mhurhangee/patent-ind-claim-en huggingface dataset:
A method for tracking software behavior, comprising: after receiving a user request, generating , by a front end of an application system, an identifier of a scenario instance, wherein the scenario instance comprises a plurality of transactions, and a scenario to which the scenario instance belongs corresponds to a user operation triggering the user request; and in a processing of the scenario instance, for each of the plurality of transactions, sending , by the front end, a back end service of the application system a respective one of a plurality of request messages which carries the identifier of the scenario instance and is used to trigger each of the plurality of transactions, the plurality of transactions are associated with each other according to the identifier of the scenario instance and information of each of the plurality of transactions comprises the identifier of the scenario instance; wherein one of the plurality of request messages sent by the front end to the back end service for a first transaction further carries an identifier of the scenario which is used to indicate that the scenario instance belongs to the scenario. after receiving a user request, generating , by a front end of an application system, an identifier of a scenario instance, wherein the scenario instance comprises a plurality of transactions, and a scenario to which the scenario instance belongs corresponds to a user operation triggering the user request; and in a processing of the scenario instance, for each of the plurality of transactions, sending , by the front end, a back end service of the application system a respective one of a plurality of request messages which carries the identifier of the scenario instance and is used to trigger each of the plurality of transactions, the plurality of transactions are associated with each other according to the identifier of the scenario instance and information of each of the plurality of transactions comprises the identifier of the scenario instance; wherein one of the plurality of request messages sent by the front end to the back end service for a first transaction further carries an identifier of the scenario which is used to indicate that the scenario instance belongs to the scenario.
A system comprising: a millimeter-wave radar sensor circuit configured to be fastened to a wheel having a tire , the millimeter-wave radar sensor circuit configured to: transmit a radio-frequency (RF) signal towards a portion of an inner surface of the tire , and receive a reflected signal from the tire ; and a controller configured to: process the reflected signal, determine a property value of the tire based on processing the reflected signal, and generate and transmit a first signal representative of the property value of the tire, characterized in that the controller is further configured to determine a rotational speed of the tire based on processing the reflected signal. transmit a radio-frequency (RF) signal towards a portion of an inner surface of the tire , and receive a reflected signal from the tire ; and a controller configured to: process the reflected signal, determine a property value of the tire based on processing the reflected signal, and generate and transmit a first signal representative of the property value of the tire, characterized in that the controller is further configured to determine a rotational speed of the tire based on processing the reflected signal. process the reflected signal, determine a property value of the tire based on processing the reflected signal, and generate and transmit a first signal representative of the property value of the tire, characterized in that the controller is further configured to determine a rotational speed of the tire based on processing the reflected signal.
A method of manufacturing an aggregated precursor for manufacturing a light absorption layer, the method comprising: preparing a first solution comprising a sulfur and/or selenium compound, a second solution comprising an indium salt or indium salt and gallium salt, and a third solution comprising a copper salt; mixing and reacting the first solution and the second solution to synthesize indium and/or gallium containing chalcogenide particles; and mixing the third solution with the solution comprising the indium and/or gallium containing chalcogenide particles of the mixing and reacting to synthesize and purify an aggregated precursor for manufacturing a light absorption layer comprising a first phase comprising copper containing chalcogenide and a second phase comprising the indium and/or gallium containing chalcogenide, wherein, when the indium and/or gallium containing chalcogenide particles of the mixing are mixed with the third solution, a fourth solution comprising a sulfur and/or selenium compound is mixed together. preparing a first solution comprising a sulfur and/or selenium compound, a second solution comprising an indium salt or indium salt and gallium salt, and a third solution comprising a copper salt; mixing and reacting the first solution and the second solution to synthesize indium and/or gallium containing chalcogenide particles; and mixing the third solution with the solution comprising the indium and/or gallium containing chalcogenide particles of the mixing and reacting to synthesize and purify an aggregated precursor for manufacturing a light absorption layer comprising a first phase comprising copper containing chalcogenide and a second phase comprising the indium and/or gallium containing chalcogenide, wherein, when the indium and/or gallium containing chalcogenide particles of the mixing are mixed with the third solution, a fourth solution comprising a sulfur and/or selenium compound is mixed together.
A water barrier , comprising: a water-permeable frame formed from a plurality of discrete, perforated panels (22; 22'), the plurality of panels comprising wall panels and floor panels , wherein each of the wall panels comprises a plurality of protrusions (52, 54; 52', 54') for connection to a respective floor panel, and each of the floor panels comprises a plurality of apertures sized to receive the protrusions; and a substantially water-impermeable membrane formed separately from the water-permeable frame, wherein the water-permeable frame is configured to support the water-impermeable membrane in an L-shape such that, in use, water pressure on an upper surface of a horizontal part of the frame counter-balances water pressure on a first surface of an upright part of the frame. a water-permeable frame formed from a plurality of discrete, perforated panels (22; 22'), the plurality of panels comprising wall panels and floor panels , wherein each of the wall panels comprises a plurality of protrusions (52, 54; 52', 54') for connection to a respective floor panel, and each of the floor panels comprises a plurality of apertures sized to receive the protrusions; and a substantially water-impermeable membrane formed separately from the water-permeable frame, wherein the water-permeable frame is configured to support the water-impermeable membrane in an L-shape such that, in use, water pressure on an upper surface of a horizontal part of the frame counter-balances water pressure on a first surface of an upright part of the frame.
A method for radio communication between an access point and a set of terminals located in a predetermined geographic region served by the access point , the method comprising: controlling an array of antenna elements, associated with the access point , to establish a plurality of mutually orthogonal radio beams, each of the established plurality of radio beams corresponding to a respective one of a plurality of radiation patterns, each of the plurality of radiation patterns differing spatially from other radiation patterns in the plurality; and selecting a subset of the plurality of radio beams for use in transmitting a signal to one of the set of terminals , wherein each of the plurality of radio beams has a respective power level, said power level corresponding to an amount of power contribution, from said one of the plurality of radio beams and relative to a total amount of power from all of the plurality of radio beams, which passes between said one of the set of terminals and the access point , and wherein selecting the subset of the plurality of radio beams comprises selecting, for membership in the subset, radio beams having higher absolute or relative values of said power levels characterized in that (a) the power level is derived through spectral analysis of a matrix H k ⋅ H k H , wherein H k is determined by deleting from an overall Multi-user, Multi-Input Multi-Output, Mu-MIMO, channel matrix H mn all columns which pertain to ports of terminals other than terminal k , or, in that (b) the power level, for a given beam j of the plurality of radio beams and said one of the set of terminals k , corresponds to a value P k ( j ) satisfies: P k j = Σ i λ i k ⋅ ‖ EV i j ‖ 2 , wherein i is an index of summation over eigenvalues λ i k of the matrix H k · H k H and EV i ( j ) is a j th component of an i th eigenvector EV i of the matrix H k ⋅ H k H . controlling an array of antenna elements, associated with the access point , to establish a plurality of mutually orthogonal radio beams, each of the established plurality of radio beams corresponding to a respective one of a plurality of radiation patterns, each of the plurality of radiation patterns differing spatially from other radiation patterns in the plurality; and selecting a subset of the plurality of radio beams for use in transmitting a signal to one of the set of terminals , wherein each of the plurality of radio beams has a respective power level, said power level corresponding to an amount of power contribution, from said one of the plurality of radio beams and relative to a total amount of power from all of the plurality of radio beams, which passes between said one of the set of terminals and the access point , and wherein selecting the subset of the plurality of radio beams comprises selecting, for membership in the subset, radio beams having higher absolute or relative values of said power levels
A feature value preparing method for a fingerprint using a feature value preparing method for a pattern, the feature value preparing method for a pattern comprising: a pattern area segmentation feature value preparing step of segmenting a pattern (49, d202, d207, d208) composed of peaks at different retention time points into a plurality of areas and preparing pattern area segmentation feature values, characterized in that the pattern area segmentation feature value preparing step is a fingerprint area segmentation feature value preparing step of segmenting a fingerprint (49, d202, d207, d208) composed of peaks at different retention time points detected from a chromatogram of a multicomponent material into a plurality of areas and preparing pattern area segmentation feature values based on an existence rate or existence amount of the peaks existing in each area of the pattern to quantify each area as a feature value, the existence rate of each area being a value acquired by dividing an existence amount of peak heights in each area by a sum of all the peak heights in the fingerprint, and the existence amount being a sum of the peak heights in each area, the fingerprint area segmentation feature value preparing step performs the segmentation of the areas with a plurality of vertical segmenting lines that are parallel to a signal strength axis or an area value axis and a plurality of horizontal segmenting lines that are parallel to a time axis. a pattern area segmentation feature value preparing step of segmenting a pattern (49, d202, d207, d208) composed of peaks at different retention time points into a plurality of areas and preparing pattern area segmentation feature values, characterized in that the pattern area segmentation feature value preparing step is a fingerprint area segmentation feature value preparing step of segmenting a fingerprint (49, d202, d207, d208) composed of peaks at different retention time points detected from a chromatogram of a multicomponent material into a plurality of areas and preparing pattern area segmentation feature values based on an existence rate or existence amount of the peaks existing in each area of the pattern to quantify each area as a feature value, the existence rate of each area being a value acquired by dividing an existence amount of peak heights in each area by a sum of all the peak heights in the fingerprint, and the existence amount being a sum of the peak heights in each area, the fingerprint area segmentation feature value preparing step performs the segmentation of the areas with a plurality of vertical segmenting lines that are parallel to a signal strength axis or an area value axis and a plurality of horizontal segmenting lines that are parallel to a time axis.
A magnesium alloy sheet containing 2.7 to 5 wt% of Al, 0.75 to 1 wt% of Zn, 0.1 to 1 wt% of Ca and 1 wt% or less excluding 0 wt% of Mn and the balance of Mg and inevitable impurities, wherein the twin structure area fraction is 5 to 20 % with respect to 100% of the area of the magnesium alloy sheet, and wherein a maximum aggregate strength is 1 to 4 on the basis of the magnesium alloy sheet surface and wherein the limiting dome height (LDH) of the magnesium alloy sheet is 7 mm or more.
A compound comprising a polymer, an antithrombogenic agent, and an antimicrobial agent, wherein the antithrombogenic agent and the antimicrobial agent are covalently bound to the polymer, and wherein the antimicrobial agent comprises a guanidine group and the antithrombogenic agent comprises a heparin group.
A macrophage or monocyte for use in treating a subject with a cancer, wherein the macrophage or monocyte is induced ex vivo to express an elevated level of endogenous Hom-1, or wherein the macrophage or monocyte is genetically modified to express an elevated level of Hom-1, to exhibit anti-tumor activity.
A color measurement apparatus for measuring a color on a printed item , comprising: - a first body ; - a second body including a sensor for measuring color data of a printed item , the second body being movable relative to the first body along a measurement direction ; - a guiding rail for guiding the movement of the second body relative to the first body , the guiding rail being positioned between the first body and the second body , wherein the second body is slidingly mounted on the guiding rail and can slide along the guiding rail in a first sliding direction , and wherein the guiding rail is slidingly mounted on the first body and can slide along the first body in a second sliding direction parallel to the first sliding direction , whereby the movement of the second body relative to the first body is a combined movement including a sliding movement of the second body relative to the guiding rail and a sliding movement of the guiding rail relative to the first body ; and wherein the color measurement apparatus comprises directing means for directing a translational movement of the color measurement apparatus along a translation direction which is perpendicular to the measurement direction ; and wherein the first body includes a first casing having a bottom face , the directing means comprising at least one wheel or roller , said wheel or roller protruding from the bottom face and having a pivot perpendicular to the translation direction . - a first body ; - a second body including a sensor for measuring color data of a printed item , the second body being movable relative to the first body along a measurement direction ; - a guiding rail for guiding the movement of the second body relative to the first body , the guiding rail being positioned between the first body and the second body ,
A process for producing a polytetrafluoroethylene (PTFE) fine powder, which process comprises the steps of preparing an aqueous dispersion containing PTFE, water and a surfactant (A); initiating coagulation of the PTFE in the aqueous dispersion by agitating the aqueous dispersion; adding a surfactant (B) after step ; terminating coagulation after step ; collecting a wet powder of the PTFE; and drying the wet powder of the PTFE. preparing an aqueous dispersion containing PTFE, water and a surfactant (A); initiating coagulation of the PTFE in the aqueous dispersion by agitating the aqueous dispersion; adding a surfactant (B) after step ; terminating coagulation after step ; collecting a wet powder of the PTFE; and drying the wet powder of the PTFE.
A method of monitoring engine health, comprising: receiving, by a controller , a measurement from a speed sensor ; determining, by the controller , that the measurement from the speed sensor indicates a vibration of an engine; determining, by the controller, whether the vibration of the engine persisted for a predetermined duration; and signaling, by the controller, that the vibration of the engine is detected; characterised in that : a spring is configured to preload the speed sensor , wherein the speed sensor is configured to vibrate in response to the vibration of the engine; and in that a spring constant of the spring is selected based on a weight of the speed sensor and a desired vibration level to induce bouncing of the speed sensor . receiving, by a controller , a measurement from a speed sensor ; determining, by the controller , that the measurement from the speed sensor indicates a vibration of an engine; determining, by the controller, whether the vibration of the engine persisted for a predetermined duration; and signaling, by the controller, that the vibration of the engine is detected; characterised in that : a spring is configured to preload the speed sensor , wherein the speed sensor is configured to vibrate in response to the vibration of the engine; and in that a spring constant of the spring is selected based on a weight of the speed sensor and a desired vibration level to induce bouncing of the speed sensor . a spring is configured to preload the speed sensor , wherein the speed sensor is configured to vibrate in response to the vibration of the engine; and in that a spring constant of the spring is selected based on a weight of the speed sensor and a desired vibration level to induce bouncing of the speed sensor .
A pharmaceutical composition for use in treatment of an immune-mediated disorder in a subject, comprising a partially phosphorothioated oligonucleotide with TLR7, 8 and 9 inhibiting activities , wherein the partially phosphorothioated oligonucleotide is selected from the group consisting of: 5'-CCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 21), 5'-CCTCCTCCtCCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 22), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 23), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 24), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 27), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 28), 5'-CTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 29), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 30), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 31), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 32), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 33), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 34), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 35), 5'-TCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 36), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 37), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 38), 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 39), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 40), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 41), and 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 42) wherein in SEQ ID NOs: 21 to 42 above a capital case letter denotes a nucleotide that is phosphorothioate-modified in the phosphodiester internucleotide linkage at 3', and lower case letter denotes a nucleotide that is un-modified. 5'-CCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 21), 5'-CCTCCTCCtCCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 22), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 23), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 24), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 27), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 28), 5'-CTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 29), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 30), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 31), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 32), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 33), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 34), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 35), 5'-TCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 36), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 37), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 38), 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 39), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 40), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 41), and 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 42) wherein in SEQ ID NOs: 21 to 42 above a capital case letter denotes a nucleotide that is phosphorothioate-modified in the phosphodiester internucleotide linkage at 3', and lower case letter denotes a nucleotide that is un-modified.
An image processing apparatus for processing a plurality of cross-sectional OCT images obtained by moving an imaging core inside a catheter in an axial direction while rotating the imaging core, the apparatus comprising: storage means for storing data relating to the cross-sectional images in association with position information in the axial direction when each of the cross-sectional images is acquired; characterised in that the apparatus further comprises extraction means for extracting a first cross-sectional image in which a disappearance section enabling determination that there is a disappeared portion of an external elastic membrane included in a vascular tomographic image starts, and a second cross-sectional image in which the disappearance section ends, in the plurality of cross-sectional images; and calculation means for acquiring the position information in the axial direction of the first cross-sectional image and the second cross-sectional image from the storage means, and for calculating an ablation range influenced by ablation at a position associated with the disappearance section, based on a difference in the acquired position information in the axial direction. storage means for storing data relating to the cross-sectional images in association with position information in the axial direction when each of the cross-sectional images is acquired; characterised in that the apparatus further comprises extraction means for extracting a first cross-sectional image in which a disappearance section enabling determination that there is a disappeared portion of an external elastic membrane included in a vascular tomographic image starts, and a second cross-sectional image in which the disappearance section ends, in the plurality of cross-sectional images; and calculation means for acquiring the position information in the axial direction of the first cross-sectional image and the second cross-sectional image from the storage means, and for calculating an ablation range influenced by ablation at a position associated with the disappearance section, based on a difference in the acquired position information in the axial direction.