on oxides, the percentage of divalent iron calculated as Fe 2 O 3 in the total iron calculated as Fe 2 O 3 is from 60 to 80% as represented by mass percentage, the percentage of divalent tin calculated as SnO 2 in the total tin calculated as SnO 2 is at least 0.1% as represented by mol percentage, and the content of the total tin calculated as SnO 2 is from 0.005 to 5% as represented by mass percentage based on oxides.
Tank with a boss structure that enables storing compressed natural gas on vehicles, the boss structure comprising - at least one outer shell, - at least one internal liner which is located in the inner surface of the outer shell which is gripped by the outer shell, - at least one boss part which is located in the outer shell at the entrance part of the tank, - a sealing gasket suitable for a gastight connection of the boss part with a valve, - at least one valve mounting surface to which the valve is mountable, - a sealing surface which provides sealing by interference fitting with gaskets on the valve when the valve is mounted, - at least one flow surface which is designed to enable natural gas flow - a first recess, which is filled with internal liner material preferably produced of plastic and thereby enhances strength of the boss part in the axial direction, and which is located at the parts where the boss part enters into the internal liner at a large diameter area where the boss part is connected with the internal liner at the side surfaces, - a third recess, which is located on the outer surface of a small diameter area of the boss part and which is filled with internal liner material and thereby enhances strength of the boss part in the axial direction, characterized in that the boss structure further comprises - a lower surface, which is located at the area of the boss part where its diameter expands, which is designed such that it will be flat on four sides and which is filled with internal liner material and thereby enhances strength of the boss part in the axial direction. - at least one outer shell, - at least one internal liner which is located in the inner surface of the outer shell which is gripped by the outer shell, - at least one boss part which is located in the outer shell at the entrance part of the tank, - a sealing gasket suitable for a gastight connection of the boss part with a valve, - at least one valve mounting surface to which the valve is mountable, - a sealing surface which provides sealing by interference fitting with gaskets on the valve when the valve is mounted, - at least one flow surface which is designed to enable natural gas flow - a first recess, which is filled with internal liner material preferably produced of plastic and thereby enhances strength of the boss part in the axial direction, and which is located at the parts where the boss part enters into the internal liner at a large diameter area where the boss part is connected with the internal liner at the side surfaces, - a third recess, which is located on the outer surface of a small diameter area of the boss part and which is filled with internal liner material and thereby enhances strength of the boss part in the axial direction, - a lower surface, which is located at the area of the boss part where its diameter expands, which is designed such that it will be flat on four sides and which is filled with internal liner material and thereby enhances strength of the boss part in the axial direction.
An NMR apparatus comprising: an NMR coil configured to enclose a sample; a receiver configured to receive NMR signals from the sample; and a controller configured to analyze the received NMR signals, characterised in that the receiver comprises: a voltage-mode passive mixer configured to down-convert a frequency of the received NMR signals; a baseband output buffer; and a transconductance amplifier coupled to the voltage-mode passive mixer and configured to receive output signals therefrom, the transconductance amplifier being coupled to the baseband output buffer and configured to provide input signals thereto, the transconductance amplifier being configured to present a high-impedance load to the voltage-mode passive mixer and to shield the baseband output buffer from a high-frequency feedthrough. an NMR coil configured to enclose a sample; a receiver configured to receive NMR signals from the sample; and a controller configured to analyze the received NMR signals, characterised in that the receiver comprises: a voltage-mode passive mixer configured to down-convert a frequency of the received NMR signals; a baseband output buffer; and a transconductance amplifier coupled to the voltage-mode passive mixer and configured to receive output signals therefrom, the transconductance amplifier being coupled to the baseband output buffer and configured to provide input signals thereto, the transconductance amplifier being configured to present a high-impedance load to the voltage-mode passive mixer and to shield the baseband output buffer from a high-frequency feedthrough. a voltage-mode passive mixer configured to down-convert a frequency of the received NMR signals; a baseband output buffer; and a transconductance amplifier coupled to the voltage-mode passive mixer and configured to receive output signals therefrom, the transconductance amplifier being coupled to the baseband output buffer and configured to provide input signals thereto, the transconductance amplifier being configured to present a high-impedance load to the voltage-mode passive mixer and to shield the baseband output buffer from a high-frequency feedthrough.
An apparatus for the preparation of acetylene and synthesis gas by partial oxidation of hydrocarbons with oxygen, comprising a reactor, wherein the reactor comprises a burner block with a furnace chamber for the preparation of a composition C1 comprising at least acetylene and substituted acetylene, a first scrubber which is constructed for adding a solvent to the composition C1 to obtain a composition C2, a second scrubber which is constructed for adding a solvent to the composition C2 to obtain a composition C3, a first stripper which is constructed for stripping the composition C3 to obtain a composition C4 comprising the substituted acetylene, acetylene and the solvent and for separating off the acetylene, a first column which is constructed for partial degassing of the composition C4 under a pressure of from 1.0 bar to 1.5 bar to obtain a composition C5, a composition C10 and a first amount A1 of the solvent, a second stripper to which the composition C5 can be fed for stripping a composition C9 to obtain a second amount A2 of the solvent and a composition C6, a third stripper which is constructed for stripping the solvent from the first scrubber to obtain a composition C9, the third stripper being connected to the second stripper for feeding the composition C9 to the second stripper, wherein an apparatus for adding a diluting gas to the composition C5 is arranged between the first column and the second stripper, a second column which is constructed for adding water to the composition C6 to obtain a composition C7 comprising a third amount A3 of the solvent and water and to obtain a composition C8 comprising the substituted acetylene, and a mixing condenser which is constructed for adding water to the composition C8 to obtain a composition C11 comprising the substituted acetylene.
A child car seat with side impact protection, comprising at least one element absorbing and/or transmitting energy which is arranged and designed to be transferred from a rest position to a functioning position to absorb a laterally impacting energy in the functioning position, characterized in that said element absorbing and/or transmitting energy is designed substantially cylinder-shaped.
A dilator comprising a first section, a second section, a third section, and a fourth section which have different diameters from each other and are formed to be adjacent to each other in an axial direction, in that order from a distal end to a proximal end in the axial direction, characterized in that an angle (α 1) formed by an outer periphery surface of the first section with respect to the axial direction is smaller than an angle (α 2) formed by an outer periphery surface of the second section with respect to the axial direction, the angle (α 2) formed by the outer periphery surface of the second section with respect to the axial direction is larger than an angle (α 3) formed by an outer periphery surface of the third section with respect to the axial direction, and the angle (α 3) formed by the outer periphery surface of the third section with respect to the axial direction is smaller than an angle (α 4) formed by an outer periphery surface of the fourth section with respect to the axial direction.