mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring blood coagulability, comprising the following steps of: preparing a reaction solution containing a plasma specimen, a blood coagulation activator, and aminoguanidine represented by the following formula or an acid addition salt thereof: where R 1 represents an amino group; and measuring a coagulation time of the reaction solution by detecting a turbidity change using an optical detection method of detecting a scattered light amount. preparing a reaction solution containing a plasma specimen, a blood coagulation activator, and aminoguanidine represented by the following formula or an acid addition salt thereof: where R 1 represents an amino group; and measuring a coagulation time of the reaction solution by detecting a turbidity change using an optical detection method of detecting a scattered light amount.
A device for damping or suppressing vibrations in a building, comprising the following: at least one aerodynamic control surface (20, 22; 44) which is supported rotatably and/or movably, at least one mechanical absorber comprising a spring element (36, 40) and being capable of performing torsional vibrations or vibrations in a predetermined direction relative to the building, and at least one positive kinematic coupling between the mechanical absorber and the aerodynamic control surface, wherein the mechanical absorber comprises a least one mass body (32, 34), wherein the mechanical absorber comprises, in addition to the spring element, a damper element (38, 42), wherein both torsional vibrations and vibrations in predetermined directions are damped or suppressed. at least one aerodynamic control surface (20, 22; 44) which is supported rotatably and/or movably, at least one mechanical absorber comprising a spring element (36, 40) and being capable of performing torsional vibrations or vibrations in a predetermined direction relative to the building, and at least one positive kinematic coupling between the mechanical absorber and the aerodynamic control surface, wherein the mechanical absorber comprises a least one mass body (32, 34), wherein the mechanical absorber comprises, in addition to the spring element, a damper element (38, 42), wherein both torsional vibrations and vibrations in predetermined directions are damped or suppressed.
A liquid crystal phase shifter, comprising a first substrate and a second substrate which are oppositely arranged, and a liquid crystal layer positioned between the first substrate and the second substrate, wherein a plurality of spacers (41, 42) are distributed in the liquid crystal layer, wherein the spacers are in contact with the first substrate and the second substrate, and include a first spacer arranged on the first substrate and a second spacer arranged on the second substrate, and the thickness of the liquid crystal layer is not less than 100 μm, characterised in that the first spacer and the second spacer are abutted, and the total thickness of the spacers is the sum of the thickness of the first spacer and the thickness of the second spacer.
A method for monitoring yarn at a workstation of a textile machine having a row of workstations arranged next to each other, where each workstation comprises a system of working nodes (1 to 7) to transform fibers into yarn, and in which the yarn being produced is during the production process monitored by a yarn quality sensor, yarn faults are detected, the quality of yarn is evaluated and the data is transmitted to a control device, which controls processes at the workstation, characterized in that during stable yarn production the control device changes current operating conditions of the workstation and transmits to the yarn quality sensor online and in real-time information about the changes of the current operating conditions of the workstation, the yarn quality sensor accordingly adjusts in real-time its processes of monitoring the yarn and its evaluating the yarn parameters and sends the results to the control device for controlling the workstation.
An imaging lens consisting of four lenses, characterized in that the imaging lens is composed of a first lens having a meniscus shape with a convex surface on the object side and a negative refractive power, a second lens having a biconvex shape and a positive refractive power, a third lens having a concave surface on the image side and a negative refractive power, and a fourth lens having a convex surface on the object side and a positive refractive power arranged in order from the object side, and satisfies conditional expressions,,, and given below simultaneously: L 12 / f < 0.82 2.3 < L 12 × R 2 F 2 / f 2 < 10.0 − 1.3 < f 1 / f < − 0.9 and 48 < ν 1 where: L12: the distance (air equivalent distance) between the first lens and the second lens on the optical axis; f: the focal length of the entire lens system; R2F: the radius of curvature of the object side lens surface of the second lens; f1: the focal length of the first lens; and v1: the Abbe number of the first lens with respect to the d-line. L12: the distance (air equivalent distance) between the first lens and the second lens on the optical axis; f: the focal length of the entire lens system; R2F: the radius of curvature of the object side lens surface of the second lens; f1: the focal length of the first lens; and v1: the Abbe number of the first lens with respect to the d-line.
A sound capture system comprising: an open-sphere microphone array where six omnidirectional microphones providing six microphone output signals are disposed around a point of symmetry; and an evaluation circuit that is connected to the six microphones disposed around the point of symmetry and that is configured to superimpose the microphone output signals of pairs of the microphones disposed around the point of symmetry to form six differential microphone constellations providing six directional output signals (X - Diff, Y - Diff, Z - Diff, X + Diff, Y + Diff, Z + Diff), each differential microphone constellation having an axis along which it exhibits maximum sensitivity; wherein the evaluation circuit employs digital signal processing under a sampling rate and comprises six subtraction nodes providing the six directional output signals (X - Diff, Y - Diff, Z - Diff, X + Diff, Y + Diff, Z + Diff); each subtraction node is connected to one microphone of one pair of the microphones via a first delaying path and to the other microphone of the one pair of the microphones via a second delaying path; and each first delaying path includes a sample delay that is a whole-number multiple of an inverse of the sample rate and a fractional delay (52, 53, 56, 57, 60, 61) that is not a whole-number multiple of the inverse of the sample rate. an open-sphere microphone array where six omnidirectional microphones providing six microphone output signals are disposed around a point of symmetry; and an evaluation circuit that is connected to the six microphones disposed around the point of symmetry and that is configured to superimpose the microphone output signals of pairs of the microphones disposed around the point of symmetry to form six differential microphone constellations providing six directional output signals (X - Diff, Y - Diff, Z - Diff, X + Diff, Y + Diff, Z + Diff), each differential microphone constellation having an axis along which it exhibits maximum sensitivity; wherein the evaluation circuit employs digital signal processing under a sampling rate and comprises six subtraction nodes providing the six directional output signals (X - Diff, Y - Diff, Z - Diff, X + Diff, Y + Diff, Z + Diff); each subtraction node is connected to one microphone of one pair of the microphones via a first delaying path and to the other microphone of the one pair of the microphones via a second delaying path; and each first delaying path includes a sample delay that is a whole-number multiple of an inverse of the sample rate and a fractional delay (52, 53, 56, 57, 60, 61) that is not a whole-number multiple of the inverse of the sample rate.
A block copolymer including or consisting of: - one or more blocks of units of monomer, wherein monomer is selected from the group consisting of L-lactide and D-lactide, and - one or more blocks of units of monomer, wherein monomer is a methylmethacrylate, and wherein the block copolymer has a molar mass of 50,000 g/mol or more, preferably 80,000 g/mol or more, particularly preferably 100,000 g/mol or more. - one or more blocks of units of monomer, wherein monomer is selected from the group consisting of L-lactide and D-lactide, and - one or more blocks of units of monomer, wherein monomer is a methylmethacrylate, and
A wireless communication device (100; 500), comprising: a receiver (110; 510) configured to receive an orthogonal frequency-division multiplexing, OFDM, signal, wherein the OFDM signal includes a greenfield preamble (205, 215); an interval select logic (120; 520) configured to determine a type of guard intervals in the OFDM signal based, at least in part, on the greenfield preamble, and further configured to determine whether a SIG field is a last field of the greenfield preamble to determine that the type of the guard intervals in the OFDM signal is short; and a signal processor (130; 530) configured to process the OFDM signal based, at least in part, on the type of the guard intervals as determined by the interval select logic, wherein: the OFDM signal further comprises a plurality of data symbols following the greenfield preamble; and the signal processor is configured to process the OFDM signal by processing a first data symbol of the plurality of data symbols as a data symbol with a long guard interval, and processing subsequent data symbols of the plurality of data symbols based on the determined type of the guard intervals. a receiver (110; 510) configured to receive an orthogonal frequency-division multiplexing, OFDM, signal, wherein the OFDM signal includes a greenfield preamble (205, 215); an interval select logic (120; 520) configured to determine a type of guard intervals in the OFDM signal based, at least in part, on the greenfield preamble, and further configured to determine whether a SIG field is a last field of the greenfield preamble to determine that the type of the guard intervals in the OFDM signal is short; and a signal processor (130; 530) configured to process the OFDM signal based, at least in part, on the type of the guard intervals as determined by the interval select logic, wherein: the OFDM signal further comprises a plurality of data symbols following the greenfield preamble; and the signal processor is configured to process the OFDM signal by processing a first data symbol of the plurality of data symbols as a data symbol with a long guard interval, and processing subsequent data symbols of the plurality of data symbols based on the determined type of the guard intervals. the OFDM signal further comprises a plurality of data symbols following the greenfield preamble; and the signal processor is configured to process the OFDM signal by processing a first data symbol of the plurality of data symbols as a data symbol with a long guard interval, and processing subsequent data symbols of the plurality of data symbols based on the determined type of the guard intervals. processing a first data symbol of the plurality of data symbols as a data symbol with a long guard interval, and processing subsequent data symbols of the plurality of data symbols based on the determined type of the guard intervals.
A process for the preparation of: i) a compound of Formula (IIa-1) of the following structure: the process comprising: (a) contacting a compound of Formula, with an alcohol and a proton donor to form a reaction mixture, wherein the compound of Formula is selected from (Ia-1) and (la-2) of the following structure: and (b) heating the reaction mixture to form a compound of Formula (IIa-1); or ii) a compound of Formula (IIa-3) of the following structure: the process comprising: a) contacting a compound of Formula (Ia), with an alcohol and a proton donor to form a reaction mixture, wherein the compound of Formula (Ia) is selected from Formulae (la-3) and (la-4) of the following structure: and (b) heating the reaction mixture to form a compound of Formula (IIa-3). i) a compound of Formula (IIa-1) of the following structure: the process comprising: (a) contacting a compound of Formula, with an alcohol and a proton donor to form a reaction mixture, wherein the compound of Formula is selected from (Ia-1) and (la-2) of the following structure: and (b) heating the reaction mixture to form a compound of Formula (IIa-1); or (a) contacting a compound of Formula, with an alcohol and a proton donor to form a reaction mixture, wherein the compound of Formula is selected from (Ia-1) and (la-2) of the following structure: and (b) heating the reaction mixture to form a compound of Formula (IIa-1); or ii) a compound of Formula (IIa-3) of the following structure: the process comprising: a) contacting a compound of Formula (Ia), with an alcohol and a proton donor to form a reaction mixture, wherein the compound of Formula (Ia) is selected from Formulae (la-3) and (la-4) of the following structure: and (b) heating the reaction mixture to form a compound of Formula (IIa-3). a) contacting a compound of Formula (Ia), with an alcohol and a proton donor to form a reaction mixture, wherein the compound of Formula (Ia) is selected from Formulae (la-3) and (la-4) of the following structure: and (b) heating the reaction mixture to form a compound of Formula (IIa-3).
A method of manufacturing a composite rim, including steps of: disposing a composite material on an outer surface of an air bag to form a semi-formed rim, wherein the air bag is a completely closed annular tube without any through opening on the outer surface and contains a thermal expansion material there inside; disposing the semi-formed rim in a mold; and heating the thermal expansion material so that the thermal expansion material expands to expand the air bag and the semi-formed rim is then solidified. disposing a composite material on an outer surface of an air bag to form a semi-formed rim, wherein the air bag is a completely closed annular tube without any through opening on the outer surface and contains a thermal expansion material there inside; disposing the semi-formed rim in a mold; and heating the thermal expansion material so that the thermal expansion material expands to expand the air bag and the semi-formed rim is then solidified.
A plug-in device for the connecting of optical and/or electronic connectors in the connector casings with at least one plug-in component, inserted into at least one guide frame; where the plug-in component is essentially right-angled, it contains a bottom, two vertically facing side walls, a front wall and a facing back wall created as a connector casing; the guide frame is essentially right-angled and it contains two opposite, vertical side walls with thrust opening for fitting of thrust components, and the side walls are mutually connected by horizontal components; and the two facing side walls of the plug-in component are equipped on the outer walls by external guide grooves /rails that fit into the guide rails /grooves on the inner walls of the guide frame, and the plug-in device further includes a locking insertion mechanism with control element, wherein (a) each of both side walls of the guide frame is equipped with thrust openings situated one above another for fitting upper and lower thrust components of a locking insertion mechanism, (b) the front wall of the plug-in component is equipped with the locking insertion mechanism, which contains a rotating control lever, which is connected by one above another situated rods with cams carrying the thrust upper and lower components and upper and lower bumper components and the locking insertion mechanism further contains a sliding mechanism with a safety component for securing the control lever in its closed position during the defined insertion of the plug-in component into the guide frame and the previously defined axial connection of optical and/or electronic connectors in connector casings in their axes. (a) each of both side walls of the guide frame is equipped with thrust openings situated one above another for fitting upper and lower thrust components of a locking insertion mechanism, (b) the front wall of the plug-in component is equipped with the locking insertion mechanism, which contains a rotating control lever, which is connected by one above another situated rods with cams carrying the thrust upper and lower components and upper and lower bumper components and
A method for coordinating transmissions of power line communication, PLC, devices, the method comprising: receiving channel state information from a plurality of primary PLC devices (130A, 130B, 130C) with respect to transmissions to a plurality of secondary PLC devices (140A, 140B, 140C), each of the plurality of secondary PLC devices being coupled to one of the plurality of primary PLC devices via one of a plurality of power lines(106A, 106B, 106C), thereby forming a plurality of PLC networks; determining precoding information for mitigating far-end cross talk interference associated with the transmissions from the plurality of primary PLC devices to the plurality of secondary PLC devices, wherein the precoding information comprises a precoding matrix; providing a separate portion of the precoding information to each of the plurality of primary PLC devices, wherein the separate portion of the precoding information comprises a vector comprising a row of the precoding matrix; applying, by each of the plurality of primary PLC devices, the separate portion of the precoding information to PLC signals; and coordinating precoded transmissions of the plurality of primary PLC devices to the plurality of secondary PLC devices. receiving channel state information from a plurality of primary PLC devices (130A, 130B, 130C) with respect to transmissions to a plurality of secondary PLC devices (140A, 140B, 140C), each of the plurality of secondary PLC devices being coupled to one of the plurality of primary PLC devices via one of a plurality of power lines(106A, 106B, 106C), thereby forming a plurality of PLC networks; determining precoding information for mitigating far-end cross talk interference associated with the transmissions from the plurality of primary PLC devices to the plurality of secondary PLC devices, wherein the precoding information comprises a precoding matrix; providing a separate portion of the precoding information to each of the plurality of primary PLC devices, wherein the separate portion of the precoding information comprises a vector comprising a row of the precoding matrix; applying, by each of the plurality of primary PLC devices, the separate portion of the precoding information to PLC signals; and coordinating precoded transmissions of the plurality of primary PLC devices to the plurality of secondary PLC devices.
A housing assembly of an elevator safety actuation device characterised by comprising: a mounting plate; a first channel wall and a second channel wall extending substantially perpendicular from the mounting plate, the first channel wall including a first channel wall interior surface, and the second channel wall including a second channel wall interior surface, wherein the first channel wall is positioned substantially parallel to the second channel wall to form a channel therebetween; and at least one guide (58A,58C) device affixed to the first channel wall interior surface and the second channel wall interior surface. a mounting plate; a first channel wall and a second channel wall extending substantially perpendicular from the mounting plate, the first channel wall including a first channel wall interior surface, and the second channel wall including a second channel wall interior surface, wherein the first channel wall is positioned substantially parallel to the second channel wall to form a channel therebetween; and at least one guide (58A,58C) device affixed to the first channel wall interior surface and the second channel wall interior surface.
An automated measurement system comprising: a multi-axis imager configured to: receive images of a workpiece, the images including at least one of visual information about the workpiece at a plurality of focus planes and visual information about the workpiece between at least two focus planes; determine a point cloud of a plurality of 3-D data points, each of the plurality of 3-D data points representing at least one of an intersection of one of the plurality of focus planes with a surface of the workpiece and positional information of the workpiece in a de-focused area between the at least two focus planes; determine, using the point cloud of the plurality of 3-D data points, a plurality of dimensions of features of the workpiece; compare the determined plurality of dimensions of the features to manufacturing specifications corresponding to at least some of the determined plurality of dimensions of the features; and output an indication of at least the comparisons that exceed a predetermined threshold. receive images of a workpiece, the images including at least one of visual information about the workpiece at a plurality of focus planes and visual information about the workpiece between at least two focus planes; determine a point cloud of a plurality of 3-D data points, each of the plurality of 3-D data points representing at least one of an intersection of one of the plurality of focus planes with a surface of the workpiece and positional information of the workpiece in a de-focused area between the at least two focus planes; determine, using the point cloud of the plurality of 3-D data points, a plurality of dimensions of features of the workpiece; compare the determined plurality of dimensions of the features to manufacturing specifications corresponding to at least some of the determined plurality of dimensions of the features; and output an indication of at least the comparisons that exceed a predetermined threshold.
A decorative sheet for three-dimensional molding, comprising: a thin metal film layer, a surface protection layer, and a base film, at least the thin metal film layer and the surface protection layer being disposed on the base film in this order, wherein the surface protection layer consists of a cured material of an ionizing radiation curable resin composition containing a polycarbonate(meth)acrylate and/or an acrylic silicone (meth)acrylate.
A container comprising: a container body; a cap configured to seal the container body; an identification code on a top surface of the cap; and multiple concaves on the container body, wherein the multiple concaves on the container body forms a first image having a first area, the identification code on the cap forms a second image having a second area smaller than the first area, the container being characterized in that the container body has a first diffuse reflectance difference between the first image and a portion excluding the first image, and the identification code has a second diffuse reflectance difference between a code portion and a background portion excluding the code portion in the second image, the second diffuse reflectance difference being larger than the first diffuse reflectance difference. a container body; a cap configured to seal the container body; an identification code on a top surface of the cap; and multiple concaves on the container body, wherein the multiple concaves on the container body forms a first image having a first area, the identification code on the cap forms a second image having a second area smaller than the first area, the container being characterized in that the container body has a first diffuse reflectance difference between the first image and a portion excluding the first image, and the identification code has a second diffuse reflectance difference between a code portion and a background portion excluding the code portion in the second image, the second diffuse reflectance difference being larger than the first diffuse reflectance difference.