mhurhangee/ep-ind-claims huggingface dataset:
A method, characterized in that, comprises: receiving, by a wireless device, from a base station one or more messages comprising: first configuration parameters of a plurality of cells comprising a primary cell and a secondary cell, and bandwidth part configuration parameters comprising a value for a bandwidth part inactivity timer; receiving a downlink control information, on an active bandwidth part of the primary cell; determining, in response to receiving the downlink control information and no transmitting a random access preamble on the secondary cell, that no random access procedure is ongoing on the secondary cell; starting the bandwidth part inactivity timer of the active bandwidth part of the primary cell with the value for the bandwidth part inactivity timer in response to the determining; and switching from the active bandwidth part to a default bandwidth part in response to an expiry of the bandwidth part inactivity timer. receiving, by a wireless device, from a base station one or more messages comprising: first configuration parameters of a plurality of cells comprising a primary cell and a secondary cell, and bandwidth part configuration parameters comprising a value for a bandwidth part inactivity timer; receiving a downlink control information, on an active bandwidth part of the primary cell; determining, in response to receiving the downlink control information and no transmitting a random access preamble on the secondary cell, that no random access procedure is ongoing on the secondary cell; starting the bandwidth part inactivity timer of the active bandwidth part of the primary cell with the value for the bandwidth part inactivity timer in response to the determining; and switching from the active bandwidth part to a default bandwidth part in response to an expiry of the bandwidth part inactivity timer.
Apparatus, comprising: an antenna; an antenna resonating element for the antenna; a metal electronic device housing that forms an antenna ground element for the antenna; a planar dielectric member having a planar surface, wherein the planar dielectric member comprises a display cover glass member that forms an external surface of the apparatus; characterized by: a layer of adhesive that attaches the antenna resonating element to the planar surface of the planar dielectric member; and biasing structures that bias the antenna resonating element against the layer of adhesive. an antenna; an antenna resonating element for the antenna; a metal electronic device housing that forms an antenna ground element for the antenna; a planar dielectric member having a planar surface, wherein the planar dielectric member comprises a display cover glass member that forms an external surface of the apparatus; characterized by: a layer of adhesive that attaches the antenna resonating element to the planar surface of the planar dielectric member; and biasing structures that bias the antenna resonating element against the layer of adhesive. a layer of adhesive that attaches the antenna resonating element to the planar surface of the planar dielectric member; and biasing structures that bias the antenna resonating element against the layer of adhesive.
A method for evaluating perfusion of perforator vessels of a patient, said method being performed after a bolus of indocyanine green has been applied into the bloodstream of said patient, said method comprising the steps of: detecting a fluorescence response from tissue, acquiring a temporal sequence of images of the fluorescence response over a predetermined time, processing the sequence of images to yield a time-integrated intensity or time-derivative of the intensity for pixel values in the images, and displaying the time-integrated intensity or time-derivative of the intensity as a color or black-and-white image, the method further comprising: applying a contrast transfer function to the time-integrated intensity or time-derivative of the intensity, wherein the contrast transfer function represents a linear or nonlinear function which transforms the time-integrated intensity or time-derivative of the intensity into an overlay image representing different perfusion characteristics in different colors, and characterised in the method further comprising: displaying in the overlay image a zero ("0") marker representative of a background intensity of substantially unperfused tissue and a hundred ("100") marker representative of an intensity of well perfused tissue. detecting a fluorescence response from tissue, acquiring a temporal sequence of images of the fluorescence response over a predetermined time, processing the sequence of images to yield a time-integrated intensity or time-derivative of the intensity for pixel values in the images, and displaying the time-integrated intensity or time-derivative of the intensity as a color or black-and-white image, applying a contrast transfer function to the time-integrated intensity or time-derivative of the intensity, wherein the contrast transfer function represents a linear or nonlinear function which transforms the time-integrated intensity or time-derivative of the intensity into an overlay image representing different perfusion characteristics in different colors, and characterised in the method further comprising: displaying in the overlay image a zero ("0") marker representative of a background intensity of substantially unperfused tissue and a hundred ("100") marker representative of an intensity of well perfused tissue. displaying in the overlay image a zero ("0") marker representative of a background intensity of substantially unperfused tissue and a hundred ("100") marker representative of an intensity of well perfused tissue.
A coding method applied to high efficiency video coding based three-dimensional video coding (HEVC-based 3DVC), comprising: in the HEVC-based 3DVC, before a parent prediction unit corresponding to a coding unit of a depth image is predicted, judging whether the parent PU meets all preset conditions, if the parent PU meets all the preset conditions, then evaluating only intra modes of high efficiency video coding (HEVC) when the parent PU is coded, else evaluating the intra modes of the HEVC and depth modeling modes when the parent PU is coded; wherein the preset conditions are as follows: a block size of the parent PU is greater than a first threshold value; a difference between a maximum pixel value and a minimum pixel value of the parent PU is less than a second threshold value; and all specific pixels of the parent PU are identical; wherein the specific pixels are obtained in the following way: all rows and columns of the parent PU are evaluated, if the number of pixels whose pixel values are the same is greater than a third threshold value in a row or column, the row or column is recorded as a specific row or column, the pixel values with the number of pixels greater than the third threshold value are recorded as specific pixels, wherein, the third threshold value is dependent on a block size of the parent PU. in the HEVC-based 3DVC, before a parent prediction unit corresponding to a coding unit of a depth image is predicted, judging whether the parent PU meets all preset conditions, if the parent PU meets all the preset conditions, then evaluating only intra modes of high efficiency video coding (HEVC) when the parent PU is coded, else evaluating the intra modes of the HEVC and depth modeling modes when the parent PU is coded; wherein the preset conditions are as follows: a block size of the parent PU is greater than a first threshold value; a difference between a maximum pixel value and a minimum pixel value of the parent PU is less than a second threshold value; and all specific pixels of the parent PU are identical; wherein the specific pixels are obtained in the following way: all rows and columns of the parent PU are evaluated, if the number of pixels whose pixel values are the same is greater than a third threshold value in a row or column, the row or column is recorded as a specific row or column, the pixel values with the number of pixels greater than the third threshold value are recorded as specific pixels, wherein, the third threshold value is dependent on a block size of the parent PU. all rows and columns of the parent PU are evaluated, if the number of pixels whose pixel values are the same is greater than a third threshold value in a row or column, the row or column is recorded as a specific row or column, the pixel values with the number of pixels greater than the third threshold value are recorded as specific pixels, wherein, the third threshold value is dependent on a block size of the parent PU.
A stream adaptation device comprising a plurality of transcoding units (TC1 to TCn), wherein each transcoding unit (TC1 to TCn) comprises a plurality of transcoders, each having an input and an output, wherein the inputs of the plurality of transcoders of each transcoding unit (TC1 to TCn) receive a respective source stream (24 to 24(n)) carrying a corresponding program channel (CH1 to CHn) and that the outputs of the plurality of transcoders of each transcoding unit (TC1 to TCn) simultaneously and continuously provide a plurality of transcoder streams of different transcoding rates for use by different users, a channel multiplexer with a plurality of inputs and an output the outputs of each transcoding unit (TC1 to TCn) being connected to a respective multiplexer input, retrieving means for retrieving information relating to the quality of a bandwidth limited channel over which the program channel is streamed to a customer premises equipment, CPE, selecting means comprising user-request means for receiving a user request for a program channel, said program channel being carried by a source stream, the selecting means being in communication with a controller, the controller adapted to calculate which ones of the different transcoding rates that fit the quality of the bandwidth limited channel based on the received user request, and to communicate the calculated transcoding rates to the selecting means for selection of the transcoder streams corresponding to the calculated transcoding rates, and the multiplexer output being adapted for connection to the bandwidth limited channel so as to allow for simultaneous transfer of at least two program channels over the same bandwidth limited channel, said channel multiplexer supporting the CPE of the different users.
Method for the detection of the presence of particles (BEADS) possibly present in points of stable equilibrium of a force field acting on said particles, generated by an array of electrodes comprising the steps of: i. deactivating the force field; ii. measuring, in at least a time interval following to the deactivation and selected as a function of the dynamic of the settling and/or Brownian movements to which the particles with a deactivated field are subjected, the grey level generated by first sensors (PIXEL_IJ) associated with said stable equilibrium points and by second sensors (PIXEL_REF) associated with space regions which can not certainty be occupied by particles because of the current configuration of said force field; iii. reactivating the force field; iv. repeating the steps from i) to iii) a number of times, substantially comparable with the convergence rate to its asymptotic value, of the variance of the values of the grey level measured on said second sensors, assumed as a reference (PIXEL_REF); v. classifying a point of equilibrium as occupied by particles if, in the considered temporal series of measurements, the standard deviation of the grey level values detected on the first sensors, associated with such point of equilibrium, results higher than a pre-fixed threshold. i. deactivating the force field; ii. measuring, in at least a time interval following to the deactivation and selected as a function of the dynamic of the settling and/or Brownian movements to which the particles with a deactivated field are subjected, the grey level generated by first sensors (PIXEL_IJ) associated with said stable equilibrium points and by second sensors (PIXEL_REF) associated with space regions which can not certainty be occupied by particles because of the current configuration of said force field; iii. reactivating the force field; iv. repeating the steps from i) to iii) a number of times, substantially comparable with the convergence rate to its asymptotic value, of the variance of the values of the grey level measured on said second sensors, assumed as a reference (PIXEL_REF); v. classifying a point of equilibrium as occupied by particles if, in the considered temporal series of measurements, the standard deviation of the grey level values detected on the first sensors, associated with such point of equilibrium, results higher than a pre-fixed threshold.
A device for protecting an optical sensor of a driver assistance system for a motor vehicle, the optical sensor comprising an optic, said device including: - an optical element configured to be positioned upstream of the optic of the optical sensor and rotatably mounted about a first axis of rotation, and - an electric motor configured to rotate the optical element, characterized in that the electric motor comprises a rotor configured to rotate about a second axis of rotation that intersects the first axis of rotation of the optical element. - an optical element configured to be positioned upstream of the optic of the optical sensor and rotatably mounted about a first axis of rotation, and - an electric motor configured to rotate the optical element,
A heat exchanger system comprising a radiator and a charge air cooler, wherein the charge air cooler includes at least two interconnected cores (14a, 14b), including a first core and a second core characterised in that the first core is mounted next to the radiator in a direction perpendicular to the air flow direction and generally in the plane of the radiator, neither upstream nor downstream of the radiator, so that air output from the first charge air cooler core does not pass through the radiator, and the second core mounted at an angle and tilted relative to the radiator and upstream of the radiator in the air path.
A bolt having a composition comprising: 0.50 mass % or greater and 0.65 mass % or less of a carbon, 1.5 mass % or greater and 2.5 mass % or less of a silicon (Si), 1.0 mass % or greater and 2.0 mass % or less of a chromium (Cr), 0.2 mass % or greater and 1.0 mass % or less of a manganese (Mn), 1.5 mass % or greater and 5.0 mass % or less of a molybdenum (Mo), wherein a total amount of a phosphorous and a sulfur as impurities is 0.03 mass % or less, a remaining is an iron (Fe), and the bolt comprises an iron based oxide film with a film thickness of 3 μm or greater and 20 μm or less on a surface thereof, wherein the iron based oxide film contains Fe 3 O 4 in a greater amount on a surface side of the bolt than on a bolt base material side of the bolt and contains Fe 2 SiO 4 in a greater amount on the bolt base material side of the bolt than on the surface side of the bolt. 0.50 mass % or greater and 0.65 mass % or less of a carbon, 1.5 mass % or greater and 2.5 mass % or less of a silicon (Si), 1.0 mass % or greater and 2.0 mass % or less of a chromium (Cr), 0.2 mass % or greater and 1.0 mass % or less of a manganese (Mn), 1.5 mass % or greater and 5.0 mass % or less of a molybdenum (Mo),
A pipetting method for preparing a plurality of aliquot samples from a plurality of test tubes each containing a portion of the same primary sample, the method comprising: setting for each test tube type a minimum guaranteed volume that is the minimum volume of the sample expected to be held in a test tube with a high degree of certainty and storing the minimum guaranteed volume for each test tube type in a storage unit; and preparing from the plurality of test tubes arriving successively at a pipetting unit, a maximum number of aliquot samples in a manner not exceeding the minimum guaranteed volume read out from the minimum guaranteed volume storage unit on the basis of the types of the arrived test tubes, said maximum number of aliquot samples being based on the read minimum guaranteed volume and on an aliquot volume (a-e) of each requested aliquot sample without requiring knowledge of the actual volume of liquid in the plurality of test tubes. setting for each test tube type a minimum guaranteed volume that is the minimum volume of the sample expected to be held in a test tube with a high degree of certainty and storing the minimum guaranteed volume for each test tube type in a storage unit; and preparing from the plurality of test tubes arriving successively at a pipetting unit, a maximum number of aliquot samples in a manner not exceeding the minimum guaranteed volume read out from the minimum guaranteed volume storage unit on the basis of the types of the arrived test tubes, said maximum number of aliquot samples being based on the read minimum guaranteed volume and on an aliquot volume (a-e) of each requested aliquot sample without requiring knowledge of the actual volume of liquid in the plurality of test tubes.
A method for etching an etching target layer of a workpiece, wherein the workpiece includes a mask on the etching target layer, the etching target layer is formed from PtMn, IrMn, CoPd, CoPt, Ru, MgO, CoFeB, CoFe, or Ni and the mask is formed TiN, Ta, Ti, TaN, or W, the method comprising: exposing the workpiece to a plasma of a first process gas containing a first noble gas having an atomic number greater than an atomic number of argon to etch the etching target layer by sputtering ions of the first noble gas to the etching target layer; and exposing the workpiece to a plasma of a second process gas containing a second noble gas having an atomic number less than the atomic number of argon to etch the etching target layer by sputtering ions of the second noble gas to the etching target layer, wherein said exposing the workpiece to the plasma of the first process gas and said exposing the workpiece to the plasma of the second process gas are alternately repeated. exposing the workpiece to a plasma of a first process gas containing a first noble gas having an atomic number greater than an atomic number of argon to etch the etching target layer by sputtering ions of the first noble gas to the etching target layer; and exposing the workpiece to a plasma of a second process gas containing a second noble gas having an atomic number less than the atomic number of argon to etch the etching target layer by sputtering ions of the second noble gas to the etching target layer, wherein said exposing the workpiece to the plasma of the first process gas and said exposing the workpiece to the plasma of the second process gas are alternately repeated.
Device for generating electrical energy, comprising at least one cell including supporting base means (1, 2, 3; 12; 23), said at least one cell further comprises a first number N of first segments made of a first material having a first Seebeck coefficient, and a second number M of second segments made of a second material having a second Seebeck coefficient, where M ≥ 1 and N = M+1, the first segments and the second segments being supported by said supporting base means (1, 2, 3; 12; 23) and being electrically connected alternately in series, whereby M first junctions, between a first segment and a second segment, and M second junctions, between a second segment arid a first segment, are alternately formed on said supporting base means (1, 2, 3; 12; 23), the first material and the second material being selected from the group of materials comprising electrically conductive materials and electrically semiconducting materials, characterised by each one of said second junctions having a surface nanostructure having one or more portions of a periodic nanostructure each one of which has a respective period ranging from 350 nanometers to 150 micrometers.
Electrochemical device which comprises a plurality of electrochemical cells and at least one line system for connecting a plurality of voltage tapping sites and/or temperature measuring sites of an electrochemical device to a monitoring unit of the electrochemical device, wherein the line system comprises a plurality of voltage tapping lines and/or temperature measuring lines and a stiffening structure in which and/or on which the plurality of voltage tapping lines and/or temperature measuring lines are at least partially arranged, wherein the stiffening structure comprises at least one receiving channel for the insertion of at least one voltage tapping line and/or at least one temperature measuring line wherein the electrochemical device comprises a cover which comprises a support element facing toward the electrochemical cells of the electrochemical device and a lid element facing away from the electrochemical cells of the electrochemical device, and wherein the line system is arranged between the support element and the lid element, characterized in that the stiffening structure is produced separately from the support element and is fixed to the support element. wherein the line system comprises a plurality of voltage tapping lines and/or temperature measuring lines and a stiffening structure in which and/or on which the plurality of voltage tapping lines and/or temperature measuring lines are at least partially arranged, wherein the stiffening structure comprises at least one receiving channel for the insertion of at least one voltage tapping line and/or at least one temperature measuring line wherein the electrochemical device comprises a cover which comprises a support element facing toward the electrochemical cells of the electrochemical device and a lid element facing away from the electrochemical cells of the electrochemical device, and wherein the line system is arranged between the support element and the lid element, characterized in that the stiffening structure is produced separately from the support element and is fixed to the support element.