mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detection of an evoked response signal in noise, the method comprising: generating , by a stimulus generator , a plurality of stimuli; receiving , by one or more sensors , a noisy signal related to an evoked response to the plurality of stimuli; dividing , by a processor , the noisy signal into a plurality of responses to the plurality of stimuli; estimating , by the processor , a statistic matrix for the plurality of responses; shrinking , by the processor , the statistic matrix to avoid amplification of errors in the statistic matrix when the statistic matrix is inverted; calculating, by the processor , weights based on an inverse of the shrunk statistic matrix; applying, by the processor , the calculated weights to the plurality of responses to generate revised responses; constructing, by the processor , a final response by weight averaging the revised responses, the final response representing the evoked response or indicative of whether or not an evoked response has been detected; and outputting , by the processor , the final response. generating , by a stimulus generator , a plurality of stimuli; receiving , by one or more sensors , a noisy signal related to an evoked response to the plurality of stimuli; dividing , by a processor , the noisy signal into a plurality of responses to the plurality of stimuli; estimating , by the processor , a statistic matrix for the plurality of responses; shrinking , by the processor , the statistic matrix to avoid amplification of errors in the statistic matrix when the statistic matrix is inverted; calculating, by the processor , weights based on an inverse of the shrunk statistic matrix; applying, by the processor , the calculated weights to the plurality of responses to generate revised responses; constructing, by the processor , a final response by weight averaging the revised responses, the final response representing the evoked response or indicative of whether or not an evoked response has been detected; and outputting , by the processor , the final response.
A rotary digital printing system , comprising: a print zone, which comprises a plurality of independent print stations (100(a)-(f)), each print station (100(a)-(f)) comprising a respective print head , and read head ; a plurality of fixtures , each fixture comprising an item support member and a shaft which is rotationally coupled to a base , the item support member being configured to support an item that is to receive printed information, the shaft being coupled to the item support member and comprising an encoder ring that can be read by a given print station's read head to determine a circumferential position and rotational speed of the fixture in question; a rotational belt drive for rotating each fixture positioned in a print station (100(a)-(f)) such that the surface of the item support member and an item disposed thereon is rotated past the print head of the print station in question for printing; and a conveyance module for transporting the fixtures to said print stations (100(a)-(f)); wherein the system is configured so as to convey, using said conveyance module , the plurality of fixtures through the print zone, stopping at one or more of the print stations (100(a)-(f)); and wherein the shaft of each fixture is configured to be releasably coupled to the rotational belt drive , such that the fixture can be decoupled from the rotational belt drive during linear movement by the conveyance module and coupled to the rotational belt drive for rotational movement when located in a print station (100(a)-(f)). a print zone, which comprises a plurality of independent print stations (100(a)-(f)), each print station (100(a)-(f)) comprising a respective print head , and read head ; a plurality of fixtures , each fixture comprising an item support member and a shaft which is rotationally coupled to a base , the item support member being configured to support an item that is to receive printed information, the shaft being coupled to the item support member and comprising an encoder ring that can be read by a given print station's read head to determine a circumferential position and rotational speed of the fixture in question; a rotational belt drive for rotating each fixture positioned in a print station (100(a)-(f)) such that the surface of the item support member and an item disposed thereon is rotated past the print head of the print station in question for printing; and a conveyance module for transporting the fixtures to said print stations (100(a)-(f)); wherein the system is configured so as to convey, using said conveyance module , the plurality of fixtures through the print zone, stopping at one or more of the print stations (100(a)-(f)); and wherein the shaft of each fixture is configured to be releasably coupled to the rotational belt drive , such that the fixture can be decoupled from the rotational belt drive during linear movement by the conveyance module and coupled to the rotational belt drive for rotational movement when located in a print station (100(a)-(f)).
A system for a vehicle, comprising: a steering element situated opposite a driver seat in a vehicle, comprising: a plurality of proximity sensors encased in the periphery of the steering element operable to detect movements of a driver's hand along the outer periphery of the steering element; and visible-light emitters embedded in the steering element operable to illuminate detection zones of the steering element; and a processor, coupled with said proximity sensors and said visible-light emitters, operable to activate said visible-light emitters to follow the hand movements along the outer periphery of said steering element, and to control an interactive deck housed in the vehicle and/or contextual user interfaces functions of the vehicle in response to the detected hand movements. a steering element situated opposite a driver seat in a vehicle, comprising: a plurality of proximity sensors encased in the periphery of the steering element operable to detect movements of a driver's hand along the outer periphery of the steering element; and visible-light emitters embedded in the steering element operable to illuminate detection zones of the steering element; and a plurality of proximity sensors encased in the periphery of the steering element operable to detect movements of a driver's hand along the outer periphery of the steering element; and visible-light emitters embedded in the steering element operable to illuminate detection zones of the steering element; and a processor, coupled with said proximity sensors and said visible-light emitters, operable to activate said visible-light emitters to follow the hand movements along the outer periphery of said steering element, and to control an interactive deck housed in the vehicle and/or contextual user interfaces functions of the vehicle in response to the detected hand movements.
A corrosion inhibiting mixture without phosphorous or phosphorous containing compounds comprising: a water source; and 0.05 ppm to 200 ppm by weight of a polymer composition dispersed in the water source, the polymer composition comprising the residues of 90 mol% to 97 mol% of a first monomer, 0.01 mol% to 5 mol% of a second monomer that is chemically different from the first monomer, and 0.01 mol% to 5 mol% of a third monomer that is chemically different from the first and second monomers, wherein the first monomer is acrylic acid, a salt thereof, or a conjugate base thereof; maleic acid, a salt thereof, or a conjugate base thereof; or methacryiic acid, a salt thereof, or a conjugate base thereof, the second monomer is 2-acrylamido-2-methylpropane sulfonic acid, a salt thereof, or a conjugate base thereof; maleic acid, a salt thereof, or a conjugate base thereof; methacrylic acid, a salt thereof, or a conjugate base thereof; methallyl sulfonate; or sulfostyrene; and the third monomer is 2-acrylamido-2-methylpropane sulfonic acid, a salt thereof, or a conjugate base thereof; itaconic acid, a salt thereof, or a conjugate base thereof; crotonic acid, a salt thereof, or a conjugate base thereof; tert-butylacrylamide; or dimethylacrylamide; further comprising 0.05 ppm to 10 ppm of one or more of zinc, or tin. a water source; and 0.05 ppm to 200 ppm by weight of a polymer composition dispersed in the water source, the polymer composition comprising the residues of 90 mol% to 97 mol% of a first monomer, 0.01 mol% to 5 mol% of a second monomer that is chemically different from the first monomer, and 0.01 mol% to 5 mol% of a third monomer that is chemically different from the first and second monomers, wherein the first monomer is acrylic acid, a salt thereof, or a conjugate base thereof; maleic acid, a salt thereof, or a conjugate base thereof; or methacryiic acid, a salt thereof, or a conjugate base thereof, the second monomer is 2-acrylamido-2-methylpropane sulfonic acid, a salt thereof, or a conjugate base thereof; maleic acid, a salt thereof, or a conjugate base thereof; methacrylic acid, a salt thereof, or a conjugate base thereof; methallyl sulfonate; or sulfostyrene; and the third monomer is 2-acrylamido-2-methylpropane sulfonic acid, a salt thereof, or a conjugate base thereof; itaconic acid, a salt thereof, or a conjugate base thereof; crotonic acid, a salt thereof, or a conjugate base thereof; tert-butylacrylamide; or dimethylacrylamide; further comprising 0.05 ppm to 10 ppm of one or more of zinc, or tin.
A compound of formula I wherein R 1 is hydrogen or F; n is 1 or 2 or a pharmaceutically acceptable acid addition salt thereof. R 1 is hydrogen or F; n is 1 or 2
A method of measuring hematocrit, comprising: providing a test strip comprising a reaction region and a pair of electrodes disposed in the reaction region ; entering a whole blood sample into the reaction region ; continuously applying a plurality of sets of square wave voltages (VS) to the pair of electrodes based on a square wave voltammetry method to obtain a plurality of feedbacks related to hematocrit, wherein an interval between two adjacent sets of square wave voltages (VS) ranges from 0.1 seconds to 4 seconds, each set of square wave voltages (VS) comprises multiple square wave voltages, and the sets of square wave voltages (VS) are identical to one another, except for application timings; obtaining a feedback of an n-th set of square wave voltages (VS) to calculate a hematocrit value of the whole blood sample, wherein n is a positive integer greater than 1, wherein the step of calculating the hematocrit value comprises: obtaining an equation of feedback value with respect to hematocrit value by using standard whole blood samples with known hematocrit values; and substituting the feedback of the n-th set of square wave voltages (VS) of the whole blood sample for the feedback value to obtain the corresponding hematocrit value. providing a test strip comprising a reaction region and a pair of electrodes disposed in the reaction region ; entering a whole blood sample into the reaction region ; continuously applying a plurality of sets of square wave voltages (VS) to the pair of electrodes based on a square wave voltammetry method to obtain a plurality of feedbacks related to hematocrit, wherein an interval between two adjacent sets of square wave voltages (VS) ranges from 0.1 seconds to 4 seconds, each set of square wave voltages (VS) comprises multiple square wave voltages, and the sets of square wave voltages (VS) are identical to one another, except for application timings; obtaining a feedback of an n-th set of square wave voltages (VS) to calculate a hematocrit value of the whole blood sample, wherein n is a positive integer greater than 1, wherein the step of calculating the hematocrit value comprises: obtaining an equation of feedback value with respect to hematocrit value by using standard whole blood samples with known hematocrit values; and substituting the feedback of the n-th set of square wave voltages (VS) of the whole blood sample for the feedback value to obtain the corresponding hematocrit value. obtaining an equation of feedback value with respect to hematocrit value by using standard whole blood samples with known hematocrit values; and substituting the feedback of the n-th set of square wave voltages (VS) of the whole blood sample for the feedback value to obtain the corresponding hematocrit value.
A battery box , comprising: a box body ; a cooling plate connected with an outside of a wall plate of the box body ; and a stiffener connected with the box body and abutting against a side of the cooling plate away from the wall plate ; wherein the box body is provided with a lifting lug , the wall plate is provided with a connecting portion , the connecting portion is connected with an end of the lifting lug to form a lifting ring, and the stiffener is connected with the connecting portion . a box body ; a cooling plate connected with an outside of a wall plate of the box body ; and a stiffener connected with the box body and abutting against a side of the cooling plate away from the wall plate ; wherein the box body is provided with a lifting lug , the wall plate is provided with a connecting portion , the connecting portion is connected with an end of the lifting lug to form a lifting ring, and the stiffener is connected with the connecting portion .
A method of manufacturing a rolled aluminium-magnesium-manganese alloy plate product comprising the steps of: (a) providing a rolling feedstock material of an Al-Mg-Mn alloy having a composition comprising of, in wt.%, Mg 4.80% to 6.0%, Mn 0.30% to 1.25%, Zn up to 0.9%, Fe up to 0.40%, Si up to 0.30%, Cu up to 0.20%, Cr up to 0.25%, Zr up to 0.25%, Ti up to 0.25%, unavoidable impurities each <0.05%, total <0.2%, balance aluminium; (b) heating the rolling feedstock to a temperature in a range of 480°C to 550°C; (c) hot-rolling of the heated rolling feedstock in one or more rolling steps to a hot-rolled plate having a final gauge in a range of 3 mm to 15 mm, and wherein the hot-mill entry temperature is in a range of 400°C to 550°C, and the hot-mill exit temperature is in a range of 130°C to 285°C; and wherein the hot rolling of the rolling feedstock to final gauge is without cold rolling the rolling feedstock prior to the final gauge; (d) annealing of the hot-rolled plate at final gauge at an annealing temperature in a range of 300°C to 550°C; and (e) cooling of the annealed hot-rolled plate at final gauge from annealing temperature to ambient temperature. (a) providing a rolling feedstock material of an Al-Mg-Mn alloy having a composition comprising of, in wt.%, Mg 4.80% to 6.0%, Mn 0.30% to 1.25%, Zn up to 0.9%, Fe up to 0.40%, Si up to 0.30%, Cu up to 0.20%, Cr up to 0.25%, Zr up to 0.25%, Ti up to 0.25%, unavoidable impurities each <0.05%, total <0.2%, balance aluminium; (b) heating the rolling feedstock to a temperature in a range of 480°C to 550°C; (c) hot-rolling of the heated rolling feedstock in one or more rolling steps to a hot-rolled plate having a final gauge in a range of 3 mm to 15 mm, and wherein the hot-mill entry temperature is in a range of 400°C to 550°C, and the hot-mill exit temperature is in a range of 130°C to 285°C; and wherein the hot rolling of the rolling feedstock to final gauge is without cold rolling the rolling feedstock prior to the final gauge; (d) annealing of the hot-rolled plate at final gauge at an annealing temperature in a range of 300°C to 550°C; and (e) cooling of the annealed hot-rolled plate at final gauge from annealing temperature to ambient temperature.
A gastro-resistant pharmaceutical composition comprising posaconazole, wherein posaconazole is molecularly dispersed in a mixture containing an enteric polymer and a non-enteric polymer, wherein the mixture is prepared by hot-melt extrusion, and wherein the composition contains an antioxidant.
Method for load distribution between a server and a terminal (14a, b, c, d), wherein the server exchanges data with the terminal (14a, b, c, d) via a communication network , namely the Internet, wherein a load distribution unit controls the data traffic between the server and the terminal (14a, b, c, d) wherein the terminal (14a, b, c, d) queries the server at a specific point in time of a loading process, like the downloading of data in the context of a download or providing computing power, wherein data regarding the resource utilization of the communication network and of the server are provided to the load distribution unit, wherein the load distribution unit analyzes the data and determines a potential overload of the communication network and of the server, wherein the load distribution unit transmits a piece of information for equalizing the loading process to the terminal (14a, b, c, d), in which piece of information the terminal is prompted to repeat the request in a later time window, and wherein resources of the server and of the communication network are reserved for the loading process in this later time window, and wherein the terminal (14a, b, c, d) transmits its renewed request in the later time window, wherein the loading process is executed in the later time window if the load distribution unit grants a release with respect to this, wherein the process of the renewed request is repeated at another time window lying in the future until the load distribution unit grants the release.
SCR-active material comprising i. a small-pore zeolite, ii. aluminum oxide and iii. copper, characterized in that it contains 5 to 25 wt.% aluminum oxide, based on the total material, and the copper is present on the aluminum oxide in a first concentration and on the small-pore zeolite in a second concentration, and in that the total amount of copper, calculated as CuD and based on the total SCR-active material, is 1 to 15 wt.%, and in that the first concentration is higher than the second concentration, and in that the small-pore zeolite forms a core and the aluminum oxide forms a shell enclosing this core. i. a small-pore zeolite, ii. aluminum oxide and iii. copper,
Double support plate connectable to an optical device which can be inserted and fixed in a connected state into a grooved clamping element to be mounted on a stander, said support plate comprising an elongated flat rectangular body having planar boundary surfaces, and at the opposite sides thereof longitudinal grooves are provided that have profiles fitting to the groove of the clamping element and in the central part of the body an opening is provided for the placement of a bolt realizing said connection to the optical device, characterized in that at an end portion of the body transversal wedge ribs are provided in said opposite sides of the body which extend normal both to the longitudinal grooves and the plane of the body , wherein the profile of the wedge ribs is the same as the profile of the longitudinal grooves at the sides of the body , whereby the support plate together with the optical device when connected thereto can be releasably inserted and fixed into said grooved clamping element in one of two mutually normal positions when either the longitudinal grooves or the transversal wedge ribs are fitted into the grooved clamping element .
An electronic system comprising: a first display interface ; a reflective film which is attached to the first display interface, the reflective film including a diffraction grating configured to reflect an incident light approaching the reflective film and comprising an image of a first user within a reflective grating spectra at a reflection angle formed by a reflected light ray and a line normal to the reflective film at a point of incidence; an image capture unit positioned to align with the reflection angle and to capture the image reflected from the reflective film; a notch filter configured to separate the image from a display light of the first display interface, the notch filter being configured to pass notch filter spectra which are within the reflective grating spectra, wherein the notch filter is configured to attach to a lens of the image capture unit; and a communication unit configured to communicate the image reflected at the reflection angle from the first display interface for displaying the image of the first user on a second display interface in providing gaze alignment between the first user and a second user through the first display interface and the second display interface. a first display interface ; a reflective film which is attached to the first display interface, the reflective film including a diffraction grating configured to reflect an incident light approaching the reflective film and comprising an image of a first user within a reflective grating spectra at a reflection angle formed by a reflected light ray and a line normal to the reflective film at a point of incidence; an image capture unit positioned to align with the reflection angle and to capture the image reflected from the reflective film; a notch filter configured to separate the image from a display light of the first display interface, the notch filter being configured to pass notch filter spectra which are within the reflective grating spectra, wherein the notch filter is configured to attach to a lens of the image capture unit; and a communication unit configured to communicate the image reflected at the reflection angle from the first display interface for displaying the image of the first user on a second display interface in providing gaze alignment between the first user and a second user through the first display interface and the second display interface.
Tool holder as a spindle insert for insertion into a clamping element of a motor spindle or as an insert element in the tool turret of a lathe, wherein the tool holder comprises: - a housing unit , - a spindle unit which is arranged in the housing unit and comprises a drive element and a shaft element which is rotatably mounted and coupled in movement with the drive element and has a holding element for holding a tool, and - an energy storage unit , arranged on or in the housing unit , for supplying energy to the drive element , - wherein the drive element has an electric drive having a stator connected to the housing unit and a rotor coupled in movement to the shaft element , characterised in that - the tool holder further comprises a control unit , arranged on or in the housing unit , for controlling the drive element , and - the control unit has an actuating element , arranged on the outside of the housing unit , for manually setting a rotational speed of the rotor . - a housing unit , - a spindle unit which is arranged in the housing unit and comprises a drive element and a shaft element which is rotatably mounted and coupled in movement with the drive element and has a holding element for holding a tool, and - an energy storage unit , arranged on or in the housing unit , for supplying energy to the drive element , - wherein the drive element has an electric drive having a stator connected to the housing unit and a rotor coupled in movement to the shaft element , characterised in that - the tool holder further comprises a control unit , arranged on or in the housing unit , for controlling the drive element , and - the control unit has an actuating element , arranged on the outside of the housing unit , for manually setting a rotational speed of the rotor .
A substrate for transferring microstructures, comprising: a synthetic quartz glass substrate; and a silicone pressure-sensitive adhesive agent layer provided on a front surface of the synthetic quartz glass substrate, wherein the substrate includes an engraved mark provided in the front surface. a synthetic quartz glass substrate; and a silicone pressure-sensitive adhesive agent layer provided on a front surface of the synthetic quartz glass substrate, wherein the substrate includes an engraved mark provided in the front surface.