mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: identifying whether a service data adaptation protocol, SDAP, header is configured and whether an Ethernet header compression, EHC, is configured; and performing Ethernet header compression for data in a packet data convergence protocol, PDCP, layer, in case that the EHC is configured, wherein an EHC header is located after the SDAP header; and wherein a PDCP header and the SDAP header are not ciphered. identifying whether a service data adaptation protocol, SDAP, header is configured and whether an Ethernet header compression, EHC, is configured; and performing Ethernet header compression for data in a packet data convergence protocol, PDCP, layer, in case that the EHC is configured, wherein an EHC header is located after the SDAP header; and wherein a PDCP header and the SDAP header are not ciphered.
Method for generating a 3D reconstruction of an object , including: illuminating the object ; capturing image data in relation to the object ; calculating the 3D reconstruction of the object from the image data; wherein the image data comprise first image data and second image data, and wherein the first image data are captured from different recording directions when the object is illuminated with illumination light , at least some of which, in relation to an object imaging beam path , is reflected light which illuminates the object , characterized in that the second image data are captured from different recording directions when the object is illuminated with illumination light , at least some of which, in relation to an object imaging beam path , is background light which illuminates the object ; and the 3D reconstruction of the object is calculated from the first image data and the second image data. illuminating the object ; capturing image data in relation to the object ; calculating the 3D reconstruction of the object from the image data; wherein the image data comprise first image data and second image data, and wherein the first image data are captured from different recording directions when the object is illuminated with illumination light , at least some of which, in relation to an object imaging beam path , is reflected light which illuminates the object , characterized in that the second image data are captured from different recording directions when the object is illuminated with illumination light , at least some of which, in relation to an object imaging beam path , is background light which illuminates the object ; and the 3D reconstruction of the object is calculated from the first image data and the second image data.
Touch-sensitive and/or proximity-sensitive operating device for a motor vehicle, having: - an actuation lever , in particular a steering column stalk, which has an elongate configuration, - a sensor arrangement comprising a multiplicity of touch-sensitive and/or proximity-sensitive sensor elements which are arranged on the actuation lever , and - an electronic evaluation device which is coupled to the multiplicity of sensor elements and is configured to detect the individual sensor elements being touched and/or the individual sensor elements being approached, wherein the evaluation device is configured to identify an operating gesture of an operator on the actuation lever on the basis of a combination of at least two detected touches on the sensor arrangement and/or approaches towards the sensor arrangement, and to trigger a predetermined operating function on the basis of the identified operating gesture, and wherein the touch-sensitive and/or proximity-sensitive sensor elements are arranged so as to be distributed annularly in the circumferential direction of the actuation lever . - an actuation lever , in particular a steering column stalk, which has an elongate configuration, - a sensor arrangement comprising a multiplicity of touch-sensitive and/or proximity-sensitive sensor elements which are arranged on the actuation lever , and - an electronic evaluation device which is coupled to the multiplicity of sensor elements and is configured to detect the individual sensor elements being touched and/or the individual sensor elements being approached,
A prefabricated flashing product for an opening in an exterior surface of a structure, the flashing product comprising: a flange , optionally a generally planar flange, shaped to conform to the exterior surface, the flange extending outwardly from an entire perimeter of an aperture therein that corresponds to the opening, the flange having top, bottom and side flange portions; and a return that seals to the flange about the aperture and extends substantially perpendicularly therefrom toward an inward direction of the opening, the return having top, bottom, and side return members corresponding to the top, bottom, and side flange portions, respectively; the flange and the return formed of a waterproof material and configured to provide continuous flashing without overlapping joints about the perimeter of the aperture. a flange , optionally a generally planar flange, shaped to conform to the exterior surface, the flange extending outwardly from an entire perimeter of an aperture therein that corresponds to the opening, the flange having top, bottom and side flange portions; and a return that seals to the flange about the aperture and extends substantially perpendicularly therefrom toward an inward direction of the opening, the return having top, bottom, and side return members corresponding to the top, bottom, and side flange portions, respectively; the flange and the return formed of a waterproof material and configured to provide continuous flashing without overlapping joints about the perimeter of the aperture.
A composite pigment comprising: at least one small hollow core particle with a mean particle size of more than 100 nm and less than 1 μm, preferably less than 600 nm, and more preferably less than 400 nm, wherein the surface of the small hollow core particle is at least in part covered with at least one coating layer comprising at least one inorganic solid UV filter, and the small hollow core particle comprises at least one organic polymer. at least one small hollow core particle with a mean particle size of more than 100 nm and less than 1 μm, preferably less than 600 nm, and more preferably less than 400 nm, wherein the surface of the small hollow core particle is at least in part covered with at least one coating layer comprising at least one inorganic solid UV filter, and the small hollow core particle comprises at least one organic polymer.
Headlamp for vehicles, comprising at least one light module having at least one light source and at least one mirror device , wherein to the light module there is assigned an actuator configured to pivot the light module in order to set an angular position which is preset for operation, characterised by an absorber surface with an opening, wherein light emanating from the light source and deflected by the mirror device onto the absorber surface is absorbed there, with the exception of light passing through the opening as a limited light beam , and a light-sensitive sensor which is located behind the opening in the line of sight from the mirror means and which is adapted to detect the light beam passing through the opening so as to detect a zero position of the angular position of the light module , wherein the absorber surface is arranged independently of the light module and the sensor is arranged fixed relative to the pivotable light module , or the absorber surface is arranged fixed relative to the pivotable light module and the sensor is arranged independently of the light module .
A force-measuring device for a braking-force test bed, the braking force test bed comprising a wheel holder , a brake actuator for braking a wheel in the wheel holder and a fixed frame , the device comprising the following: - an actuator holder that is designed to hold the brake actuator ; - a frame mounting that is designed to provide a fastening to the fixed frame ; - a force-measuring device that connects the actuator holder and the frame mounting and is designed to detect at least two forces or torques (F1, F2) acting between the actuator holder and the frame mounting during wheel braking. characterised in that the force-measuring device has at corner points of the frame mounting four force sensors (131, 132, ...) that are designed to detect translatory forces and torques between the actuator holder and the frame mounting . - an actuator holder that is designed to hold the brake actuator ; - a frame mounting that is designed to provide a fastening to the fixed frame ; - a force-measuring device that connects the actuator holder and the frame mounting and is designed to detect at least two forces or torques (F1, F2) acting between the actuator holder and the frame mounting during wheel braking.
Support for a rail, comprising at least one baseplate receiving the rail, an elastic intermediate plate underneath the baseplate, and receptacles of holders receiving end regions of the baseplate and of the intermediate plate, said holders can be passed through by fastening means outside the baseplate to fasten the support, wherein the end regions of the baseplate and of the intermediate plate are positively received by the receptacles , either the receptacles each have a clear inner height which is less than the sum of the thicknesses of the baseplate and of the intermediate plate at their respective end regions in the unloaded state and a guide plate passes underneath the baseplate and supports it and in which the holders positively engage, or an elastic element resting on the surface of the baseplate extends from each holder , the clear height of the receptacle being less than the sum of the thicknesses of the baseplate and of the intermediate plate and of the area of the elastic element extending between the baseplate and the underside of the receptacle, in each case considered in the unloaded state.
Electronic tripping device for a circuit breaker-type multipolar electrical line protection apparatus, comprising a current-measuring unit and an electrical processing unit for processing the current measurement, characterized in that it is formed by the simultaneous electrical and mechanical connection of one unit to the other in a single connection direction (X) and in that it includes: - electrical connection means for connecting one unit to the other in the direction (X); - mechanical connection means for connecting one unit to the other in the direction (X). - electrical connection means for connecting one unit to the other in the direction (X); - mechanical connection means for connecting one unit to the other in the direction (X).
Monitoring system for monitoring a monitoring area having an input interface for accepting monitoring images of the monitoring area , having a locating module for locating at least one moving monitoring object in the monitoring area , the locating module being designed to locate a position of the monitoring object , having a definition module for defining a position-dependent protection area (6 a, b, c) in the monitoring area , having a monitoring module for monitoring the protection area , wherein the definition module is designed to define the position-dependent protection area (6 a, b, c) on the basis of the position of the moving monitoring object , wherein the monitoring module is designed to trigger an alarm condition if a further object enters the protection area (6 a, b, c) or transgresses the protection area boundaries and resides in the protection area (6 a, b, c) for a predefinable duration, characterized in that the definition module defines the protection area (6 a, b, c) on the basis of object properties of the monitoring object , wherein the protection area (6 a, b, c) is automatically adapted at least on the basis of a velocity of the moving monitoring object as an object property. having an input interface for accepting monitoring images of the monitoring area , having a locating module for locating at least one moving monitoring object in the monitoring area , the locating module being designed to locate a position of the monitoring object , having a definition module for defining a position-dependent protection area (6 a, b, c) in the monitoring area , having a monitoring module for monitoring the protection area , wherein the definition module is designed to define the position-dependent protection area (6 a, b, c) on the basis of the position of the moving monitoring object , wherein the monitoring module is designed to trigger an alarm condition if a further object enters the protection area (6 a, b, c) or transgresses the protection area boundaries and resides in the protection area (6 a, b, c) for a predefinable duration, characterized in that the definition module defines the protection area (6 a, b, c) on the basis of object properties of the monitoring object , wherein the protection area (6 a, b, c) is automatically adapted at least on the basis of a velocity of the moving monitoring object as an object property.
An interferometric vibration observation device mountable on a vibrating or shaking platform , the interferometric vibration observation device comprising: a transmitting means including a transmitting antenna , and configured to transmit a transmission signal toward an observation object from the transmitting antenna; a receiving means including a plurality of receiving antennas , configured to receive a reflection wave from the observation object with the plurality of receiving antennas, and configured to generate a reception signal for each of the plurality of receiving antennas; and a processing means including a first processing means (14-1) and a second processing means (14-2), wherein the first processing means is configured to obtain a phase plane of the reflection wave to an antenna plane from a phase difference between the reception signals, identify an arrival direction and a signal strength of the reflection wave, calculate a phase variation of the reflection wave from a certain direction, generate observation data representative of a vibration of the observation object or a certain site of the observation object, and generate an image from the observation data, wherein the second processing means is configured to determine a fixed point from the image acquired by the first processing means, calculate a vibration of the platform from vibration analysis of the fixed point, and remove the vibration of the platform from the observation data. a transmitting means including a transmitting antenna , and configured to transmit a transmission signal toward an observation object from the transmitting antenna; a receiving means including a plurality of receiving antennas , configured to receive a reflection wave from the observation object with the plurality of receiving antennas, and configured to generate a reception signal for each of the plurality of receiving antennas; and a processing means including a first processing means (14-1) and a second processing means (14-2), wherein the first processing means is configured to obtain a phase plane of the reflection wave to an antenna plane from a phase difference between the reception signals, identify an arrival direction and a signal strength of the reflection wave, calculate a phase variation of the reflection wave from a certain direction, generate observation data representative of a vibration of the observation object or a certain site of the observation object, and generate an image from the observation data, wherein the second processing means is configured to determine a fixed point from the image acquired by the first processing means, calculate a vibration of the platform from vibration analysis of the fixed point, and remove the vibration of the platform from the observation data.
A makeup accessory consisting of a container formed by a powder compact-type case with a round or square layout, comprising a lower base with an upper sinkage defining a housing for incorporating the product, and an upper lid covering the upper part of said base , wherein said case has at its lower base an extractable compartment for housing a sponge and keeping it when it is not in use such that it is not in contact with the product, which compartment is concealed and completely housed inside the base itself in a closed position, and placed against the base , to which it is still attached, in an open position, with its upper surface being exposed and accessible to allow extracting and putting in the sponge, and wherein the extractable compartment is a sliding part with a layout identical or similar to the layout of the base , penetrating the latter through a front opening thereof, said part having a stop which prevents the extraction thereof through this front opening beyond a certain point in the open position, and with a front partition closing the front opening of the base in its closed position, wherein the sliding part constituting the compartment for the sponge has on its front edge a finger notch to facilitate the extraction thereof, which finger notch is located in coincidence with the closure of the upper lid of the case , such that a part of said closure is in the lid and the complementary part is in the compartment , wherein the compartment for the sponge has another upper sinkage which defines a housing for locating the sponge such that it is fitted therein without rising above the front opening of the base through which the compartment penetrates when it is closed; and characterized in that the upper sinkage of the compartment for the sponge has one or two side recesses to facilitate the extraction thereof.
An automatic fecal occult blood detector for detecting fecal occult blood with a sample kit , which comprises a transparent sleeve , an excrement collector and a test strip placed in the transparent sleeve, the detector comprising: a feed passage and a discharging passage which are provided in parallel and convey the sample kit separately; an image capturing device provided on one side of the discharging passage to acquire a color band information presented on the test strip ; characterized in that the detector further comprises a transfer platform configured between the feed passage and the discharging passage ; and a push rod configured to push the sample kit on the feed passage onto the discharging passage through the transfer platform . a feed passage and a discharging passage which are provided in parallel and convey the sample kit separately; an image capturing device provided on one side of the discharging passage to acquire a color band information presented on the test strip ; characterized in that the detector further comprises a transfer platform configured between the feed passage and the discharging passage ; and a push rod configured to push the sample kit on the feed passage onto the discharging passage through the transfer platform .
A method for measuring the antenna patterns in bearing of a secondary radar per elevation slice, each pattern being associated with a reception pathway , characterized in that it uses the synchronous responses and the asynchronous responses, unsolicited of Fruit type, transmitted by targets present in the aerial environment of said radar and detected over a given number of antenna revolutions, at each detection of a response, the time of said detection, the value of the azimuth of the main beam of the antenna and the value of power received on each of said pathways being associated with said detection , each asynchronous response being enriched with its bearing, with its relative power per pattern and with its elevation by differencing with the extrapolated same values of said synchronous response at the time of the Fruit, said values obtained over the given number of revolutions being stored, the measured patterns being sampled from said stored values , for each asynchronous response of a target, the following data being calculated: - its antenna bearing: by extrapolation of the synchronous position of said target azimuth-wise at the Fruit detection time and of the position of the antenna azimuth-wise at the Fruit detection time; - its relative power: by extrapolation of the power of said synchronous responses, acquired with the main beam of the sum pathway of the antenna, of said target temporally bracketing the Fruit detection time at the time of the Fruit and of the power of the Fruit on each of the patterns of the antenna; - its elevation: by extrapolation of the elevation, received in the synchronous responses, of said target temporally bracketing the Fruit detection time at the time of the Fruit. - its antenna bearing: by extrapolation of the synchronous position of said target azimuth-wise at the Fruit detection time and of the position of the antenna azimuth-wise at the Fruit detection time; - its relative power: by extrapolation of the power of said synchronous responses, acquired with the main beam of the sum pathway of the antenna, of said target temporally bracketing the Fruit detection time at the time of the Fruit and of the power of the Fruit on each of the patterns of the antenna; - its elevation: by extrapolation of the elevation, received in the synchronous responses, of said target temporally bracketing the Fruit detection time at the time of the Fruit.
A legged robot comprising: a trunk ; a plurality of legs (RR, RL, FR, FL) provided on the trunk; and a changing section that: is configured to change a target ground-contact time of each of the legs, on a basis of target gait information, self-state information, and environment information, and that is configured to change a target landing position of each of the legs in addition to the target ground-contact time of each of the legs, on the basis of the target gait information, the self-state information, and the environment information. a trunk ; a plurality of legs (RR, RL, FR, FL) provided on the trunk; and a changing section that: is configured to change a target ground-contact time of each of the legs, on a basis of target gait information, self-state information, and environment information, and that is configured to change a target landing position of each of the legs in addition to the target ground-contact time of each of the legs, on the basis of the target gait information, the self-state information, and the environment information. is configured to change a target ground-contact time of each of the legs, on a basis of target gait information, self-state information, and environment information, and that is configured to change a target landing position of each of the legs in addition to the target ground-contact time of each of the legs, on the basis of the target gait information, the self-state information, and the environment information.
A surface treatment method for copper or a copper alloy, the method comprising: preparing a reducing agent solution containing at least one of reduced glutathione, N-acetylcysteine, sodium ascorbate, sodium sulfite, and cysteine, and treating the surface of the copper or the copper alloy with the reducing agent solution. preparing a reducing agent solution containing at least one of reduced glutathione, N-acetylcysteine, sodium ascorbate, sodium sulfite, and cysteine, and treating the surface of the copper or the copper alloy with the reducing agent solution.