mhurhangee/ep-ind-claims huggingface dataset:
An optical anti-counterfeiting element, comprising: a substrate, having a first surface and a second surface which are opposite to each other; and an interference color layer located on the first surface of the substrate, the interference color layer is located in a non-hollow area of the optical anti-counterfeiting element and is not located in a hollow area, the interference color layer is a Fabry-Perot filter structure, an absorbing layer of the Fabry-Perot filter structure is in contact with the substrate, and a material of the absorbing layer is an alloy, characterized in that the alloy is formed by at least two metals, one metal forming the alloy is a gray metal, and another metal is a metal susceptible to corrosion by solution, so that when manufacturing the optical anti-counterfeiting element, the interference color layer in a hollow area is corroded completely to realize all hollowing of the interference color layer while keeping high color saturation of the optical anti-counterfeiting element. a substrate, having a first surface and a second surface which are opposite to each other; and an interference color layer located on the first surface of the substrate, the interference color layer is located in a non-hollow area of the optical anti-counterfeiting element and is not located in a hollow area, the interference color layer is a Fabry-Perot filter structure, an absorbing layer of the Fabry-Perot filter structure is in contact with the substrate, and a material of the absorbing layer is an alloy, characterized in that the alloy is formed by at least two metals, one metal forming the alloy is a gray metal, and another metal is a metal susceptible to corrosion by solution, so that when manufacturing the optical anti-counterfeiting element, the interference color layer in a hollow area is corroded completely to realize all hollowing of the interference color layer while keeping high color saturation of the optical anti-counterfeiting element.
ttachment element for a noise protection wall, having an essentially prismatic body which has a head portion with an essentially trapezoidal cross-section, from the narrow side of which a wall portion with an essentially rectangular cross-section projects downwards, characterised in that a solar panel extending over the entire length of the prismatic body is fastened to the broad side of the head portion, the fastening of the solar panel being effected by preferably punctiform supports spaced from one another along opposite edges of the broad side of the head portion, whereby a cabling is provided below the solar panel between the opposite supports.
A method for automatic bootstrapping of a device (3 1,..., 3 N), the method being performed by a provisioning node connected to a subscription manager, the method comprising: - receiving a provisioning profile request from the device (3 1,..., 3 N), the provisioning profile request comprising an identifier of the device (3 1, 3 N), - authenticating the device (3 1,..., 3 N), - obtaining, based on the identifier of the device (3 1,..., 3 N), a provisioning profile for the device (3 1,..., 3 N), wherein the obtaining the provisioning profile for the device (3 1, 3 N) comprises matching the identifier of the device (3 1,..., 3 N) to the provisioning profile and retrieving the provisioning profile from a data storage, and - sending the provisioning profile to the device (3 1,..., 3 N). - receiving a provisioning profile request from the device (3 1,..., 3 N), the provisioning profile request comprising an identifier of the device (3 1, 3 N), - authenticating the device (3 1,..., 3 N), - obtaining, based on the identifier of the device (3 1,..., 3 N), a provisioning profile for the device (3 1,..., 3 N), wherein the obtaining the provisioning profile for the device (3 1, 3 N) comprises matching the identifier of the device (3 1,..., 3 N) to the provisioning profile and retrieving the provisioning profile from a data storage, and - sending the provisioning profile to the device (3 1,..., 3 N).
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: the WTRU receiving a radio resource control, RRC, configuration message, wherein the RRC configuration message indicates that a third serving cell is scheduled when a carrier indicator field, CIF, value is received via a first serving cell and that a fourth serving cell is scheduled when the CIF value is received via a second serving cell; the WTRU receiving a first downlink control information, DCI, via a first downlink control channel of the first serving cell, wherein the first DCI comprises the CIF value; the WTRU determining that the first DCI comprises scheduling information for the third serving cell based on the first DCI comprising the CIF value and the RRC configuration message; the WTRU performing a first wireless communication based on the determination that the first DCI comprises the scheduling information for the third serving cell; the WTRU receiving a second DCI via a second downlink control channel of the second serving cell, wherein the second DCI comprises the CIF value; the WTRU determining that the second DCI comprises scheduling information for the fourth serving cell based on the second DCI comprising the CIF value and the RRC configuration message; and the WTRU performing a second wireless communication based on the determination that the second DCI comprises the scheduling information for the fourth serving cell. the WTRU receiving a radio resource control, RRC, configuration message, wherein the RRC configuration message indicates that a third serving cell is scheduled when a carrier indicator field, CIF, value is received via a first serving cell and that a fourth serving cell is scheduled when the CIF value is received via a second serving cell; the WTRU receiving a first downlink control information, DCI, via a first downlink control channel of the first serving cell, wherein the first DCI comprises the CIF value; the WTRU determining that the first DCI comprises scheduling information for the third serving cell based on the first DCI comprising the CIF value and the RRC configuration message; the WTRU performing a first wireless communication based on the determination that the first DCI comprises the scheduling information for the third serving cell; the WTRU receiving a second DCI via a second downlink control channel of the second serving cell, wherein the second DCI comprises the CIF value; the WTRU determining that the second DCI comprises scheduling information for the fourth serving cell based on the second DCI comprising the CIF value and the RRC configuration message; and the WTRU performing a second wireless communication based on the determination that the second DCI comprises the scheduling information for the fourth serving cell.
A method comprising: identifying a frame of a spherical video as a key frame; storing a compensation component based on position data of a camera in association with the key frame; and compensating for a movement of the camera in a subsequent frame of the spherical video based on the key frame and the compensation component associated with the key frame; and determining whether the spherical video was captured as partial spherical data, and in response to determining the spherical video was captured as partial spherical data, set pixels of rows of the movement compensated subsequent frame outside a display region of a user device to a default value, the default value indicating to a rendering device that said rows contain blank data that is not to be replaced with image data. identifying a frame of a spherical video as a key frame; storing a compensation component based on position data of a camera in association with the key frame; and compensating for a movement of the camera in a subsequent frame of the spherical video based on the key frame and the compensation component associated with the key frame; and determining whether the spherical video was captured as partial spherical data, and in response to determining the spherical video was captured as partial spherical data, set pixels of rows of the movement compensated subsequent frame outside a display region of a user device to a default value, the default value indicating to a rendering device that said rows contain blank data that is not to be replaced with image data.
Ball, which comprises a ball cover composed of a number of panels, wherein the panels are applied directly or indirectly to a carrier body, wherein the panels have at least one material layer which consists of plastic or comprises plastic, characterized in that the plastic material of the at least one layer of the panels is expanded thermoplastic polyurethane (E-TPU), wherein the expanded thermoplastic polyurethane (E-TPU) consists of single plastic bodies which are connected thermally or by means of a binder and wherein the single plastic bodies have an extension (a, b, c) in the three spatial directions between 2 mm and 15 mm.
A method performed by a processing unit on-board and/or remote from a vehicle, the method comprising: • obtaining a first video from an external-facing camera mounted to the vehicle; • detecting an object from the first video; • determining an object parameter for the object from the first video; • obtaining a second video from an internal-facing camera mounted to the vehicle; • determining an operator behavior based on an analysis of the second video; • generating a risk map of a monitored region for the vehicle, the risk map comprising a risk score for each sub-region within the monitored region, the risk score for each sub-region being indicative of a collision risk within the respective sub-region, a collision probability within the respective sub-region, or a safety of the vehicle within the respective sub-region, wherein the risk score for each sub-region is calculated based on the operator behavior and the object parameter, wherein the monitored region is a region proximal to the vehicle only within a field of view of the external facing camera; and • detecting a near-collision event based on the risk score for each sub-region within the monitored region. • obtaining a first video from an external-facing camera mounted to the vehicle; • detecting an object from the first video; • determining an object parameter for the object from the first video; • obtaining a second video from an internal-facing camera mounted to the vehicle; • determining an operator behavior based on an analysis of the second video; • generating a risk map of a monitored region for the vehicle, the risk map comprising a risk score for each sub-region within the monitored region, the risk score for each sub-region being indicative of a collision risk within the respective sub-region, a collision probability within the respective sub-region, or a safety of the vehicle within the respective sub-region, wherein the risk score for each sub-region is calculated based on the operator behavior and the object parameter, wherein the monitored region is a region proximal to the vehicle only within a field of view of the external facing camera; and • detecting a near-collision event based on the risk score for each sub-region within the monitored region.
A spray assembly for a working machine that includes a fluid storage tank and a frame, and is adapted for operation on a roadway, said spray assembly being adapted to be in fluid communication with the fluid storage tank and further comprising: (a) a plurality of nozzle assemblies, which are mounted on a support beam attachable to the frame and each of which comprises a direct acting valve that includes a solenoid switch assembly and a valve assembly comprising a valve housing and a nozzle housing; (b) a controller that is operatively connected to each of the direct acting valves for controlling the opening and closing thereof, said controller comprising: (i) a spray control for selectively operating one or more of the direct acting valves to spray fluid from the fluid storage tank onto the roadway; characterized in that said controller also comprises: (ii) a power source; (iii) an input module that is operatively connected to the solenoid switch assembly of each nozzle assembly and to the spray control, said input module being adapted to determine if the valve assembly (44,45) of each nozzle assembly is open or closed; (iv) an output module that is operatively connected to the spray control and to the power source, said output module being adapted to energize the solenoid switch assembly of each nozzle assembly in the spray assembly. (a) a plurality of nozzle assemblies, which are mounted on a support beam attachable to the frame and each of which comprises a direct acting valve that includes a solenoid switch assembly and a valve assembly comprising a valve housing and a nozzle housing; (b) a controller that is operatively connected to each of the direct acting valves for controlling the opening and closing thereof, said controller comprising: (i) a spray control for selectively operating one or more of the direct acting valves to spray fluid from the fluid storage tank onto the roadway; characterized in that said controller also comprises: (ii) a power source; (iii) an input module that is operatively connected to the solenoid switch assembly of each nozzle assembly and to the spray control, said input module being adapted to determine if the valve assembly (44,45) of each nozzle assembly is open or closed; (iv) an output module that is operatively connected to the spray control and to the power source, said output module being adapted to energize the solenoid switch assembly of each nozzle assembly in the spray assembly. (i) a spray control for selectively operating one or more of the direct acting valves to spray fluid from the fluid storage tank onto the roadway; (ii) a power source; (iii) an input module that is operatively connected to the solenoid switch assembly of each nozzle assembly and to the spray control, said input module being adapted to determine if the valve assembly (44,45) of each nozzle assembly is open or closed; (iv) an output module that is operatively connected to the spray control and to the power source, said output module being adapted to energize the solenoid switch assembly of each nozzle assembly in the spray assembly.
Method for safeguarding a lane change, the method comprising the following steps: - detection of an intended lane change by a first vehicle from a first lane to a target lane; - communication of the intended lane change to at least one second vehicle by means of a first Car2Car communication system; - response by the second vehicle to the first vehicle by means of a second Car2Car communication system; and - depending on the content of the response from the second vehicle performance of an operation in the first vehicle that aborts or at least helps to avoid the lane change by the first vehicle; whereby the response by the second vehicle to the communication by the first vehicle comprises the transmission of at least one status and/or surroundings report by the second vehicle to the first vehicle, wherein after the response by the second vehicle the following step is carried out in the first vehicle: a second analysis of the potential danger of the intended lane change by the first vehicle based on the response from the second vehicle; characterized in that a first analysis of the potential danger before the response by the second vehicle further takes into account an intended lane change by the second vehicle, if such a lane change is intended. - detection of an intended lane change by a first vehicle from a first lane to a target lane; - communication of the intended lane change to at least one second vehicle by means of a first Car2Car communication system; - response by the second vehicle to the first vehicle by means of a second Car2Car communication system; and - depending on the content of the response from the second vehicle performance of an operation in the first vehicle that aborts or at least helps to avoid the lane change by the first vehicle;
A transparent self-supporting film, which has a single layer structure, a thickness within a range of from 1 to 250 μm and is made of a cured product of a resin composition comprising an alicyclic epoxy compound, a polyol compound and an acid generator, wherein an amount ratio of the alicyclic epoxy compound to the total amount of the alicyclic epoxy compound and the polyol compound is within a range of from 70 to 75 mass%, and an amount of the acid generator is within a range of from 0.05 to 0.1 parts by mass per 100 parts by mass of the alicyclic epoxy compound and the polyol compound in total, and wherein the polyol compound has a number average molecular weight within a range of from 200 to 100,000 g/mol measured as described in the description and a hydroxyl group value within a range of from 190 to 550 KOH mg/g.
A method for assigning uplink pilot reference signals, the method being performed by a wireless device, the method comprising: receiving an uplink grant (910, 1010, 1110, 1210) and a downlink assignment (920, 1020, 1120, 1220) for the wireless device, the uplink grant (910, 1010, 1110, 1210) being associated with initially assigned uplink pilot reference signals (930a, 930b, 1030a, 1030b, 1050); determining at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) from said initially assigned uplink pilot reference signals (930a, 930b, 1030a, 1030b, 1050), said uplink grant (910, 1010, 1110, 1210), and said downlink assignment (920, 1020, 1120, 1220); wherein said at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) is used for coherent demodulation of uplink transmission from the wireless device and channel sounding needed for precoding subsequent downlink transmissions to the wireless device; and wherein said uplink grant (910, 1010, 1110, 1210) spans a first frequency interval, and said downlink assignment (920, 1020, 1120, 1220) spans a second frequency interval, and wherein said at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) spans said first frequency interval and said second frequency interval; and transmitting said at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) in said uplink grant (910, 1010, 1110, 1210). receiving an uplink grant (910, 1010, 1110, 1210) and a downlink assignment (920, 1020, 1120, 1220) for the wireless device, the uplink grant (910, 1010, 1110, 1210) being associated with initially assigned uplink pilot reference signals (930a, 930b, 1030a, 1030b, 1050); determining at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) from said initially assigned uplink pilot reference signals (930a, 930b, 1030a, 1030b, 1050), said uplink grant (910, 1010, 1110, 1210), and said downlink assignment (920, 1020, 1120, 1220); wherein said at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) is used for coherent demodulation of uplink transmission from the wireless device and channel sounding needed for precoding subsequent downlink transmissions to the wireless device; and wherein said uplink grant (910, 1010, 1110, 1210) spans a first frequency interval, and said downlink assignment (920, 1020, 1120, 1220) spans a second frequency interval, and wherein said at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) spans said first frequency interval and said second frequency interval; and transmitting said at least one reciprocity pilot reference signal (1130, 1230a, 1230b, 1250) in said uplink grant (910, 1010, 1110, 1210).
Hand-held injection device for the metered injection of a liquid drug into a person's tissue, the injection device including: a) an elongated drug reservoir, the drug reservoir having a longitudinal reservoir axis, b) an elongated dosing unit, the dosing unit having a dosing unit inlet, a dosing unit outlet, and a metering cavity, the dosing unit having a longitudinal dosing unit axis (A'), the drug reservoir being fluidically coupled to the dosing unit inlet, the dosing unit and the drug reservoir being arranged such that the longitudinal dosing unit axis (A') is in parallel alignment with the reservoir axis, the dosing unit being designed to draw drug from the drug reservoir into the metering cavity via the dosing unit inlet, thus charging the metering cavity, and to subsequently discharge the metering cavity by dosing drug out of the metering cavity into the dosing unit outlet, the dosing unit including a drive coupler for coupling the dosing unit for the application time of the dosing unit to an actuator, such that operation of the actuator results in the metering cavity being charged or discharged, respectively; characterized in that the dosing unit includes a valve arrangement, the valve arrangement being switchable between an inlet state and an outlet state, such that, in the inlet state, the dosing unit inlet fluidically couples with the metering cavity with the dosing unit outlet being fluidically separated from the metering cavity and that, in the outlet state, the metering cavity fluidically couples with the dosing unit outlet with the dosing unit inlet (21 5a) being fluidically separated from the metering cavity, and a further isolated state is provided in which the metering cavity is neither fluidically coupled with the dosing unit inlet nor the dosing unit outlet. a) an elongated drug reservoir, the drug reservoir having a longitudinal reservoir axis, b) an elongated dosing unit, the dosing unit having a dosing unit inlet, a dosing unit outlet, and a metering cavity, the dosing unit having a longitudinal dosing unit axis (A'), the drug reservoir being fluidically coupled to the dosing unit inlet,
A method for forming an electrochemical device, the method comprising: (a) heating a ceramic material at a temperature to remove at least a portion of a resistive surface region of the ceramic material thereby forming a solid state electrolyte, wherein the temperature is in a temperature range of greater than 250°C to 500°C; and (b) placing the solid state electrolyte in contact with an electrode comprising lithium, wherein the ceramic material has a formula of Li w A x M 2 Re 3-y O z wherein w is 5 - 7.5, wherein A is selected from B, Al, Ga, In, Zn, Cd, Y, Sc, Mg, Ca, Sr, Ba, and any combination thereof, wherein x is 0 - 2, wherein M is Zr, wherein Re is selected from lanthanide elements, wherein y is 0.01 - 0.75, wherein z is 10.875 - 13.125, and wherein the material has a garnet-type or garnet-like crystal structure. (a) heating a ceramic material at a temperature to remove at least a portion of a resistive surface region of the ceramic material thereby forming a solid state electrolyte, wherein the temperature is in a temperature range of greater than 250°C to 500°C; and (b) placing the solid state electrolyte in contact with an electrode comprising lithium, wherein the ceramic material has a formula of Li w A x M 2 Re 3-y O z wherein w is 5 - 7.5, wherein A is selected from B, Al, Ga, In, Zn, Cd, Y, Sc, Mg, Ca, Sr, Ba, and any combination thereof, wherein x is 0 - 2, wherein M is Zr, wherein Re is selected from lanthanide elements, wherein y is 0.01 - 0.75, wherein z is 10.875 - 13.125, and wherein the material has a garnet-type or garnet-like crystal structure.