mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the visualization of an area covered by a wireless local communication network by means of a mobile communication unit, in which an initial position of the mobile communication unit in a three-dimensional real space surrounding the mobile communication unit is determined by means of a navigation application implemented on the mobile communication unit, said position being provided as the first point in a three-dimensional coordinate system superimposed on the space ; in which, by means of a camera of the mobile communication unit, an access point of the wireless local communication network is recorded in an image and, on the basis of the image, a position of the access point in the coordinate system is calculated by the navigation application and provided as a second point in the coordinate system; in which, at a plurality of different positions of the mobile communication unit in the space surrounding the mobile communication unit, which are each provided by the navigation application as further points in the coordinate system, the mobile communication unit measures a respective value of a reception quality of signals sent from the access point to the mobile communication unit via the wireless local communication network and stores it together with the position of the mobile communication unit assigned to the respective value as a respective value pair; in which an evaluation application implemented on the at least one mobile communication unit carries out an extrapolation of the respective values of the reception quality on the basis of the measured value pairs to all positions of the space which are detectable by the navigation application and thus to points of the coordinate system respectively assigned to the positions ; and in which the space is displayed on a display unit of the mobile communication unit together with the respective values of the reception quality at the positions assigned to the respective values of the reception quality as an - augmented reality representation; wherein the respective reception quality is measured by measuring a respective Received Signal Strength Indicator, RSSI, and the extrapolation is carried out on the basis of the following mathematical relationship: RSSI = k 1 d m wherein RSSI indicates the respective measured reception quality and d indicates a respective distance between the access point and the respective position of the mobile communication unit assigned to the respective measured reception quality, and k and m are determined by a linear regression via a logarithm of RSSI and d: log RSSI = log k − m log d
A blood component container comprising: a pair of facing plastic sheets peripherally sealed together to define an interior chamber, and an RFID antenna painted, printed or stamped directly on an exterior surface of one of the sheets. a pair of facing plastic sheets peripherally sealed together to define an interior chamber, and an RFID antenna painted, printed or stamped directly on an exterior surface of one of the sheets.
A system for attempting to establish a connection between a mobile phone and a virtual node of a cellular network , wherein the system comprises the virtual node that is configured to be switchable such that the virtual node is switched off and on in a defined manner, wherein the virtual node is configured to automatically change at least one cell parameter each time the virtual node is switched off and on, and wherein the system comprises an International Mobile Subscriber Identity catcher associated with the virtual node and configured to interrogate the mobile phone , thereby obtaining information of the mobile phone .
A method for determining a cause of error in an agricultural working machine comprising a faulty component , characterized in that in an analysis routine based on operating data of the working machine comprising workload data, at least design data associated with the agricultural working machine comprising design data for the faulty component and cause of error data are determined, wherein the analysis routine is configured to determine whether a workload and/or a design of the agricultural working machine , in particular of the faulty component , can be excluded and/or identified as a cause of error. in an analysis routine based on operating data of the working machine comprising workload data, at least design data associated with the agricultural working machine comprising design data for the faulty component and cause of error data are determined, wherein the analysis routine is configured to determine whether a workload and/or a design of the agricultural working machine , in particular of the faulty component , can be excluded and/or identified as a cause of error.
A variable stiffness spherical hinge, comprising a spherical hinge main body and an outer layer sleeve sheathed on the spherical hinge main body , wherein: an annular sealed space is formed between the spherical hinge main body and the outer layer sleeve along the circumferential direction, and the annular sealed space extends deep into a rubber layer of the spherical hinge main body ; an annular stop is arranged in the annular sealed space , and the annular sealed space is not fully filled by the annular stop ; an annular gap is formed between the spherical hinge main body and the annular stop along the axial direction, and the minimum radial width of the annular gap is X, with 0.5 mm<X<10 mm, and wherein the spherical hinge main body comprises a mandrel , a rubber layer and an inner layer sleeve which are vulcanized and bonded in sequence from inside to outside, and the annular sealed space extends from the inner layer sleeve deep into the rubber layer along radial direction, characterized in that the inner layer sleeve is composed of two annular metal sleeves (15.1) which are arranged symmetrically, the rubber layer has an annular notch (14.1) in circumferential direction, the annular metal sleeves (15.1) are arranged on the left and right sides of the annular notch (14.1), the outer layer sleeve is sheathed on the annular metal sleeves (15.1) to seal the annular notch (14.1) and form the annular sealed space , an inner layer annular step (A) is formed between the edges of the inner end of each annular metal sleeve (15.1) and the outer end of the annular notch (14.1), and the edges of both ends of the annular stop are step-shape edges corresponding to the inner layer annular step (A), and the edges of the inner ends of the annular metal sleeves (15.1) are in a step shape and form an outer layer annular step (B) connected with the inner layer annular step (A), and the edges of both ends of the annular stop are a double-step-shape edges corresponding to the inner layer annular step (A) and the outer layer annular step (B).
A computer implemented method for authorizing access to digital data of a device which forms part of an industrial automation system, the digital data being annotated with one or more annotations (A1 to An) wherein each annotation is an identifier for meta-data of the digital data characterizing the semantic meaning of the digital data in accordance with a semantic technical dictionary, the semantic technical dictionary describing the digital data of devices for data exchange purposes between distributed components in a networked system from a user's point of view, wherein a particular data object of the digital data having multiple annotations is described with different identifiers from different semantic dictionaries, the method comprising: receiving , from a requester having one or more requester properties which define access permissions for the requester, a request to access the digital data of the device; in response to the request, accessing an access data structure , the access data structure storing associations (A1:RP1, A1:RP3, A2:RP2, A3:RP4, A4:RP3, An:R5) between requester properties and the one or more annotations (A1 to An); comparing at least one requester property of the requester (RP1) with the requester properties (RP1 to RP5) associated with the annotations (A1 to An); and if the at least one requester property (RP1) is part of at least one association (A1:RP1), authorizing the requester to access the digital data represented by the at least one respective annotation (A1) which is associated with the at least one requester property (RP1) wherein authorizing is in accordance with permissions as defined by the at least one requester property; else rejecting the request . receiving , from a requester having one or more requester properties which define access permissions for the requester, a request to access the digital data of the device; in response to the request, accessing an access data structure , the access data structure storing associations (A1:RP1, A1:RP3, A2:RP2, A3:RP4, A4:RP3, An:R5) between requester properties and the one or more annotations (A1 to An); comparing at least one requester property of the requester (RP1) with the requester properties (RP1 to RP5) associated with the annotations (A1 to An); and if the at least one requester property (RP1) is part of at least one association (A1:RP1), authorizing the requester to access the digital data represented by the at least one respective annotation (A1) which is associated with the at least one requester property (RP1) wherein authorizing is in accordance with permissions as defined by the at least one requester property; else rejecting the request .
Turbofan engine having: - an engine , - a fixed structure , - a nacelle enclosing the engine and having a fan casing , wherein a secondary-flow duct is delimited between the fan casing and the engine , an air flow circulating in said secondary-flow duct , - a movable assembly mounted on the fixed structure so as to be able to move in translation in a direction of movement between a retracted position, in which the movable assembly has been moved towards the rear so as to open up a gap between the secondary duct and the outside, and an extended position, in which the gap is closed off by the movable assembly , - a ramp intended to orient the secondary flow , - an intermediate casing having a part forming a hub , characterized in that the intermediate casing comprises an outer shell to which the fixed structure is fixed, said shell being radially spaced apart from the hub by the secondary duct and fixed to the hub via arms and being situated behind and in the continuation of the fan casing , and in that the ramp is fixed to the outer shell so as to orient the secondary flow at the outlet of the outer shell . - an engine , - a fixed structure , - a nacelle enclosing the engine and having a fan casing , wherein a secondary-flow duct is delimited between the fan casing and the engine , an air flow circulating in said secondary-flow duct , - a movable assembly mounted on the fixed structure so as to be able to move in translation in a direction of movement between a retracted position, in which the movable assembly has been moved towards the rear so as to open up a gap between the secondary duct and the outside, and an extended position, in which the gap is closed off by the movable assembly , - a ramp intended to orient the secondary flow , - an intermediate casing having a part forming a hub ,
A parameter configuration method, wherein the method comprises: obtaining, by a terminal , first configuration parameters generated by configuration entities ; characterized by summarizing, by the terminal , the first configuration parameters according to a configuration rule, wherein the configuration rule comprises a configuration entity identifier, a configuration permission, a configuration priority and a configuration parameter combination rule, wherein the first configuration parameters are summarized based on the configuration priority and the configuration parameter combination rule in the configuration rule and a second configuration parameter is generated; and configuring, by the terminal , a PC5 interface based on the second configuration parameter. obtaining, by a terminal , first configuration parameters generated by configuration entities ; characterized by summarizing, by the terminal , the first configuration parameters according to a configuration rule, wherein the configuration rule comprises a configuration entity identifier, a configuration permission, a configuration priority and a configuration parameter combination rule, wherein the first configuration parameters are summarized based on the configuration priority and the configuration parameter combination rule in the configuration rule and a second configuration parameter is generated; and configuring, by the terminal , a PC5 interface based on the second configuration parameter.
A system for assessing a stenosis in a blood vessel , comprising: a first pressure sensing device and a second pressure sensing device positionable within the vessel, wherein the first pressure sensing device is configured to be positioned proximal of the stenosis and the second pressure sensing device is configured to be positioned distal of the stenosis; a processing unit in communication with the first and second pressure sensing devices, the processing unit configured to: obtain proximal pressure measurements measured by the first pressure sensing device for a plurality of heartbeat cycles; obtain distal pressure measurements measured by the second pressure sensing device for the plurality of heartbeat cycles; evaluate the obtained proximal and distal pressure measurements to identify any irregular heartbeat cycles within the plurality of heartbeat cycles; optimize the obtained proximal and distal pressure measurements by removing pressure measurements associated with the irregular heartbeat cycles; calculate a pressure ratio between the optimized distal pressure measurements and the optimized proximal pressure measurements; and output the calculated pressure ratio to a display in communication with the processing unit. a first pressure sensing device and a second pressure sensing device positionable within the vessel, wherein the first pressure sensing device is configured to be positioned proximal of the stenosis and the second pressure sensing device is configured to be positioned distal of the stenosis; a processing unit in communication with the first and second pressure sensing devices, the processing unit configured to: obtain proximal pressure measurements measured by the first pressure sensing device for a plurality of heartbeat cycles; obtain distal pressure measurements measured by the second pressure sensing device for the plurality of heartbeat cycles; evaluate the obtained proximal and distal pressure measurements to identify any irregular heartbeat cycles within the plurality of heartbeat cycles; optimize the obtained proximal and distal pressure measurements by removing pressure measurements associated with the irregular heartbeat cycles; calculate a pressure ratio between the optimized distal pressure measurements and the optimized proximal pressure measurements; and output the calculated pressure ratio to a display in communication with the processing unit. obtain proximal pressure measurements measured by the first pressure sensing device for a plurality of heartbeat cycles; obtain distal pressure measurements measured by the second pressure sensing device for the plurality of heartbeat cycles; evaluate the obtained proximal and distal pressure measurements to identify any irregular heartbeat cycles within the plurality of heartbeat cycles; optimize the obtained proximal and distal pressure measurements by removing pressure measurements associated with the irregular heartbeat cycles; calculate a pressure ratio between the optimized distal pressure measurements and the optimized proximal pressure measurements; and output the calculated pressure ratio to a display in communication with the processing unit.
A connection element for a bearing of a damping system for mounting a cabin , in particular of an agricultural vehicle, having a first mounting region for receiving a first damping means which is connected to a support element for damping a movement of the cabin , characterized in that the connection element has a second mounting region for the alternative receipt of a second damping means , wherein the second mounting region is disposed above the first mounting region , which latter is in particular constructed on the bottom of the connection element .
An optical processing equipment, comprising an optical isolator that comprises a Faraday rotator and an analyzer or a polarizer, and a laser light source, characterized in that the laser light source has a wavelength region of up to 400 nm, and the Faraday rotator contains as a main component a single crystal of a fluoride represented by the following general formula or : RE1F 3-x ··· LiRE2F 4-x ··· where x=0, and RE1 is at least one element selected from the group of rare earth elements, and RE2 is at least one element selected from the group consisting of Dy, Ho, Er, and Yb, wherein the single crystal is a cylindrical form with a c-axis oriented in the longitudinal direction, and the c-axis of the single crystal is in alignment with a direction of incidence of the laser light on the Faraday rotator.
An apparatus, comprising: a catheter configured and structured to be inserted into a blood vessel; an energy source arrangement configured to provide at least one first light radiation through the catheter to the blood vessel at at least one first wavelength that is between 550 nm and 900 nm; a detector arrangement (2150, 2270, 2372-2376) configured to detect at least one second light radiation through the catheter at a plurality of second wavelengths that are different from the at least one first wavelength, wherein the second light radiation is based on an autofluorescence of at least one portion of the blood vessel being impacted by the at least one first light radiation; and a computer arrangement configured to determine at least one characteristic of the blood vessel indicative of inflammation comprising at least one of oxidative stress, calcium, protein modification, lipo-protein modification, lipid modification, or enzymatic activity; wherein the apparatus is configured so that the determining of the at least one characteristic of the blood vessel comprises: detecting at least two second wavelength ranges within a range of between 640 and 900 nm; characterizing, by the computer arrangement, a spectral shape data or relative intensity data with the at least two second wavelength ranges. a catheter configured and structured to be inserted into a blood vessel; an energy source arrangement configured to provide at least one first light radiation through the catheter to the blood vessel at at least one first wavelength that is between 550 nm and 900 nm; a detector arrangement (2150, 2270, 2372-2376) configured to detect at least one second light radiation through the catheter at a plurality of second wavelengths that are different from the at least one first wavelength, wherein the second light radiation is based on an autofluorescence of at least one portion of the blood vessel being impacted by the at least one first light radiation; and a computer arrangement configured to determine at least one characteristic of the blood vessel indicative of inflammation comprising at least one of oxidative stress, calcium, protein modification, lipo-protein modification, lipid modification, or enzymatic activity; wherein the apparatus is configured so that the determining of the at least one characteristic of the blood vessel comprises: detecting at least two second wavelength ranges within a range of between 640 and 900 nm; characterizing, by the computer arrangement, a spectral shape data or relative intensity data with the at least two second wavelength ranges. detecting at least two second wavelength ranges within a range of between 640 and 900 nm; characterizing, by the computer arrangement, a spectral shape data or relative intensity data with the at least two second wavelength ranges.
An apparatus to reduce noise that has harmonic components, the apparatus comprising: a contour tracer to: determine a first point representing a peak amplitude value in a spectrogram of an audio sample; generate a first contour of other points having amplitude, frequency and phase values within specified thresholds from the first peak amplitude value, the points of the first contour occurring in succession within a specified number of frames from the first peak amplitude value; and generate a second contour of points having amplitude, frequency, and phase values within thresholds of a second peak amplitude value in the spectrogram of the audio sample, the points of the second contour occurring in succession within a specified number of frames from the second peak amplitude value; a parameter calculator to calculate a parameter for each of the contours; a classifier to determine if the first contour or the second contour represent an outlier contour based on a statistical distance from an average of the calculated parameter, the outlier contour pertaining to noise in the audio signal; and a subtractor to, in response to determining the first contour or the second contour represent an outlier contour, remove the outlier contour from the audio sample by subtracting the portion of the audio sample determined to represent an outlier contour from the audio sample. determine a first point representing a peak amplitude value in a spectrogram of an audio sample; generate a first contour of other points having amplitude, frequency and phase values within specified thresholds from the first peak amplitude value, the points of the first contour occurring in succession within a specified number of frames from the first peak amplitude value; and generate a second contour of points having amplitude, frequency, and phase values within thresholds of a second peak amplitude value in the spectrogram of the audio sample, the points of the second contour occurring in succession within a specified number of frames from the second peak amplitude value; a parameter calculator to calculate a parameter for each of the contours; a classifier to determine if the first contour or the second contour represent an outlier contour based on a statistical distance from an average of the calculated parameter, the outlier contour pertaining to noise in the audio signal; and a subtractor to, in response to determining the first contour or the second contour represent an outlier contour, remove the outlier contour from the audio sample by subtracting the portion of the audio sample determined to represent an outlier contour from the audio sample.