mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated structure comprising: a first dielectric layer formed over a first main surface of the substrate , the substrate further including an opposing second main surface ; multiple through silicon contacts (TSCs) formed in the first dielectric layer and the substrate so that the TSCs extend through the first dielectric layer and extend into the substrate ; a conductive plate formed over the first dielectric layer , the conductive plate being electrically coupled with the TSCs (126; 226); an isolation trench formed in the substrate that surrounds the TSCs (126; 226), the isolation trench and the conductive plate being spaced apart from each other by the first dielectric layer 108, 208; a second dielectric layer (114; 214) formed on the second main surface of the substrate ; a first plurality of vias (118b, 118c, 118f, and 118g) formed in the second dielectric layer (114; 214) that extend through the second main surface into the substrate and are connected to the TSCs (126; 226) . a first dielectric layer formed over a first main surface of the substrate , the substrate further including an opposing second main surface ; multiple through silicon contacts (TSCs) formed in the first dielectric layer and the substrate so that the TSCs extend through the first dielectric layer and extend into the substrate ; a conductive plate formed over the first dielectric layer , the conductive plate being electrically coupled with the TSCs (126; 226); an isolation trench formed in the substrate that surrounds the TSCs (126; 226), the isolation trench and the conductive plate being spaced apart from each other by the first dielectric layer 108, 208; a second dielectric layer (114; 214) formed on the second main surface of the substrate ; a first plurality of vias (118b, 118c, 118f, and 118g) formed in the second dielectric layer (114; 214) that extend through the second main surface into the substrate and are connected to the TSCs (126; 226) .
Disinfection monitoring unit for a touch screen sensor for controlling a medical device (D), in particular a dialysis device, wherein the disinfection monitoring unit comprises a disinfection status sensor which is configured to automatically detect the disinfection status of the touch screen sensor , wherein the disinfection status sensor is configured at least as a camera and as a fluid evaluation unit, wherein the fluid evaluation unit is adapted to check for a presence of disinfectant, typically disinfecting fluid, wherein the fluid evaluation unit is activated in a controlled manner only during a disinfection phase and not during device control, wherein the touchscreen sensor is configured to automatically recognize planar movement patterns for disinfection and to differentiate them from point or pressure operations for data input or device control, and/or wherein the camera is configured to detect operations or contacts of the touchscreen sensor and to forward them to the disinfection monitoring unit for evaluation. wherein the disinfection status sensor is configured at least as a camera and as a fluid evaluation unit, wherein the fluid evaluation unit is adapted to check for a presence of disinfectant, typically disinfecting fluid, wherein the fluid evaluation unit is activated in a controlled manner only during a disinfection phase and not during device control, wherein the touchscreen sensor is configured to automatically recognize planar movement patterns for disinfection and to differentiate them from point or pressure operations for data input or device control, and/or wherein the camera is configured to detect operations or contacts of the touchscreen sensor and to forward them to the disinfection monitoring unit for evaluation.
A method for online assessing a state of health (SOH) of an electrochemical cell , said method comprising: - a step for identifying the reference and chemistry of said electrochemical cell , said reference identification step comprising: - measuring entropy variation ΔS profiles for said electrochemical cell , - using a pattern recognition algorithm on said measured entropy variation ΔS profiles so as to recognize a reference for said electrochemical cell among a predetermined plurality of cell references each attached to classified sets of previously measured ΔS profiles, - a step for estimating said state of health (SOH) of said electrochemical cell from thermodynamics data related to said cell , said thermodynamics data including entropy and enthalpy variations ΔS, ΔH within said cell . - a step for identifying the reference and chemistry of said electrochemical cell , said reference identification step comprising: - measuring entropy variation ΔS profiles for said electrochemical cell , - using a pattern recognition algorithm on said measured entropy variation ΔS profiles so as to recognize a reference for said electrochemical cell among a predetermined plurality of cell references each attached to classified sets of previously measured ΔS profiles, - measuring entropy variation ΔS profiles for said electrochemical cell , - using a pattern recognition algorithm on said measured entropy variation ΔS profiles so as to recognize a reference for said electrochemical cell among a predetermined plurality of cell references each attached to classified sets of previously measured ΔS profiles, - a step for estimating said state of health (SOH) of said electrochemical cell from thermodynamics data related to said cell , said thermodynamics data including entropy and enthalpy variations ΔS, ΔH within said cell .
A pharmaceutical combination comprising (i) ceritinib, or a pharmaceutically acceptable salt thereof, and (ii) an EGFR inhibitor, or a pharmaceutically acceptable salt thereof, wherein the EGFR inhibitor is selected from the group consisting of erlotinib, gefitinib, lapatinib, canertinib, pelitinib, neratinib, ( R,E )- N -(7-chloro-1-(1-(4-(dimethylamino)but-2-enoyl)azepan-3-yl)-1H-benzo[d]imidazol-2-yl)-2-methylisonicotinamide, panitumumab, matuzumab, pertuzumab, nimotuzumab, zalutumumab, icotinib, afatinib and cetuximab, and pharmaceutically acceptable salt thereof, or the EGFR inhibitor is an isolated antibody or fragment thereof comprising a heavy chain CDR3 selected from the group consisting of SEQ ID NO: 4, SEQ ID NO: 10, SEQ ID NO: 22, SEQ ID NO: 28, SEQ ID NO: 40, SEQ ID NO: 46, SEQ ID NO: 58, SEQ ID NO: 64, SEQ ID NO: 76, SEQ ID NO: 82, SEQ ID NO: 94, SEQ ID NO: 100, SEQ ID NO: 112, SEQ ID NO: 118, SEQ ID NO: 130, SEQ ID NO: 136, SEQ ID NO: 148, SEQ ID NO: 166, SEQ ID NO: 184, SEQ ID NO: 202, SEQ ID NO: 220, SEQ ID NO: 238, SEQ ID NO: 256, SEQ ID NO: 274, SEQ ID NO: 292, SEQ ID NO: 310, SEQ ID NO: 328, SEQ ID NO: 346, and SEQ ID NO: 364.
A method for monitoring a brake component temperature of a brake of a vehicle , the method comprising: measuring (101; 112) a wheel end temperature at a wheel end of a vehicle _via a temperature sensor at the wheel end; determining whether said measured wheel end temperature is above a threshold representative of a critical temperature of the brake component ; and, outputting a warning signal when said determined wheel end temperature is above the threshold, wherein said determining whether the measured wheel end temperature is above the threshold includes: determining via a control unit a temperature value of a brake component on a basis of the measured temperature at the wheel end and at least one of a distance of the temperature sensor to the corresponding brake component , and environmental conditions. measuring (101; 112) a wheel end temperature at a wheel end of a vehicle _via a temperature sensor at the wheel end; determining whether said measured wheel end temperature is above a threshold representative of a critical temperature of the brake component ; and, outputting a warning signal when said determined wheel end temperature is above the threshold, wherein said determining whether the measured wheel end temperature is above the threshold includes: determining via a control unit a temperature value of a brake component on a basis of the measured temperature at the wheel end and at least one of a distance of the temperature sensor to the corresponding brake component , and environmental conditions.
Saw, in particular a cross-cut saw, cross-cut slide saw or slide compound mitre saw, having a machine head which is mounted on a machine frame so as to be pivotable in a vertical plane and which is mounted on the machine frame so as to be, for sawing, pressable downwards from a rest position and carries a saw blade rotating for sawing, and having a dust collector, which serves to receive the chips and dust produced during sawing and which is connected to a connection socket on a saw blade cover mounted above the saw blade on the machine head, wherein the dust collector is arranged on a carriage displaceably received in a linear guide , and wherein the dust collector is connected to the connection socket via a flexible connecting line, characterized in that the linear guide is provided on the machine frame in such a way that when the machine head is pressed down, the dust collector is not tilted into a position vertically above the saw blade, but makes a linear displacement movement, wherein when the machine head is pressed down the saw blade cover on the one hand and the dust collector on the other hand move relative to the machine frame, and wherein the bendability or flexibility of the connecting line between the connection socket and the dust collector compensates for the different directions of movement.
A coated sugar- and glycerol-free chewing gum, comprising a core and a coating, wherein the core comprises a) at least one chewing gum base, b) at least one monoterpene, c) a sweetener system essentially consisting of c 1) hydrogenated starch hydrolysate, wherein the hydrogenated starch hydrolysate is selected from sorbitol syrup, maltitol syrup or a mixture thereof, and wherein is present in the core in an amount of 5 to 20 weight-% (based on total weight), c 2) isomalt particles, wherein at least 90 wt.-% of the particles have a particle size less than 100 μm, wherein the isomalt particles are present in the core in an amount from 20 to 60 weight-% (based on dry substance of the core) c 3) sorbitol particles, wherein the sorbitol particles are present in the core in an amount from 9 to 30 weight-% (based on dry substance of the core), and c 4) at least one high intensity sweetener and/or a sweetness enhancer, wherein said sweetener system is the only component present in the core, which provides sweetness, wherein the wt.-% ratio of the isomalt particles to the at least one monoterpene in the core is from 6:1 to 20:1, of the overall amount of the isomalt particles and the sorbitol particles to the hydrogenated starch hydrolysate in the core is from 4:1 to 6:1 and of the isomalt particles to the sorbitol particles in the core is from 2,2:1 to 2,8:1 (each wt.-% ratio based on total weight) and wherein the coating comprises at least 80 wt.-% isomalt (based on dry substance of the coating). a) at least one chewing gum base, b) at least one monoterpene, c) a sweetener system essentially consisting of c 1) hydrogenated starch hydrolysate, wherein the hydrogenated starch hydrolysate is selected from sorbitol syrup, maltitol syrup or a mixture thereof, and wherein is present in the core in an amount of 5 to 20 weight-% (based on total weight), c 2) isomalt particles, wherein at least 90 wt.-% of the particles have a particle size less than 100 μm, wherein the isomalt particles are present in the core in an amount from 20 to 60 weight-% (based on dry substance of the core) c 3) sorbitol particles, wherein the sorbitol particles are present in the core in an amount from 9 to 30 weight-% (based on dry substance of the core), and c 4) at least one high intensity sweetener and/or a sweetness enhancer, c 1) hydrogenated starch hydrolysate, wherein the hydrogenated starch hydrolysate is selected from sorbitol syrup, maltitol syrup or a mixture thereof, and wherein is present in the core in an amount of 5 to 20 weight-% (based on total weight), c 2) isomalt particles, wherein at least 90 wt.-% of the particles have a particle size less than 100 μm, wherein the isomalt particles are present in the core in an amount from 20 to 60 weight-% (based on dry substance of the core) c 3) sorbitol particles, wherein the sorbitol particles are present in the core in an amount from 9 to 30 weight-% (based on dry substance of the core), and c 4) at least one high intensity sweetener and/or a sweetness enhancer,
A battery system comprising: a battery module ; a cooling channel disposed adjacent to the battery module ; a ground wire configured to electrically connect the cooling channel and a vehicle body; characterized in that the battery system further comprises: a leakage current blocking device configured to interrupt an electrical connection of the cooling channel and the vehicle body when a leakage current continuously occurs in the battery module , wherein the leakage current blocking device comprises: a spark induction chamber having an inner space, in which an electric spark occurs, and having a piston which moves by the expansion of a gas in the inner space of the spark induction chamber ; a switch configured to be operated by the piston ; and a relay configured to determine an electrical connection state of the ground wire according to an operation of the switch . a battery module ; a cooling channel disposed adjacent to the battery module ; a ground wire configured to electrically connect the cooling channel and a vehicle body; characterized in that the battery system further comprises: a leakage current blocking device configured to interrupt an electrical connection of the cooling channel and the vehicle body when a leakage current continuously occurs in the battery module , wherein the leakage current blocking device comprises: a spark induction chamber having an inner space, in which an electric spark occurs, and having a piston which moves by the expansion of a gas in the inner space of the spark induction chamber ; a switch configured to be operated by the piston ; and a relay configured to determine an electrical connection state of the ground wire according to an operation of the switch . a leakage current blocking device configured to interrupt an electrical connection of the cooling channel and the vehicle body when a leakage current continuously occurs in the battery module , wherein the leakage current blocking device comprises: a spark induction chamber having an inner space, in which an electric spark occurs, and having a piston which moves by the expansion of a gas in the inner space of the spark induction chamber ; a switch configured to be operated by the piston ; and a relay configured to determine an electrical connection state of the ground wire according to an operation of the switch . a spark induction chamber having an inner space, in which an electric spark occurs, and having a piston which moves by the expansion of a gas in the inner space of the spark induction chamber ; a switch configured to be operated by the piston ; and a relay configured to determine an electrical connection state of the ground wire according to an operation of the switch .
A method for estimating an aged capacity of a battery of an energy storage system, ESS, associated with a plurality of wind turbine generators , the aged capacity representing the maximum amount of charge that the aged battery is able to store at a particular age of the battery, the method comprising: Determining an internal impedance of the battery; and Determining a relationship between a maximum capacity corresponding to the battery and a number of charging cycles, characterized in that the method comprises determining the aged capacity of the battery based on the internal impedance, being used to determine the approximate age of the battery expressed in a number of cycles, and the relationship. Determining an internal impedance of the battery; and Determining a relationship between a maximum capacity corresponding to the battery and a number of charging cycles, characterized in that the method comprises determining the aged capacity of the battery based on the internal impedance, being used to determine the approximate age of the battery expressed in a number of cycles, and the relationship.
A body-size class specification device, comprising: a class feature-quantity information memorizing section to memorize class feature-quantity information to correlate plural classes for classifying a body size of a person according to a dimension ratio of prescribed parts of a body with plural prescribed feature quantities for characterizing the plural classes; a feature-quantity acquiring section to acquire feature quantity of an object person (DV) to be specified for the class; and a class specifying section to specify the class corresponding to the feature quantity of the object person (DV) acquired by said feature-quantity acquiring section based on the class feature-quantity information memorized by said class feature-quantity information memorizing section ; wherein said feature quantity of the object person (DV) includes standing height of the object person (DV) and an upper-body-length ratio of upper body's length of the object person (DV) to leg's length of the object person (DV); and wherein the body size of the person is classified from the aspects of sexualities, races, regions, or nations, or sexualities in combination with races, regions, or nations. a class feature-quantity information memorizing section to memorize class feature-quantity information to correlate plural classes for classifying a body size of a person according to a dimension ratio of prescribed parts of a body with plural prescribed feature quantities for characterizing the plural classes; a feature-quantity acquiring section to acquire feature quantity of an object person (DV) to be specified for the class; and a class specifying section to specify the class corresponding to the feature quantity of the object person (DV) acquired by said feature-quantity acquiring section based on the class feature-quantity information memorized by said class feature-quantity information memorizing section ; wherein said feature quantity of the object person (DV) includes standing height of the object person (DV) and an upper-body-length ratio of upper body's length of the object person (DV) to leg's length of the object person (DV); and wherein the body size of the person is classified from the aspects of sexualities, races, regions, or nations, or sexualities in combination with races, regions, or nations.
Disc brake for a commercial vehicle, having a brake calliper , which spans a brake disc, is made of cast iron and has a calliper head and a calliper back and two connecting diagonal ties extending parallel to and at a distance from each other, and which is mounted for axial displacement with respect to the brake disc by means of at least one guide bar fixed to a stationary adapter , wherein the guide bar is guided in a sliding bushing held in a manner securing it against displacement in a bearing bore of a bearing receptacle of the brake calliper , characterised in that the bearing receptacle consists of supporting sections , which are arranged at a distance from one another in the axial direction of the guide bar and each of which is directly formed integrally at a housing of the brake calliper which encases a reception chamber for functional components.
Method for managing the release of a brake caliper (EF) comprising a parking brake actuator electrically assisted by an electric motor (ME) in a motor vehicle, said method being applied during the running of said vehicle, said brake caliper (EF) being in a released position beforehand, resulting from an end of a braking phase, said method comprising a step (D1) of receiving data, a step (D2) of requesting release of the brake caliper (EF) whose positive conclusion results in a step (D3) of releasing the brake caliper (EF) by commanding said electric motor (ME) to rotate in a release direction, said electric motor (ME) driving a movable part (PM) in a piston (PI) with a longitudinal movement able to form a space between at least one brake lining (GF) of the brake caliper (EF) and a brake disc (DF), said method being characterized in that said data received during the data receiving step (D1) comprise a speed of said vehicle, and/or spatial position coordinates of said vehicle and/or temporal effective braking information and/or a return of information relating to the movement carried out by said movable part.
Multi-stage process for preparing the dihydrolipoic acid, in which a) in a first process stage, an ester of 6,8-dichloroctanoic acid according to general formula (II) is reacted with a mixture comprising sodium sulfide and sulfur, wherein for formula (II) the following applies: wherein for the group R the following applies: R = C1 to C6 alkyl, wherein the reaction is carried out in an alcoholic solvent mixture at a temperature in the range of from 80°C to 130°C and a pressure in the range of from 0.12 MPa to 0.60 MPa, b) in a second process stage, the reaction mixture obtained from the first process stage is subjected to a reduction and c) in a third process stage, the reaction mixture resulting from the second process stage is adjusted to a pH in the range of from pH 1.5 to < 7 by means of a mineral acid, and dihydrolipoic acid is released. a) in a first process stage, an ester of 6,8-dichloroctanoic acid according to general formula (II) is reacted with a mixture comprising sodium sulfide and sulfur, wherein for formula (II) the following applies: wherein for the group R the following applies: R = C1 to C6 alkyl, wherein the reaction is carried out in an alcoholic solvent mixture at a temperature in the range of from 80°C to 130°C and a pressure in the range of from 0.12 MPa to 0.60 MPa, R = C1 to C6 alkyl, wherein the reaction is carried out in an alcoholic solvent mixture at a temperature in the range of from 80°C to 130°C and a pressure in the range of from 0.12 MPa to 0.60 MPa, b) in a second process stage, the reaction mixture obtained from the first process stage is subjected to a reduction and c) in a third process stage, the reaction mixture resulting from the second process stage is adjusted to a pH in the range of from pH 1.5 to < 7 by means of a mineral acid, and dihydrolipoic acid is released.