mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly kit comprising: a first turbocharger component flange that comprises receptacles spaced according to a first interval angle; a second turbocharger component flange that comprises receptacles spaced according to a second interval angle that differs from the first interval angle; and a piece configured for receipt by a receptacle of the first component and a receptacle of the second component, wherein alignment of the receptacles determines a rotational orientation angle of the first component with respect to the second component, wherein: the receptacles of the first component comprise holes; the receptacles of the second component comprise wells; and the piece comprises a pin. a first turbocharger component flange that comprises receptacles spaced according to a first interval angle; a second turbocharger component flange that comprises receptacles spaced according to a second interval angle that differs from the first interval angle; and a piece configured for receipt by a receptacle of the first component and a receptacle of the second component, wherein alignment of the receptacles determines a rotational orientation angle of the first component with respect to the second component, wherein: the receptacles of the first component comprise holes; the receptacles of the second component comprise wells; and the piece comprises a pin. the receptacles of the first component comprise holes; the receptacles of the second component comprise wells; and the piece comprises a pin.
A method for inactivating or reducing an amount of a biological contaminant in a human milk product comprising exposing the human milk product to ultraviolet light (UV) having a wavelength from 250nm to 270nm, and imparting a vortical flow to the human milk product to facilitate exposure of the biological contaminant to the UV light; wherein said exposure inactivates or reduces the amount of the biological contaminant in the human milk product; and wherein an activity of a bioactive component present in the milk product is not substantially reduced, such that after inactivation of the biological contaminant by UV light exposure, the activity of the bioactive component present in the human milk product is at least 50% of the activity of the bioactive component before UV light exposure.
A method of analyzing a population of cells, comprising: i) determining a plurality of locations occupied by individual cells in an array of cells on a substrate, wherein the cells are labeled with one or more metal-based mass tags and are separated from one another so that individual cells do not contact one another in the array; ii) measuring, using secondary ion mass spectrometry (SIMS), an abundance of the one or more mass tags at the plurality of locations occupied by the cells, thereby generating, for each individual cell measured, a set of data; and iii) outputting the set of data for each of the cells analyzed; wherein the cells are not human embryonic cells. i) determining a plurality of locations occupied by individual cells in an array of cells on a substrate, wherein the cells are labeled with one or more metal-based mass tags and are separated from one another so that individual cells do not contact one another in the array; ii) measuring, using secondary ion mass spectrometry (SIMS), an abundance of the one or more mass tags at the plurality of locations occupied by the cells, thereby generating, for each individual cell measured, a set of data; and iii) outputting the set of data for each of the cells analyzed;
An ether represented by the following chemical formula : in said chemical formula , R 4 is a straight chain or branched alkyl group having 1 - 12 carbon atoms, a straight chain or branched alkenyl group having 2 - 12 carbon atoms, a straight chain or branched alkynyl group having 2 - 12 carbon atoms, an aryl group having 5 - 24 carbon atoms, a straight chain or branched arylalkyl group having 6 - 30 carbon atoms, a cycloalkyl group having 3 - 24 carbon atoms, a cycloalkenyl group having 3 - 24 carbon atoms, a straight chain or branched cycloalkylalkyl group having 4 - 30 carbon atoms, a straight chain or branched cyclylalkyl group having 4 - 30 carbon atoms, or a straight chain or branched alkoxyalkyl group having 2 - 30 carbon atoms, n is 1, L 1 is an ethylene group (-CH 2 CH 2 -), and [D 1 ] is a cyano group, an enantiomer thereof, a tautomer or stereoisomer thereof or a salt thereof. R 4 is a straight chain or branched alkyl group having 1 - 12 carbon atoms, a straight chain or branched alkenyl group having 2 - 12 carbon atoms, a straight chain or branched alkynyl group having 2 - 12 carbon atoms, an aryl group having 5 - 24 carbon atoms, a straight chain or branched arylalkyl group having 6 - 30 carbon atoms, a cycloalkyl group having 3 - 24 carbon atoms, a cycloalkenyl group having 3 - 24 carbon atoms, a straight chain or branched cycloalkylalkyl group having 4 - 30 carbon atoms, a straight chain or branched cyclylalkyl group having 4 - 30 carbon atoms, or a straight chain or branched alkoxyalkyl group having 2 - 30 carbon atoms, n is 1, L 1 is an ethylene group (-CH 2 CH 2 -), and [D 1 ] is a cyano group,
Attachment optics assembly for a partial high-beam module for a motor vehicle headlight , comprising a plurality of light guides arranged in a row, each of which has a light inlet surface and a light outlet surface and is designed to guide light entering the light inlet surface to the light outlet surface , and comprising an attachment optics main body which contains first light guides of the row of light guides , and comprising an insert part which is produced separately from the attachment optics main body and contains second light guides of the row of light guides , a light guide that is nearest to a first light guide in the row being a second light guide , and a light guide that is nearest to a second light guide in the row being a first light guide , the attachment optics assembly comprising a reflective panel for the motor vehicle headlight , and the insert part being arranged between the reflective panel and the main body , characterized in that the reflective panel is resiliently latched to the main body at two different points so as to span the insert part .
A wheel hub comprising: - a one-piece outer ring having at least one outer race turned radially inward and defining a reference axis of the wheel hub and a tubular cavity , and a flange provided with holes for fixing a wheel rim ; and - a centring piece integral with the outer ring and having at least one mounting zone inserted in the outer ring , and a first centring zone projecting axially outwardly with respect to the outer ring , and having a first cylindrical centring bearing surface facing radially outwardly, characterized in that the centring piece has a solid bottom wall closing an axial end of the cavity . - a one-piece outer ring having at least one outer race turned radially inward and defining a reference axis of the wheel hub and a tubular cavity , and a flange provided with holes for fixing a wheel rim ; and - a centring piece integral with the outer ring and having at least one mounting zone inserted in the outer ring , and a first centring zone projecting axially outwardly with respect to the outer ring , and having a first cylindrical centring bearing surface facing radially outwardly,
A dye-sensitized solar cell unit (1;1') comprising: - a working electrode comprising a porous light-absorbing layer , - a porous first conductive layer including conductive material for extracting photo-generated electrons from the light-absorbing layer , wherein the light-absorbing layer is arranged on top of the first conductive layer, - a porous insulating layer made of an insulating material, wherein the first conductive layer is formed on one side of the porous insulating layer , - a counter electrode comprising a porous catalytic conductive layer (106; 106') formed on the opposite side of the porous insulating layer , and - an ionic based electrolyte for transferring electrons from the counter electrode to the working electrode and arranged in pores of the porous first conductive layer , the porous catalytic conductive layer (106; 106'), and the porous insulating layer , wherein the first conductive layer comprises an insulating oxide layer formed on the surfaces of the conductive material, and the porous catalytic conductive layer (106; 106') comprises conductive material and catalytic particles (107") distributed in the conductive material for improving the transfer of electrons from the conductive material to the electrolyte, characterized in that the thickness of said insulating oxide layer is between 10 and 200 nm, such that the solar cell unit (1;1') generates a voltage varying less than 40% when the light intensity received by the light-absorbing layer is varying between 200 and 50 000 Lux. - a working electrode comprising a porous light-absorbing layer , - a porous first conductive layer including conductive material for extracting photo-generated electrons from the light-absorbing layer , wherein the light-absorbing layer is arranged on top of the first conductive layer, - a porous insulating layer made of an insulating material, wherein the first conductive layer is formed on one side of the porous insulating layer , - a counter electrode comprising a porous catalytic conductive layer (106; 106') formed on the opposite side of the porous insulating layer , and - an ionic based electrolyte for transferring electrons from the counter electrode to the working electrode and arranged in pores of the porous first conductive layer , the porous catalytic conductive layer (106; 106'), and the porous insulating layer , wherein the first conductive layer comprises an insulating oxide layer formed on the surfaces of the conductive material, and the porous catalytic conductive layer (106; 106') comprises conductive material and catalytic particles (107") distributed in the conductive material for improving the transfer of electrons from the conductive material to the electrolyte, characterized in that the thickness of said insulating oxide layer is between 10 and 200 nm, such that the solar cell unit (1;1') generates a voltage varying less than 40% when the light intensity received by the light-absorbing layer is varying between 200 and 50 000 Lux.
Arrangement comprising an electrical device , in particular a converter or an inverter, and a component, the electrical device comprising a cooling member , a base plate being fastened to the cooling member , and the component being connected to a first or second adapter plate fastened to the base plate , the base plate in particular being pressed onto the cooling member by the screw head of a screw that is screwed into a threaded bore in the cooling member, characterised in that the base plate acts as a shielding plate, the base plate being electrically connected to the cooling member , which is metallic, the base plate being used for retaining a power supply cable, the component being connected to the first or second adapter plate in a heat-conducting manner. the electrical device comprising a cooling member , a base plate being fastened to the cooling member , and the component being connected to a first or second adapter plate fastened to the base plate , the base plate in particular being pressed onto the cooling member by the screw head of a screw that is screwed into a threaded bore in the cooling member, characterised in that the base plate acts as a shielding plate, the base plate being electrically connected to the cooling member , which is metallic, the base plate being used for retaining a power supply cable, the component being connected to the first or second adapter plate in a heat-conducting manner.
A suspension for a receiver in a hearing device, the suspension comprising: - a receiver holding part forming a receiver compartment, and - a damping structure with a body and a receiver base , the body comprising a first body part , the damping structure having an inner surface forming a sound duct in the damping structure , the sound duct extending through the first body part , the damping structure having a first opening at a first sound duct end , the first opening configured for connecting an output port of the receiver to the sound duct , the damping structure having a second opening at a second sound duct end , the sound duct providing a sound path for conveying sound energy from the receiver through the damping structure to the second opening , the first body part extending from the receiver base , wherein the damping structure comprises at least a first damping element extending separate from and in parallel to the first body part , characterised in that the first damping element extends from the receiver base to the body forming a gap between the first damping element and the first body part ; wherein the first damping element , in a first cross section, perpendicular to a first longitudinal axis (X 1 ) of a first sound duct part in the first body part , covers an area of less than 10% of an area of the receiver base ; wherein a first outer surface of the first body part in a cross section perpendicular to the sound duct is non-circular; and wherein the damping structure comprises a mounting element at the second opening for mounting the suspension to a structural frame of a hearing device. - a receiver holding part forming a receiver compartment, and - a damping structure with a body and a receiver base , the body comprising a first body part , the damping structure having an inner surface forming a sound duct in the damping structure , the sound duct extending through the first body part , the damping structure having a first opening at a first sound duct end , the first opening configured for connecting an output port of the receiver to the sound duct , the damping structure having a second opening at a second sound duct end , the sound duct providing a sound path for conveying sound energy from the receiver through the damping structure to the second opening , the first body part extending from the receiver base , wherein the damping structure comprises at least a first damping element extending separate from and in parallel to the first body part ,
Device for a quantum circuit simulator , the device being configured to: obtain a first sequence of quantum gates, which when executed on the quantum circuit simulator require performing matrix-vector multiplications on the quantum circuit simulator , generate a second sequence of quantum gates, which is a subsequence of the first sequence of quantum gates, by implementing a first greedy algorithm with backtracking, calculate a local qubits set and a global qubits set based on the second sequence of quantum gates, generate a set of clusters of quantum gates based on the second sequence of quantum gates, wherein each cluster includes a subset of the quantum gates of the second sequence of quantum gates merged together by implementing a second greedy algorithm without backtracking, generate a third sequence of quantum gates, which contains all quantum gates from the second sequence of quantum gates, according to an order of the clusters , provide the local qubits set and the global qubits set to the quantum circuit simulator , and output the third sequence of quantum gates to the quantum circuit simulator, wherein the device is further configured to, when generating the set of clusters of quantum gates: order a cluster including more quantum gates before a cluster including less quantum gates in the order of the clusters . obtain a first sequence of quantum gates, which when executed on the quantum circuit simulator require performing matrix-vector multiplications on the quantum circuit simulator , generate a second sequence of quantum gates, which is a subsequence of the first sequence of quantum gates, by implementing a first greedy algorithm with backtracking, calculate a local qubits set and a global qubits set based on the second sequence of quantum gates, generate a set of clusters of quantum gates based on the second sequence of quantum gates, wherein each cluster includes a subset of the quantum gates of the second sequence of quantum gates merged together by implementing a second greedy algorithm without backtracking, generate a third sequence of quantum gates, which contains all quantum gates from the second sequence of quantum gates, according to an order of the clusters , provide the local qubits set and the global qubits set to the quantum circuit simulator , and output the third sequence of quantum gates to the quantum circuit simulator, wherein the device is further configured to, when generating the set of clusters of quantum gates: order a cluster including more quantum gates before a cluster including less quantum gates in the order of the clusters .
A method comprising: designating (S401) a vehicle ; determining (S402) a position of the designated vehicle ; determining (S403) a route for the designated vehicle including segments with one or more waypoints; determining (S404) a planned route for another vehicle by using a rectangle and a next rectangle with one side of the rectangle and one side of the next rectangle being consecutive segments of the route of the designated vehicle ; determining in an inner curve and in an outer curve of the other vehicle relative to the designated vehicle other substantially parallel sides of the rectangle and of the next rectangle representing segments of the planned route of the other vehicle ; causing to change the planned route of the other vehicle in an outer curve by adding a segment in a gap between an end point of other substantially parallel side of the rectangle and a start point of other substantially parallel side of the next rectangle; and causing to change (S405) waypoints of the planned route of the other vehicle in an inner curve to a crossing point between the other substantially parallel side of the rectangle relating to the other vehicle and the other substantially parallel side of the next rectangle relating to the other vehicle as a new waypoint. designating (S401) a vehicle ; determining (S402) a position of the designated vehicle ; determining (S403) a route for the designated vehicle including segments with one or more waypoints; determining (S404) a planned route for another vehicle by using a rectangle and a next rectangle with one side of the rectangle and one side of the next rectangle being consecutive segments of the route of the designated vehicle ; determining in an inner curve and in an outer curve of the other vehicle relative to the designated vehicle other substantially parallel sides of the rectangle and of the next rectangle representing segments of the planned route of the other vehicle ; causing to change the planned route of the other vehicle in an outer curve by adding a segment in a gap between an end point of other substantially parallel side of the rectangle and a start point of other substantially parallel side of the next rectangle; and causing to change (S405) waypoints of the planned route of the other vehicle in an inner curve to a crossing point between the other substantially parallel side of the rectangle relating to the other vehicle and the other substantially parallel side of the next rectangle relating to the other vehicle as a new waypoint.
A mobile machine tool , namely, a hand-held machine tool or semi-stationary machine tool for machining a workpiece (W), wherein the machine tool comprises a guide element having a guide surface for relatively guiding the machine tool and a workpiece surface (WO) of the workpiece (W) towards one another along a machining path (BA), in particular a machining line, wherein the machine tool comprises a drive unit having a drive motor for driving a tool receptacle arranged on the drive unit for receiving a work tool , wherein the machine tool comprises a detection device for detecting at least one workpiece reference (RB, RE) which is assigned, with respect to a machining path (BA), to a machining start point (BB) where the work tool is intended to start the machining of the workpiece (W) or to a machining end point (BE) where the work tool is intended to end the machining of the workpiece (W), wherein the tool receptacle is designed for rotationally driving the work tool about an axis of rotation (D) and for adjusting the penetration depth of the work tool into the workpiece (W) by means of a depth adjustment device of the machine tool between depth adjustment positions (T1, T2, T3), wherein the work tool has, on its radially outer circumference , a cutting region for cutting into the workpiece (W), thereby forming a machining edge (KB, KE) which is at different distances from the at least one workpiece reference (RB, RE) depending on at least two depth adjusting positions (T1, T2, T3) in which the work tool projects at different distances from the guide surface , characterized in that in that the machine tool comprises a depth adjustment device for determining a distance value (DB) of the distance of the machining edge (KB, KE) from the at least one workpiece reference (RB, RE) and for determining a predetermined depth value (TV) for the depth adjustment position (T1, T2, T3) depending on the distance value (DB).
A method for electrolytical coating of complex components, wherein the component is coated with a layer of nickel and/or a nickel alloy within the scope of an electrolyses by means of an aqueous electrolyte solution, wherein a relative movement between the component to be coated and the electrolyte is generated at least temporally during the electrolysis, wherein the component to be coated and/or an electrolytic bath for receiving the electrolyte is at least temporally set into rotation during the electrolysis, wherein the direction of the rotation axis of the component to be coated and/or the electrolytic bath is at least temporally changed during the rotation, characterized in that the rotation axis of the component to be coated and/or the electrolytic bath is at least temporally moved into precession during the rotation, wherefrom a tumbling motion of the component to be coated and/or the electrolytic bath results.
A speed controller for controlling operation of an electric motor , the speed controller comprising: a processing system constructed and arranged to: calculate a reference current I qr , which is for use in calculating drive currents for the electric motor , as the sum of a switching current I q_sw_PI and a dynamic current I q_eq ; wherein the processing system is configured such that the switching current I q_sw_PI is calculated using at least proportional control with a sliding surface s that is an error function based on the electrical reference speed ω ref of the electric motor and the electrical measured speed ω measured of the electric motor . calculate a reference current I qr , which is for use in calculating drive currents for the electric motor , as the sum of a switching current I q_sw_PI and a dynamic current I q_eq ; wherein the processing system is configured such that the switching current I q_sw_PI is calculated using at least proportional control with a sliding surface s that is an error function based on the electrical reference speed ω ref of the electric motor and the electrical measured speed ω measured of the electric motor .