mhurhangee/patent-ind-claim-en huggingface dataset:
A relay node for aggregating data transfers in a wireless telecommunications network , the relay node comprising: a receiver configured to receive uplink signals from multiple terminals , each uplink signal including respective uplink data and an indication regarding whether the respective uplink signal corresponds to a real-time transmission; a decoder operatively connected to the receiver and configured to decode the uplink signals to obtain the uplink data; a machine-readable storage medium operatively connected to the decoder and configured to store the uplink data; an encoder operatively connected to the machine-readable medium and configured to encode an aggregate uplink signal including the uplink data obtained from the uplink signals; an aggregation logic configured to, based on the indications regarding whether the respective uplink signals correspond to real-time transmissions, determine: to include, where the indication indicates that the respective uplink signal does not correspond to a real-time transmission, the respective uplink data in the aggregate uplink signal to be transmitted to a base station , or to transmit, where the indication indicates that the respective uplink signal corresponds to a real-time transmission, the respective uplink signals to the base station; and a transmitter configured to transmit an uplink transmission of the aggregate uplink signal to the base station. a receiver configured to receive uplink signals from multiple terminals , each uplink signal including respective uplink data and an indication regarding whether the respective uplink signal corresponds to a real-time transmission; a decoder operatively connected to the receiver and configured to decode the uplink signals to obtain the uplink data; a machine-readable storage medium operatively connected to the decoder and configured to store the uplink data; an encoder operatively connected to the machine-readable medium and configured to encode an aggregate uplink signal including the uplink data obtained from the uplink signals; an aggregation logic configured to, based on the indications regarding whether the respective uplink signals correspond to real-time transmissions, determine: to include, where the indication indicates that the respective uplink signal does not correspond to a real-time transmission, the respective uplink data in the aggregate uplink signal to be transmitted to a base station , or to transmit, where the indication indicates that the respective uplink signal corresponds to a real-time transmission, the respective uplink signals to the base station; and to include, where the indication indicates that the respective uplink signal does not correspond to a real-time transmission, the respective uplink data in the aggregate uplink signal to be transmitted to a base station , or to transmit, where the indication indicates that the respective uplink signal corresponds to a real-time transmission, the respective uplink signals to the base station; and a transmitter configured to transmit an uplink transmission of the aggregate uplink signal to the base station.
A lithium ion secondary battery comprising an electrode element comprising a positive electrode, a negative electrode and a separator, and an electrolyte solution, wherein the separator has a shrinking ratio as determined by the method defined in the description of 2% or less by heat treatment at 90 °C for 6 hours and is an aramid microporous membrane, and a content of physically adsorbed water of the electrode element is 2% by mass or less as determined by the method defined in the description, and a content of chemically adsorbed water in a positive electrode active material layer of the positive electrode is 1% by mass or less as determined by the method defined in the description, and the positive electrode comprises a lithium nickel composite compound represented by following formula : Ei α Ni β Me γ O 2 wherein 0.9 ≤ α ≤ 1.5, β + γ = 1, 0.6 ≤ β <1, Me is at least one selected from the group consisting of Co, Mn, Al, Fe, Mg, Ba, Ti, and B.
A method for real-time calibration of a plurality of linear glucose sensors for measuring the levels of glucose in a body of a user, each of said sensors including physical sensor electronics , a microcontroller , and a working electrode , the method comprising, for each specific sensor: measuring, by said physical sensor electronics , the electrode current (Isig) for the working electrode ; obtaining a plurality of blood glucose (BG) values for said user, wherein said BG values include noise; applying, by said microcontroller , an unscented Kalman filter to said plurality of BG values and determining an estimated calibration factor (CF) value based on said Isig and BG values wherein said estimated CF value is further determined based on an offset value that correlates said Isig, BG, and CF values; calculating, by said microcontroller , a calibrated sensor glucose (SG) value associated with said Isig based on said estimated CF value; and characterized in that the method further comprises: repeating the above method for another of said plurality of linear glucose sensors wherein the offset value is not changed. measuring, by said physical sensor electronics , the electrode current (Isig) for the working electrode ; obtaining a plurality of blood glucose (BG) values for said user, wherein said BG values include noise; applying, by said microcontroller , an unscented Kalman filter to said plurality of BG values and determining an estimated calibration factor (CF) value based on said Isig and BG values wherein said estimated CF value is further determined based on an offset value that correlates said Isig, BG, and CF values; calculating, by said microcontroller , a calibrated sensor glucose (SG) value associated with said Isig based on said estimated CF value; and characterized in that the method further comprises: repeating the above method for another of said plurality of linear glucose sensors wherein the offset value is not changed.
A composition comprising highly fluorinated elastomer gum derived from: (a) at least 30 mol % to no more than 80 mol % of tetrafluoroethylene monomer based on total moles of monomer incorporated; (b) more than 35 mol % to less than 50 mol % of one or more perfluorinated ether monomer of the formula based on total moles of monomer incorporated, wherein the perfluorinated ether monomer is selected from: CF 2 =CF(CF 2 ) b O(R f'' O) n (R f' O) m R f (I) where R f'' and R f' are independently linear or branched perfluoroalkylene radical groups of 2-6 carbon atoms, m and n are independently an integer from 0 to 10 and R f is a perfluoroalkyl group of 1-6 carbon atoms, b = 0 or 1; and (c) 0.01 to 1 mol % of Formula III based on total moles of monomer incorporated where Formula (III) is: CF 2 =CF-(CF 2 ) g -(O-CF(CF 3 )-CF 2 ) h -O-(CF 2 ) i -(O) j -(CF 2 ) k -CF(I)-X (III) wherein X is selected from F or CF 3 ; g is 0 or 1; h is an integer selected from 0-3; i is an integer selected from 0-5; j is an integer selected from 0 or 1; and k is an integer selected from 0-6. (a) at least 30 mol % to no more than 80 mol % of tetrafluoroethylene monomer based on total moles of monomer incorporated; (b) more than 35 mol % to less than 50 mol % of one or more perfluorinated ether monomer of the formula based on total moles of monomer incorporated, wherein the perfluorinated ether monomer is selected from: CF 2 =CF(CF 2 ) b O(R f'' O) n (R f' O) m R f (I) where R f'' and R f' are independently linear or branched perfluoroalkylene radical groups of 2-6 carbon atoms, m and n are independently an integer from 0 to 10 and R f is a perfluoroalkyl group of 1-6 carbon atoms, b = 0 or 1; and (c) 0.01 to 1 mol % of Formula III based on total moles of monomer incorporated where Formula (III) is: CF 2 =CF-(CF 2 ) g -(O-CF(CF 3 )-CF 2 ) h -O-(CF 2 ) i -(O) j -(CF 2 ) k -CF(I)-X (III) wherein X is selected from F or CF 3 ; g is 0 or 1; h is an integer selected from 0-3; i is an integer selected from 0-5; j is an integer selected from 0 or 1; and k is an integer selected from 0-6.
A gravimetric measuring system , comprising - a scale having a weighing chamber surrounded by a plurality of weighing chamber walls , an electromechanical weighing system and an electronic control apparatus for controlling the system operation according to the rules stored in its memory , wherein at least one of the weighing chamber walls is configured as a carrier structure, which has recesses constituting clearances, - a plurality of function modules , which if necessary can be inserted into module receptacles formed by the recesses , as well as - diaphragms which have no weighing function and are spatially adapted to the recesses , wherein the recesses can be optionally closed by the diaphragms or the function modules , characterized in that the recesses occupy the major portion of the wall surface of the weighing chamber wall configured as said carrier structure and the carrier structure has in the region of at least one of its recesses a device-side identification interface component , which in the event of the insertion of a function module from a corresponding module-side identification interface component is contacted in an identification data transferring manner. - a scale having a weighing chamber surrounded by a plurality of weighing chamber walls , an electromechanical weighing system and an electronic control apparatus for controlling the system operation according to the rules stored in its memory , wherein at least one of the weighing chamber walls is configured as a carrier structure, which has recesses constituting clearances, - a plurality of function modules , which if necessary can be inserted into module receptacles formed by the recesses , as well as - diaphragms which have no weighing function and are spatially adapted to the recesses , wherein the recesses can be optionally closed by the diaphragms or the function modules , characterized in that the recesses occupy the major portion of the wall surface of the weighing chamber wall configured as said carrier structure and the carrier structure has in the region of at least one of its recesses a device-side identification interface component , which in the event of the insertion of a function module from a corresponding module-side identification interface component is contacted in an identification data transferring manner.
A computer-implemented image processing method comprising: acquiring (S102) original image data corresponding to a three-dimensional image of a cultured embryo obtained by optical coherence tomography imaging of the embryo; and executing a region segmentation on the three-dimensional image into a plurality of regions based on the original image data, wherein in the region segmentation, a local thickness calculation for outputting a gradation value indicating a magnitude of a radius of a sphere inscribed in an object in the three-dimensional image is performed (S104) on the three-dimensional image and the gradation value is used as an index value indicating a size of the object included in the three-dimensional image, the three-dimensional image is segmented into a region indicated by the index value greater than a predetermined first threshold and a region indicated by the index value less than the first threshold, and each of the regions resulting from the segmentation is further segmented by a watershed algorithm (S106). acquiring (S102) original image data corresponding to a three-dimensional image of a cultured embryo obtained by optical coherence tomography imaging of the embryo; and executing a region segmentation on the three-dimensional image into a plurality of regions based on the original image data, wherein in the region segmentation, a local thickness calculation for outputting a gradation value indicating a magnitude of a radius of a sphere inscribed in an object in the three-dimensional image is performed (S104) on the three-dimensional image and the gradation value is used as an index value indicating a size of the object included in the three-dimensional image, the three-dimensional image is segmented into a region indicated by the index value greater than a predetermined first threshold and a region indicated by the index value less than the first threshold, and each of the regions resulting from the segmentation is further segmented by a watershed algorithm (S106).
Spectrum analyzer for an electromagnetic measurement signal having an unknown spectrum, comprising at least one laser source , configured to generate a first continuous wave laser signal with a first frequency (f1) and second continuous wave laser signal with a second frequency (f2), and to combine them with the reference signal , wherein the laser source is tunable to change the first frequency (f1) and/or second frequency (f2) in a predetermined range, the predetermined range comprising in particular frequencies (fo) from 0 to 10 THz, an opto-electronic mixer , wherein the opto-electronic mixer is configured to generate an electrical superposition signal by downmixing a superposition of the electromagnetic measurement signal and a reference signal with at least one known frequency (f0), wherein the known frequency (f0) corresponds to the difference of the first frequency (f1) and the second frequency (f2); a signal input for receiving the electrical superposition signal from the opto-electronic mixer ; a low-pass filter configured to generate a filtered superposition signal from the electrical superposition signal by filtering out frequency portions above an upper cut-off frequency (fG); a rectifier configured to generate a rectified superposition signal from the filtered superposition signal ; and a readout unit configured to determine a match of the known frequency (f0) of the reference signal with the electromagnetic measurement signal based on the rectified superposition signal . comprising at least one laser source , configured to generate a first continuous wave laser signal with a first frequency (f1) and second continuous wave laser signal with a second frequency (f2), and to combine them with the reference signal , wherein the laser source is tunable to change the first frequency (f1) and/or second frequency (f2) in a predetermined range, the predetermined range comprising in particular frequencies (fo) from 0 to 10 THz, an opto-electronic mixer , wherein the opto-electronic mixer is configured to generate an electrical superposition signal by downmixing a superposition of the electromagnetic measurement signal and a reference signal with at least one known frequency (f0), wherein the known frequency (f0) corresponds to the difference of the first frequency (f1) and the second frequency (f2); a signal input for receiving the electrical superposition signal from the opto-electronic mixer ; a low-pass filter configured to generate a filtered superposition signal from the electrical superposition signal by filtering out frequency portions above an upper cut-off frequency (fG); a rectifier configured to generate a rectified superposition signal from the filtered superposition signal ; and a readout unit configured to determine a match of the known frequency (f0) of the reference signal with the electromagnetic measurement signal based on the rectified superposition signal .
A membrane delamination device comprising: a first shearing part comprising a proximal part; a second shearing part pivotably connected to the first shearing part via a pinned connection and comprising a proximal part having a first engagement surface , and further comprising a biasing member extending proximally from the pinned connection ; and a tubular member comprising a lumen adapted to enclose the proximal parts of the first shearing part and of the second shearing part; and an elongated member adapted to be positioned and moveable within the lumen of the tubular member , the elongated member comprising a second engagement surface configured to engage with the first engagement surface of the second shearing part ; wherein a distal part of the second shearing part is laterally moveable in a first lateral direction in response to an interaction between the first engagement surface and the second engagement surface ; and wherein the biasing member is configured to be elastically deformed in response to movement of the distal part of the second shearing part in the first lateral direction to generate a biasing force that urges the distal part of the second shearing part towards a second lateral direction. a first shearing part comprising a proximal part; a second shearing part pivotably connected to the first shearing part via a pinned connection and comprising a proximal part having a first engagement surface , and further comprising a biasing member extending proximally from the pinned connection ; and a tubular member comprising a lumen adapted to enclose the proximal parts of the first shearing part and of the second shearing part; and an elongated member adapted to be positioned and moveable within the lumen of the tubular member , the elongated member comprising a second engagement surface configured to engage with the first engagement surface of the second shearing part ; wherein a distal part of the second shearing part is laterally moveable in a first lateral direction in response to an interaction between the first engagement surface and the second engagement surface ; and wherein the biasing member is configured to be elastically deformed in response to movement of the distal part of the second shearing part in the first lateral direction to generate a biasing force that urges the distal part of the second shearing part towards a second lateral direction.
A method of wireless communication for an apparatus , comprising: identifying a plurality of candidate beams for a wireless communication, the plurality of candidate beams for the wireless communication comprising a first beam having a first beam width; selecting the first beam of the plurality of candidate beams for transmission of the wireless communication; identifying a second beam of the plurality of candidate beams that has a second beam width that is narrower than the first beam width, wherein only the first beam of said first and second beams is used for the transmission of the wireless communication and wherein the second beam is associated with a first power headroom that is higher than a second power headroom associated with the first beam; selecting the first power headroom for a power headroom report for the wireless communication as a result of the identifying the second beam; and transmitting the power headroom report for the wireless communication, wherein the power headroom report indicates the first power headroom. identifying a plurality of candidate beams for a wireless communication, the plurality of candidate beams for the wireless communication comprising a first beam having a first beam width; selecting the first beam of the plurality of candidate beams for transmission of the wireless communication; identifying a second beam of the plurality of candidate beams that has a second beam width that is narrower than the first beam width, wherein only the first beam of said first and second beams is used for the transmission of the wireless communication and wherein the second beam is associated with a first power headroom that is higher than a second power headroom associated with the first beam; selecting the first power headroom for a power headroom report for the wireless communication as a result of the identifying the second beam; and transmitting the power headroom report for the wireless communication, wherein the power headroom report indicates the first power headroom.
A computer-implemented method of detecting a characteristic of an unhatched egg, the method comprising: receiving, by at least one processor using a transceiver, a set of spectral images of an unhatched egg, each of the spectral images obtained in a particular wavelength range, the set of spectral images forming a three-dimensional cube; combining, by the at least one processor , a selected subset of the set of spectral images into a fused image, the selected subset comprising a different subset than all of the received set of spectral images; processing, by the at least one processor , the fused image to extract image features, the image features including image texture features that describe spatial and spectral information of the fused image or a region of the fused image, the image texture features including an image texture feature having information associated with a spatial distribution of tonal variations within the particular wavelength range; processing, by the at least one processor , the extracted image features to classify the unhatched egg according to at least one characteristic selected from the group consisting of gender of the unhatched egg and fertility of the unhatched egg; and transmitting, by the at least one processor using a transceiver 130, data signals of results of the classified unhatched egg. receiving, by at least one processor using a transceiver, a set of spectral images of an unhatched egg, each of the spectral images obtained in a particular wavelength range, the set of spectral images forming a three-dimensional cube; combining, by the at least one processor , a selected subset of the set of spectral images into a fused image, the selected subset comprising a different subset than all of the received set of spectral images; processing, by the at least one processor , the fused image to extract image features, the image features including image texture features that describe spatial and spectral information of the fused image or a region of the fused image, the image texture features including an image texture feature having information associated with a spatial distribution of tonal variations within the particular wavelength range; processing, by the at least one processor , the extracted image features to classify the unhatched egg according to at least one characteristic selected from the group consisting of gender of the unhatched egg and fertility of the unhatched egg; and transmitting, by the at least one processor using a transceiver 130, data signals of results of the classified unhatched egg.