mhurhangee/ep-ind-claims huggingface dataset:
Computer program for constructing a digital representation of a physical environment on a mobile device, comprising: a user input module configured to receive user input data through a user interface; a camera and sensor module configured to receive image data from a camera and depth information from a depth sensor or to receive image data and depth information from a depth camera; a structural model generator module configured to receive the user input data from the user input module and the image data and the depth information from the camera and sensor module; wherein the structural model generator module is further configured: to combine the user input data and the image data and the depth information to generate a structural model of the physical environment, wherein the structural model comprises at least one modeled structure; and to associate the at least one modeled structure with semantic information based on the user input data, wherein the semantic information is configured to define at least one function of the at least one modeled structure, wherein the at least one function comprises at least one of: a transparency, a rotation vector, a range of turn, a positional constraint and a sliding direction vector. a user input module configured to receive user input data through a user interface; a camera and sensor module configured to receive image data from a camera and depth information from a depth sensor or to receive image data and depth information from a depth camera; a structural model generator module configured to receive the user input data from the user input module and the image data and the depth information from the camera and sensor module; wherein the structural model generator module is further configured: to combine the user input data and the image data and the depth information to generate a structural model of the physical environment, wherein the structural model comprises at least one modeled structure; and to associate the at least one modeled structure with semantic information based on the user input data, wherein the semantic information is configured to define at least one function of the at least one modeled structure, wherein the at least one function comprises at least one of: a transparency, a rotation vector, a range of turn, a positional constraint and a sliding direction vector. to combine the user input data and the image data and the depth information to generate a structural model of the physical environment, wherein the structural model comprises at least one modeled structure; and to associate the at least one modeled structure with semantic information based on the user input data, wherein the semantic information is configured to define at least one function of the at least one modeled structure, wherein the at least one function comprises at least one of: a transparency, a rotation vector, a range of turn, a positional constraint and a sliding direction vector.
Capping machine for closing bottles with crown caps, comprising a base, on which a bottom of the bottle rests, a fixed frame comprising two uprights (11, 12) inside which the bottle to be capped is positioned, and a movable frame at the top of which a capping mechanism is integrated comprising a control lever adapted to operate a head by imparting to said head a vertical motion and a pressure force which is transferred to the crown cap arranged on the mouth of the bottle to be capped, wherein said movable frame is configured to be manually translated in a vertical direction along the fixed frame, so as to bring the capping mechanism to the correct working height according to the height of the bottle to be capped, characterized in that said capping machine comprises locking means of a removable type, configured to engage/disengage simultaneously with the movable frame and with the fixed frame to lock said movable frame in the working position. said movable frame is configured to be manually translated in a vertical direction along the fixed frame, so as to bring the capping mechanism to the correct working height according to the height of the bottle to be capped, characterized in that said capping machine comprises locking means of a removable type, configured to engage/disengage simultaneously with the movable frame and with the fixed frame to lock said movable frame in the working position.
A method performed by a vehicle system for handling conditions of a road on which a vehicle travels, the method comprising: detecting that a first part of the road has a first condition which is different from a second condition of a second part of the road; estimating friction of the first part; evaluating the estimated friction; determining that the vehicle's motion should be adjusted when a result of the evaluation indicates that the estimated friction of the first part of the road affects the vehicle's expected motion; and initiating adjustment of the vehicle's motion on the road as determined, the method being characterized by creating a map of a plurality of roads indicating the first parts which have friction that affects the vehicle's expected motion, wherein the first parts are patches or tracks, wherein the map is accessible to a plurality of vehicles by a cloud computer adapted to distribute the map. detecting that a first part of the road has a first condition which is different from a second condition of a second part of the road; estimating friction of the first part; evaluating the estimated friction; determining that the vehicle's motion should be adjusted when a result of the evaluation indicates that the estimated friction of the first part of the road affects the vehicle's expected motion; and initiating adjustment of the vehicle's motion on the road as determined,
A method comprising: receiving, by a wireless device, at least one radio resource control message comprising uplink periodic resource allocation configuration parameters indicating a hybrid automatic repeat request, HARQ, process identifier offset; determining a HARQ process identifier for a current transmission time interval based on the HARQ process identifier offset; and transmitting a transport block associated with a HARQ process identified by the HARQ process identifier. receiving, by a wireless device, at least one radio resource control message comprising uplink periodic resource allocation configuration parameters indicating a hybrid automatic repeat request, HARQ, process identifier offset; determining a HARQ process identifier for a current transmission time interval based on the HARQ process identifier offset; and transmitting a transport block associated with a HARQ process identified by the HARQ process identifier.
A single-use package with a contact lens therein, wherein the package has an internal depth which is less than an overall sagittal depth of the contact lens when the contact lens is in its equilibrated state; wherein the package has a first space containing a hydration medium; wherein the lens is in the first space; and characterized in that the package has a second space also containing a hydration medium; the second space containing the hydration medium may be opened at a time selected from the group consisting of before, after and during removal of the lens; and the package satisfies lens packaging criteria, including sterility and capable of autoclave sterilization; an in that the the package includes two sheets (14, 15) of material sealed together to form said first space and said second space.
A method, comprising: communicating signals to and/or from a shaft assembly, comprising a shaft, via a helical antenna component (520, 530), wherein: the helical antenna component surrounds the shaft, and the helical antenna component is electrically decoupled from the shaft; characterised in that the helical antenna component comprises a plurality of helical antennas (520, 530), such that each of the plurality of helical antennas utilizes one of a plurality of separate, distinct, closely spaced narrow band frequencies, to provide signal separation and diversity. communicating signals to and/or from a shaft assembly, comprising a shaft, via a helical antenna component (520, 530), wherein: the helical antenna component surrounds the shaft, and the helical antenna component is electrically decoupled from the shaft; characterised in that the helical antenna component comprises a plurality of helical antennas (520, 530), such that each of the plurality of helical antennas utilizes one of a plurality of separate, distinct, closely spaced narrow band frequencies, to provide signal separation and diversity. the helical antenna component surrounds the shaft, and the helical antenna component is electrically decoupled from the shaft; characterised in that the helical antenna component comprises a plurality of helical antennas (520, 530), such that each of the plurality of helical antennas utilizes one of a plurality of separate, distinct, closely spaced narrow band frequencies, to provide signal separation and diversity.
A method for configuring an access control policy by a Common Service Entity in an Internet of Things, comprising: receiving from an Application Entity a request for creating a target resource; determining, based on the request, whether an access control policy inheritance attribute is set for the target resource in the request, wherein the access control policy inheritance attribute indicates an inheritance relationship between access control policies of the target resource and its parent resource; and configuring the access control policy of the target resource according to a result of the determination, wherein said configuring includes: setting an access control policy identification attribute of the target resource according to an extracted access control policy inheritance attribute value during creation of the target resource when the access control policy inheritance attribute value is extracted from the request. receiving from an Application Entity a request for creating a target resource; determining, based on the request, whether an access control policy inheritance attribute is set for the target resource in the request, wherein the access control policy inheritance attribute indicates an inheritance relationship between access control policies of the target resource and its parent resource; and configuring the access control policy of the target resource according to a result of the determination, wherein said configuring includes: setting an access control policy identification attribute of the target resource according to an extracted access control policy inheritance attribute value during creation of the target resource when the access control policy inheritance attribute value is extracted from the request.
A vehicle lamp, comprising: a light source; a lens disposed on a front side of the light source and having a front surface and a rear surface which is opposite to the front surface and faces the light source, wherein the lens has a convex lens shape, and a curvature of the rear surface is larger than that of the front surface; and a reflector (26L, 26R) disposed on a rear side of the lens and configured to reflect direct light emitted from the light source toward the lens, wherein the vehicle lamp is configured to form a light distribution pattern by controlling a deflection of the direct light using the lens, and wherein a flange portion is formed in the front end of the reflector (26L, 26R), said flange portion being fixed to an outer peripheral edge of the lens, characterized in that the reflector (26R, 26L) has a multistage reflective surface, and the multistage reflective surface has reflective surfaces (26a1, 26a2, 26a3) extending vertically in a stripe shape and being arranged in a stepwise manner. a light source; a lens disposed on a front side of the light source and having a front surface and a rear surface which is opposite to the front surface and faces the light source, wherein the lens has a convex lens shape, and a curvature of the rear surface is larger than that of the front surface; and a reflector (26L, 26R) disposed on a rear side of the lens and configured to reflect direct light emitted from the light source toward the lens, wherein the vehicle lamp is configured to form a light distribution pattern by controlling a deflection of the direct light using the lens, and wherein a flange portion is formed in the front end of the reflector (26L, 26R), said flange portion being fixed to an outer peripheral edge of the lens, characterized in that the reflector (26R, 26L) has a multistage reflective surface, and the multistage reflective surface has reflective surfaces (26a1, 26a2, 26a3) extending vertically in a stripe shape and being arranged in a stepwise manner.
An in vitro or ex vivo method for promoting entry of an agent to be introduced into a cell, the method comprising the step of exposing the cell to the agent to be introduced in the presence of an entry-promoting agent, wherein the entry-promoting agent is Polyhexamethylene biguanide (PHMB); wherein the agent to be introduced is selected from the group consisting of: a) an oligonucleotide, plasmid DNA or an RNAi molecule; or b) a polypeptide, optionally a peptide; or c) a small drug with a molecular weight of less than 2000 Da, optionally less than 1000 Da, or a diagnostic/imaging tool or probe; and wherein the agent to be introduced and the entry-promoting agent are provided as nanoparticles consisting of the entry-promoting agent and the agent to be introduced. wherein the entry-promoting agent is Polyhexamethylene biguanide (PHMB); wherein the agent to be introduced is selected from the group consisting of: a) an oligonucleotide, plasmid DNA or an RNAi molecule; or b) a polypeptide, optionally a peptide; or c) a small drug with a molecular weight of less than 2000 Da, optionally less than 1000 Da, or a diagnostic/imaging tool or probe; and a) an oligonucleotide, plasmid DNA or an RNAi molecule; or b) a polypeptide, optionally a peptide; or c) a small drug with a molecular weight of less than 2000 Da, optionally less than 1000 Da, or a diagnostic/imaging tool or probe; and wherein the agent to be introduced and the entry-promoting agent are provided as nanoparticles consisting of the entry-promoting agent and the agent to be introduced.
A method, comprising: receiving, by a network node, a session update request comprising a temporary mobile group identity, TMGI, pointing to a currently active multimedia broadcast/multimedia service, MBMS, session and a new quality of service, QoS, requirement, and updating the multimedia broadcast/multimedia service, MBMS, bearer context with the new quality of service, QoS, requirement. receiving, by a network node, a session update request comprising a temporary mobile group identity, TMGI, pointing to a currently active multimedia broadcast/multimedia service, MBMS, session and a new quality of service, QoS, requirement, and updating the multimedia broadcast/multimedia service, MBMS, bearer context with the new quality of service, QoS, requirement.
Sensor facility for determining a switching state of an electromechanical switching element, having: - at least two connection elements (14, 16) for electrically contacting two respective connection contacts (18, 20) of the electromechanical switching element, - at least one coupling capacitor having a first and a second capacitor connection (24, 26), wherein the first capacitor connection is electrically coupled to a first one of the connection elements, - a voltage generator so as to provide a temporally variable electrical voltage, wherein the voltage generator is electrically coupled to the second capacitor connection, characterised by - a first overvoltage protection circuit that is electrically coupled to a second one of the connection elements and said overvoltage protection circuit is designed so as to block an electrical voltage that has a value that is greater than a maximum value of the temporally variable electrical voltage of the voltage generator, and - a detector circuit that is electrically coupled to the first overvoltage protection circuit and said detector circuit is designed so as to detect electrical voltage and to determine the switching state of the electromechanical switching element by evaluating the detected electrical voltage. - at least two connection elements (14, 16) for electrically contacting two respective connection contacts (18, 20) of the electromechanical switching element, - at least one coupling capacitor having a first and a second capacitor connection (24, 26), wherein the first capacitor connection is electrically coupled to a first one of the connection elements, - a voltage generator so as to provide a temporally variable electrical voltage, wherein the voltage generator is electrically coupled to the second capacitor connection, characterised by - a first overvoltage protection circuit that is electrically coupled to a second one of the connection elements and said overvoltage protection circuit is designed so as to block an electrical voltage that has a value that is greater than a maximum value of the temporally variable electrical voltage of the voltage generator, and - a detector circuit that is electrically coupled to the first overvoltage protection circuit and said detector circuit is designed so as to detect electrical voltage and to determine the switching state of the electromechanical switching element by evaluating the detected electrical voltage.
A turbine engine assembly comprising: a casing having opposing first and second surfaces (48, 58), with a first manifold opening passing through the first and second surfaces (48, 58); a surface cooler adjacent the first surface to define an intervening gap and having a cooler manifold passing through the first manifold opening; a thermal seal circumscribing the first manifold opening; characterized in that: the thermal seal has a peripheral bead received within the gap; wherein the thermal seal comprises a second manifold opening, aligned with the first manifold opening, and the cooler manifold passes through the first and second manifold openings (76, 108); and wherein the thermal seal further comprises resilient fingers abutting the cooler manifold, wherein the fingers are biased to apply opposing forces to the cooler manifold. a casing having opposing first and second surfaces (48, 58), with a first manifold opening passing through the first and second surfaces (48, 58); a surface cooler adjacent the first surface to define an intervening gap and having a cooler manifold passing through the first manifold opening; a thermal seal circumscribing the first manifold opening; characterized in that: the thermal seal has a peripheral bead received within the gap; wherein the thermal seal comprises a second manifold opening, aligned with the first manifold opening, and the cooler manifold passes through the first and second manifold openings (76, 108); and wherein the thermal seal further comprises resilient fingers abutting the cooler manifold, wherein the fingers are biased to apply opposing forces to the cooler manifold.
A method of forming threads in a wooden part, wherein a cutter is moved at least one turn along the inner surface of an opening of the wooden part at the same time as the cutter moves longitudinally along the opening and gives the threads a conical shape formed by: - the shape of the cutter, such that the cutter has a number of cutting edges that are perpendicular to a longitudinal centre axis of the milling cutter and that the outer diameter of each cutting edge is smaller than the outer diameter of the cutting edge placed next to it; and - moving the milling cutter inwards or outwards in relation to a centre axis of the opening, characterized in that the cutter is a milling cutter, and in that it is given a helical movement. - the shape of the cutter, such that the cutter has a number of cutting edges that are perpendicular to a longitudinal centre axis of the milling cutter and that the outer diameter of each cutting edge is smaller than the outer diameter of the cutting edge placed next to it; and - moving the milling cutter inwards or outwards in relation to a centre axis of the opening, characterized in that the cutter is a milling cutter, and in that it is given a helical movement.
A method for providing a process temperature output in a process temperature transmitter, the method comprising: providing a measurement current through a circuit including a reference resistor and a resistance temperature device; measuring a first voltage across the reference resistor while the measurement current flows therethrough; measuring a first voltage across the RTD while the measurement current flows therethrough; calculating a first resistance of the RTD based on the measured voltage across the reference resistor and the measured first voltage across the RTD providing a first process temperature output based on the first resistance of the RTD; measuring a second voltage across the RTD while a measurement current flows therethrough, the second measurement occurring after measurement of the first voltage; the method being characterised in that it comprises: estimating a second voltage across the reference resistor based on the measured second voltage across the RTD and the measured first voltage across the reference resistor; calculating a second resistance across the RTD based on the measured second voltage and the estimated second voltage across the reference resistor; and providing a second process temperature output based on the second resistance. providing a measurement current through a circuit including a reference resistor and a resistance temperature device; measuring a first voltage across the reference resistor while the measurement current flows therethrough; measuring a first voltage across the RTD while the measurement current flows therethrough; calculating a first resistance of the RTD based on the measured voltage across the reference resistor and the measured first voltage across the RTD providing a first process temperature output based on the first resistance of the RTD; measuring a second voltage across the RTD while a measurement current flows therethrough, the second measurement occurring after measurement of the first voltage; the method being characterised in that it comprises: estimating a second voltage across the reference resistor based on the measured second voltage across the RTD and the measured first voltage across the reference resistor; calculating a second resistance across the RTD based on the measured second voltage and the estimated second voltage across the reference resistor; and providing a second process temperature output based on the second resistance. estimating a second voltage across the reference resistor based on the measured second voltage across the RTD and the measured first voltage across the reference resistor; calculating a second resistance across the RTD based on the measured second voltage and the estimated second voltage across the reference resistor; and providing a second process temperature output based on the second resistance.