mhurhangee/patent-ind-claim-en huggingface dataset:
A system for authenticating a user of a device, the system comprising: a first image sensor for capturing at least one image of at least part of a user; a determination unit for determining information relating to the user's eye based at least in part on the at least one image captured by the first image sensor ; an authentication unit for authenticating the user using the information relating to the user's eye; a profile unit for loading a user profile based on authentication of the user; and an eye tracker; wherein the user profile is an eye tracking calibration profile defining: an offset between a determined gaze direction by the eye tracker and an actual gaze direction of the user, the calibration profile comprising data including an offset of the fovea relative to the optical axis of the eye and/or the corneal curvature of the eye of the user, and wherein the eye tracking calibration profile is used to alter the determined gaze direction of the user by applying the offset to the determined gaze direction of the user. a first image sensor for capturing at least one image of at least part of a user; a determination unit for determining information relating to the user's eye based at least in part on the at least one image captured by the first image sensor ; an authentication unit for authenticating the user using the information relating to the user's eye; a profile unit for loading a user profile based on authentication of the user; and an eye tracker; wherein the user profile is an eye tracking calibration profile defining: an offset between a determined gaze direction by the eye tracker and an actual gaze direction of the user, the calibration profile comprising data including an offset of the fovea relative to the optical axis of the eye and/or the corneal curvature of the eye of the user, and wherein the eye tracking calibration profile is used to alter the determined gaze direction of the user by applying the offset to the determined gaze direction of the user.
A switching system comprising a low, medium or high voltage switch and a charging device, comprising: - a main spring of the switch; - a spring support of the switch; - a main shaft of the switch; and - a motor of the charging device; wherein, a first end of the main spring is connected to the spring support; wherein, a second end of the main spring is connected to the main shaft; wherein, the spring support is configured to rotate about an axis of the main shaft; wherein, at least part of a circumference of the spring support comprises a thread ; wherein, the motor comprises a worm thread configured to engage with the thread of the spring support; wherein, the motor is configured to rotate the worm thread, and wherein rotation of the worm thread is configured to rotate the spring support to store energy in the main spring; wherein, the motor is configured not to rotate the worm thread when the energy stored in the main spring has reached a threshold level; wherein, energy release from the main spring is configured to rotate the main shaft; characterized in that a mounting of the motor is configured to enable the motor to move, and wherein when the energy stored in the main spring has reached the threshold level the motor is configured not to rotate the worm thread when the motor has moved a threshold distance. - a main spring of the switch; - a spring support of the switch; - a main shaft of the switch; and - a motor of the charging device; wherein, a first end of the main spring is connected to the spring support; wherein, a second end of the main spring is connected to the main shaft; wherein, the spring support is configured to rotate about an axis of the main shaft; wherein, at least part of a circumference of the spring support comprises a thread ; wherein, the motor comprises a worm thread configured to engage with the thread of the spring support; wherein, the motor is configured to rotate the worm thread, and wherein rotation of the worm thread is configured to rotate the spring support to store energy in the main spring; wherein, the motor is configured not to rotate the worm thread when the energy stored in the main spring has reached a threshold level; wherein, energy release from the main spring is configured to rotate the main shaft; characterized in that a mounting of the motor is configured to enable the motor to move, and wherein when the energy stored in the main spring has reached the threshold level the motor is configured not to rotate the worm thread when the motor has moved a threshold distance.
A method comprising: providing, by a token server computer , a cryptographic key to a mobile application provider computer ; receiving, by the token server computer from a mobile device via the mobile application provider computer , a token request message including encrypted user data associated with a user of the mobile device , wherein the encrypted user data is generated using the cryptographic key; decrypting, by the token server computer , the encrypted user data using the cryptographic key to obtain user data; identifying, by the token server computer , an account associated with the user data; generating, by the token server computer , a token associated with the account; storing, by the token server computer , the token; and sending, by the token server computer via the mobile application provider computer , the token to the mobile device . providing, by a token server computer , a cryptographic key to a mobile application provider computer ; receiving, by the token server computer from a mobile device via the mobile application provider computer , a token request message including encrypted user data associated with a user of the mobile device , wherein the encrypted user data is generated using the cryptographic key; decrypting, by the token server computer , the encrypted user data using the cryptographic key to obtain user data; identifying, by the token server computer , an account associated with the user data; generating, by the token server computer , a token associated with the account; storing, by the token server computer , the token; and sending, by the token server computer via the mobile application provider computer , the token to the mobile device .
DMD module , consisting of a holding frame , a DMD element inserted therein, a plate-shaped Peltier element , which bears with one side against the rear side of the DMD element in a thermally conductive manner and has electrical connections, a printed circuit board and a heat sink , which is in thermally conductive contact with the other side of the Peltier element, wherein the printed circuit board is arranged between the DMD element and the heat sink and has a recess for the Peltier element , characterized in that spring contacts (11 a, b, 12 a, b) and contact surfaces are provided for the electrical connection of the Peltier element to the printed circuit board, the spring contacts bearing resiliently against the contact surfaces when the DMD module is assembled, and in that at least two retaining bolts protrude from the retaining frame and pass through the printed circuit board and the heat sink , which retaining bolts have stops for helical springs which lie between the stops and the heat sink and resiliently hold the heat sink , the Peltier element and the DMD element together, the arrangement being pressed together by the force of the coil springs , the electrical connections of the Peltier element comprising the at least two electrical contact surfaces and the at least two spring contacts (11 a,b, 12 a,b) are arranged on the printed circuit board for supplying current to the Peltier element , the at least two electrical contact surfaces being arranged on a contact carrier projecting from the Peltier element , wherein the holding frame has an opening in the region of the DMD element . the printed circuit board is arranged between the DMD element and the heat sink and has a recess for the Peltier element , characterized in that spring contacts (11 a, b, 12 a, b) and contact surfaces are provided for the electrical connection of the Peltier element to the printed circuit board, the spring contacts bearing resiliently against the contact surfaces when the DMD module is assembled, and in that at least two retaining bolts protrude from the retaining frame and pass through the printed circuit board and the heat sink , which retaining bolts have stops for helical springs which lie between the stops and the heat sink and resiliently hold the heat sink , the Peltier element and the DMD element together, the arrangement being pressed together by the force of the coil springs , the electrical connections of the Peltier element comprising the at least two electrical contact surfaces and the at least two spring contacts (11 a,b, 12 a,b) are arranged on the printed circuit board for supplying current to the Peltier element , the at least two electrical contact surfaces being arranged on a contact carrier projecting from the Peltier element , wherein the holding frame has an opening in the region of the DMD element .
A vehicle mounted energy generator and storage system comprising: an air inlet facing a front of the vehicle through which incoming air enters when the vehicle is moving forward; a turbine assembly including a barrel impeller and one or more air vanes positioned on the barrel impeller such that the incoming air flowing through the air inlet applies positive pressure to a front of the one or more air vanes to turn the barrel impeller and to drive one or more generator/transmission assemblies to supply electric power to one or more battery packs or to provide a direct electric power source to operate the vehicle; and an evacuation blower applying negative air pressure to a rear of the one or more air vanes by evacuating incoming air through one or more air outlets not facing the front of the vehicle, further including a housing surrounding the turbine assembly ; wherein the housing includes one or more back-pressure relief vent holes , characterized in that the evacuation blower is located in a chamber and fed air flow through a first opening to a passage creating a low-pressure environment on the second side of the turbine assembly in fluid communication with the one or more back-pressure relief vent holes , creating a negative pressure environment on the second side of the turbine assembly and surrounding the upper half of the turbine assembly . an air inlet facing a front of the vehicle through which incoming air enters when the vehicle is moving forward; a turbine assembly including a barrel impeller and one or more air vanes positioned on the barrel impeller such that the incoming air flowing through the air inlet applies positive pressure to a front of the one or more air vanes to turn the barrel impeller and to drive one or more generator/transmission assemblies to supply electric power to one or more battery packs or to provide a direct electric power source to operate the vehicle; and an evacuation blower applying negative air pressure to a rear of the one or more air vanes by evacuating incoming air through one or more air outlets not facing the front of the vehicle, further including a housing surrounding the turbine assembly ; wherein the housing includes one or more back-pressure relief vent holes , characterized in that
Bracing system for the reinforcement of excavation pits with minimal hindrance in the excavation area of the excavation pit due to the reinforcement, whereby a large contiguous opening of the excavation pit can be produced for the vertical transport of loads, wherein the bracing system comprises at least one bracing in the form of a convex polygon or polygon segment with sides and corners , at least one polygon side element made of steel and at least one other steel element, characterized in that the bracing system also comprises at least one steel pressure element in the form of a connecting element made of steel with an assembly table , wherein the assembly table is a planar surface, onto which elements of the bracing system can be placed.
A composition for forming a curable polymer composition comprising: (A) a polymer having at least a reactive silyl group; (B) a crosslinker or chain extender; and (C) a condensation accelerator comprising a metal-arene complex, (D) optionally an adhesion promotor, (E) optionally a filler, and (F) optionally at least one acidic compound chosen from a phosphate ester, a phosphonate ester, a phosphonic acid, a phosphorous acid, a phosphite, a phosphonite ester, a sulfate, a sulfite, a pseudohalogenide, a branched C 4 -C 25 alkyl carboxylic acid, or a combination of two or more thereof (A) a polymer having at least a reactive silyl group; (B) a crosslinker or chain extender; and (C) a condensation accelerator comprising a metal-arene complex, (D) optionally an adhesion promotor, (E) optionally a filler, and (F) optionally at least one acidic compound chosen from a phosphate ester, a phosphonate ester, a phosphonic acid, a phosphorous acid, a phosphite, a phosphonite ester, a sulfate, a sulfite, a pseudohalogenide, a branched C 4 -C 25 alkyl carboxylic acid, or a combination of two or more thereof
A process for printing a colour image on a stone tile, comprising: - preparation of a stone tile, comprising: ▪ cutting the tile having any shape from a larger piece of stone, preferably granite or marble; ▪ fine processing of edges and front surface of the stone tile; - protecting the edges with a protective foil around the circumference of the tile; - placing the prepared stone tile into a UV printer, which has a loaded image to be printed; - printing a colour image with the UV printer; and - removing the protective foil and final polishing of edges; characterized in that during preparation of the stone tile for printing, the front surface of the said tile is grinded or sanded to a selected roughness achieved with a grinding paper having granulation from 100 to 200, which is suitable for application of colour with the UV printer. - preparation of a stone tile, comprising: ▪ cutting the tile having any shape from a larger piece of stone, preferably granite or marble; ▪ fine processing of edges and front surface of the stone tile; ▪ cutting the tile having any shape from a larger piece of stone, preferably granite or marble; ▪ fine processing of edges and front surface of the stone tile; - protecting the edges with a protective foil around the circumference of the tile; - placing the prepared stone tile into a UV printer, which has a loaded image to be printed; - printing a colour image with the UV printer; and - removing the protective foil and final polishing of edges;
A method for determining a position of a movable object in space for locating this object, comprising: generating an electromagnetic exciter field, the electromagnetic exciter field being configured to excite the movable object to develop a magnetic response field; and determining a plurality of measurement values for the magnetic response field by measuring the magnetic response field at a plurality of predetermined measurement positions; characterized by determining the position of the movable object based on a comparison of the plurality of measurement values with reference measurement values, wherein one position of the movable object is allocated to each of the reference measurement values, and wherein the reference measurement values are each determined by a simulation. generating an electromagnetic exciter field, the electromagnetic exciter field being configured to excite the movable object to develop a magnetic response field; and determining a plurality of measurement values for the magnetic response field by measuring the magnetic response field at a plurality of predetermined measurement positions; characterized by determining the position of the movable object based on a comparison of the plurality of measurement values with reference measurement values, wherein one position of the movable object is allocated to each of the reference measurement values, and wherein the reference measurement values are each determined by a simulation.
An audio apparatus comprising: a receiver for receiving data describing an audio scene, the data comprising audio data for a set of audio elements corresponding to audio sources in the scene and metadata comprising at least a first audio rendering property indicator for a first audio element of the set of audio elements; a first renderer for rendering audio elements by generating a first set of audio signals for a set of loudspeakers; a second renderer for rendering audio elements by generating a second set of audio signals for a headphone; and a selector arranged to select between the first renderer and the second renderer for rendering of at least a first part of the first audio element in response to the first audio rendering property indicator; characterized in that the first audio rendering property indicator is indicative of whether the first part of the first audio element represents an audio source with a spatial property that has a fixed to head orientation and is intended to have a fixed location relative to a user's head or represents an audio source with a spatial property that has a not-fixed to head orientation and is intended to have a fixed location in an environment. a receiver for receiving data describing an audio scene, the data comprising audio data for a set of audio elements corresponding to audio sources in the scene and metadata comprising at least a first audio rendering property indicator for a first audio element of the set of audio elements; a first renderer for rendering audio elements by generating a first set of audio signals for a set of loudspeakers; a second renderer for rendering audio elements by generating a second set of audio signals for a headphone; and a selector arranged to select between the first renderer and the second renderer for rendering of at least a first part of the first audio element in response to the first audio rendering property indicator; characterized in that the first audio rendering property indicator is indicative of whether the first part of the first audio element represents an audio source with a spatial property that has a fixed to head orientation and is intended to have a fixed location relative to a user's head or represents an audio source with a spatial property that has a not-fixed to head orientation and is intended to have a fixed location in an environment.
A pharmaceutical composition comprising an effective amount of a compound of Formula (II): or a pharmaceutically acceptable salt thereof, wherein R 1 is -H, -OH, -NH 2 , -N(alkyl)(alkyl), hydrocarbyl, -O-hydrocarbyl, aryl, -O-aryl, aralkyl, -O-aralkyl, heteroaryl, -O-heteroaryl, heterocyclyl, -O-heterocyclyl, halo, -OCF 3 ,-C(O)O(alkyl), -OC(O)(alkyl), -C(O)NH 2 , -C(O)NH(alkyl), -C(O)N(alkyl)(alkyl),-NHC(O)(alkyl), -N(alkyl)C(O)(alkyl), -OC(O)O(alkyl), -OC(O)NH 2 , -OC(O)NH(alkyl),-OC(O)N(alkyl)(alkyl), -CHNH, -CHN(alkyl), -SO 2 NH 2 ; and a pharmaceutically acceptable vehicle or carrier. R 1 is -H, -OH, -NH 2 , -N(alkyl)(alkyl), hydrocarbyl, -O-hydrocarbyl, aryl, -O-aryl, aralkyl, -O-aralkyl, heteroaryl, -O-heteroaryl, heterocyclyl, -O-heterocyclyl, halo, -OCF 3 ,-C(O)O(alkyl), -OC(O)(alkyl), -C(O)NH 2 , -C(O)NH(alkyl), -C(O)N(alkyl)(alkyl),-NHC(O)(alkyl), -N(alkyl)C(O)(alkyl), -OC(O)O(alkyl), -OC(O)NH 2 , -OC(O)NH(alkyl),-OC(O)N(alkyl)(alkyl), -CHNH, -CHN(alkyl), -SO 2 NH 2 ; and a pharmaceutically acceptable vehicle or carrier.
A flow rate measurement apparatus which measures a flow rate of a sample flowing in a long flow cell, the apparatus comprising: a light oscillator ; a thin metallic film which causes surface plasmon resonance (SPR) by light output from the light oscillator , the thin metallic film having antibody fixed areas to which an antibody is fixed and reference areas to which an antibody is not fixed, the antibody fixed areas and the reference areas being alternately arranged at a location along a focal line location on the thin metallic film ; a focusing unit which fixes the thin metallic film and converts the output light of the light oscillator into incident light having a plurality of incident angles to focus the incident light at the focal line location in a straight line shape on the thin metallic film ; a light receiver which is a CCD, Charge Coupled Device, camera, and which receives reflected light, at the focal line location, of the output light by surface plasmon resonance occurring at the focal line location, at each of the plurality of incident light angles; a flow rate operation unit which calculates the flow rate of the sample flowing in the flow cell; an SPR angle calculator which obtains a temporal change of an SPR angle in each of the antibody fixed areas and the reference areas in the thin metallic film ; and the flow rate operation unit calculates, by using an image process algorithm, the flow rate of the sample flowing in the flow cell based on the temporal change of the SPR angle obtained by the SPR angle calculator . a light oscillator ; a thin metallic film which causes surface plasmon resonance (SPR) by light output from the light oscillator , the thin metallic film having antibody fixed areas to which an antibody is fixed and reference areas to which an antibody is not fixed, the antibody fixed areas and the reference areas being alternately arranged at a location along a focal line location on the thin metallic film ; a focusing unit which fixes the thin metallic film and converts the output light of the light oscillator into incident light having a plurality of incident angles to focus the incident light at the focal line location in a straight line shape on the thin metallic film ; a light receiver which is a CCD, Charge Coupled Device, camera, and which receives reflected light, at the focal line location, of the output light by surface plasmon resonance occurring at the focal line location, at each of the plurality of incident light angles; a flow rate operation unit which calculates the flow rate of the sample flowing in the flow cell; an SPR angle calculator which obtains a temporal change of an SPR angle in each of the antibody fixed areas and the reference areas in the thin metallic film ; and the flow rate operation unit calculates, by using an image process algorithm, the flow rate of the sample flowing in the flow cell based on the temporal change of the SPR angle obtained by the SPR angle calculator .