mhurhangee/ep-ind-claims huggingface dataset:
A method to test the radiochemical purity of a sample radiopharmaceutical solution including a selected radioactive isotope, comprising: acquiring with a radiation detector a radioactivity measurement of the sample radiopharmaceutical solution; passing the sample radiopharmaceutical solution through a high performance liquid chromatography column to separate molecularly distinct species within the sample radiopharmaceutical solution into a number of separated molecularly distinct species that elute from said high performance liquid chromatography column with distinct retention times; acquiring with said radiation detector an uncorrected radioactivity measurement for each separated molecularly distinct species eluted from said high performance liquid chromatography column; and calculating a decay-corrected radioactivity measurement for each separated molecularly distinct species using the uncorrected radioactivity measurement, the half-life of the selected radioactive isotope, and the time elapsed between the acquisition of the radioactivity measurement of the sample radiopharmaceutical solution and the acquisition of the uncorrected radioactivity measurement for that separated molecularly distinct species, whereby the radiochemical purity of the sample radiopharmaceutical solution is calculated by comparing the decay-corrected radioactivity measurements of the separated molecularly distinct species to the radioactivity measurement of the sample radiopharmaceutical solution. acquiring with a radiation detector a radioactivity measurement of the sample radiopharmaceutical solution; passing the sample radiopharmaceutical solution through a high performance liquid chromatography column to separate molecularly distinct species within the sample radiopharmaceutical solution into a number of separated molecularly distinct species that elute from said high performance liquid chromatography column with distinct retention times; acquiring with said radiation detector an uncorrected radioactivity measurement for each separated molecularly distinct species eluted from said high performance liquid chromatography column; and calculating a decay-corrected radioactivity measurement for each separated molecularly distinct species using the uncorrected radioactivity measurement, the half-life of the selected radioactive isotope, and the time elapsed between the acquisition of the radioactivity measurement of the sample radiopharmaceutical solution and the acquisition of the uncorrected radioactivity measurement for that separated molecularly distinct species, whereby the radiochemical purity of the sample radiopharmaceutical solution is calculated by comparing the decay-corrected radioactivity measurements of the separated molecularly distinct species to the radioactivity measurement of the sample radiopharmaceutical solution.
A posterior chamber phakic intraocular lens having an anterior surface and a posterior surface, and comprising: a haptic; a lens secured to the haptic; and a passageway extending between the anterior surface and the posterior surface; wherein aqueous flow is permitted through the passageway wherein the haptic comprises: - proximal wings; - distal struts (27a-d) that are partially separated from the proximal wings and that are radially elastic; and characterised in that the haptic further comprises: - an elevated collar extending around at least a portion of the lens and extending anteriorly with respect to the lens, the elevated collar having a steep inclination with smooth edges towards the lens; and in that the passageway is positioned beside the elevated collar. a haptic; a lens secured to the haptic; and a passageway extending between the anterior surface and the posterior surface; wherein aqueous flow is permitted through the passageway wherein the haptic comprises: - proximal wings; - distal struts (27a-d) that are partially separated from the proximal wings and that are radially elastic; and - proximal wings; - distal struts (27a-d) that are partially separated from the proximal wings and that are radially elastic; and characterised in that the haptic further comprises: - an elevated collar extending around at least a portion of the lens and extending anteriorly with respect to the lens, the elevated collar having a steep inclination with smooth edges towards the lens; - an elevated collar extending around at least a portion of the lens and extending anteriorly with respect to the lens, the elevated collar having a steep inclination with smooth edges towards the lens; and in that the passageway is positioned beside the elevated collar.
A wavelength-tunable single-frequency fiber laser light source for a coherent optical orthogonal frequency division multiplexing system, comprising a chirped fiber grating with high reflectivity, a high gain optical fiber having a gain per unit length of greater than 0.2 dB/cm and an optical fiber length of 0.5 cm to 100 cm, a chirped fiber grating with low reflectivity, an optical wavelength division multiplexer, a single-mode semiconductor pump laser, an optical coupler, an optical isolator, an optical circulator, and a tunable optical filter module, wherein the high gain optical fiber serves as a gain medium of a laser resonant cavity with compact structure, the chirped fiber grating with low reflectivity and the chirped fiber grating with high reflectivity constitute a front cavity mirror and a back cavity mirror of the laser resonant cavity to realize a laser oscillation in the cavity, wherein the optical wavelength division multiplexer, the optical coupler, the optical isolator, the optical circulator and the tunable optical filter module are arranged such that, in operation: - after a laser beam output from the resonant cavity passes through the optical coupler, a part of the laser beam passes through the optical circulator to enter the tunable optical filter module, a wavelength corresponding to any nominal center frequency stipulated by the ITU-T is selected by the tunable optical filter module, and the filtered laser beam is injected back into the laser resonant cavity via the optical circulator and the optical coupler; - the resonant cavity, subjected to a self-injection locking, emits a single-frequency laser signal with the wavelength corresponding to the nominal center frequency thereby realizing an output of the wavelength-tunable single-frequency laser; and - the single-frequency laser signal enters the optical coupler via a signal end of the optical wavelength division multiplexer and then is output from an output end of the optical isolator. - after a laser beam output from the resonant cavity passes through the optical coupler, a part of the laser beam passes through the optical circulator to enter the tunable optical filter module, a wavelength corresponding to any nominal center frequency stipulated by the ITU-T is selected by the tunable optical filter module, and the filtered laser beam is injected back into the laser resonant cavity via the optical circulator and the optical coupler; - the resonant cavity, subjected to a self-injection locking, emits a single-frequency laser signal with the wavelength corresponding to the nominal center frequency thereby realizing an output of the wavelength-tunable single-frequency laser; and - the single-frequency laser signal enters the optical coupler via a signal end of the optical wavelength division multiplexer and then is output from an output end of the optical isolator.
A method of cleaning a particulate-contaminated substrate, comprising the following steps: - surface deposition of the polymer matrix substrate comprising water and a polymer with the polymer being composed of units derived from one or more acrylic monomers having the formula CH 2 =CR 1 -C(=O)-R 2, and optionally at least one reticulating agent, with R 1 = H or CH 3 RH 2 = NH 2; NH 3; NR 3 2 or OR 3 R 3 = H or a hydrocarbon group containing 1 to 22 atoms of carbon; - impregnation of the particles in the polymer matrix; - formation of a varnish by drying the polymer matrix; - removal, without rinsing solvent, of the varnish and particles trapped in the varnish. - surface deposition of the polymer matrix substrate comprising water and a polymer with the polymer being composed of units derived from one or more acrylic monomers having the formula CH 2 =CR 1 -C(=O)-R 2, and optionally at least one reticulating agent, with R 1 = H or CH 3 RH 2 = NH 2; NH 3; NR 3 2 or OR 3 R 3 = H or a hydrocarbon group containing 1 to 22 atoms of carbon; - impregnation of the particles in the polymer matrix; - formation of a varnish by drying the polymer matrix; - removal, without rinsing solvent, of the varnish and particles trapped in the varnish.
A device for transport of air in a tire with an air tube and a rim, the device consisting of a chamber for adjustment of pressure in the tire in the shape of a hollow compressible channel, placed along at least a part of the tire perimeter, the device further comprising a three-way valve, wherein one input is interconnected with the external environment via a valve, a second input is interconnected with the chamber, and the last input is interconnected with a closure element, wherein a ring with variable circumferential length is placed radially inwardly of a radially inner side of the chamber with the distance of its outer side from the tire axis of rotation equal to 1 to 1.1 multiple of the distance of the bottom side of the chamber from the axis of rotation of the tire before mounting, and wherein the ring is placed on the air tube and/or a bag placed inside the tire and filled by air.
An isolated protein selected from the group consisting of: (a) an isolated protein comprising an amino acid sequence of at least 30 contiguous amino acids from SEQ ID NO:2; and, (b) an isolated protein comprising a sequence of at least 50 contiguous amino acids, wherein the at least 50 contiguous amino acid sequence is at least 92% identical over its entire length to an at least 50 contiguous amino acid sequence from SEQ ID NO:2; wherein the isolated protein has at least one activity selected from the group consisting of eliciting an antibody that selectively binds a protein consisting of SEQ ID NO:2, activating expression of the JAK/STAT pathway, and inducing expression of at least one interferon-stimulated gene selected from the group consisting of IFITM1, IFIT1 (IFI-56), IFIT3, MX1, OAS1, STAT1, OAS2, TLR3, EIF2AK2, OAS3, PIK3C2A, IFIH1, DDX58 (RIG-1), CCL5 (RANTES), BRCA2, FANCB, BARD1, NBN, FANCM, RFC3, ZBP1, IFIT2 (IFI-54), ISG15, CXCL11 (IP-9), IL8 and FOS, wherein the isolated protein activates the JAK/STAT pathway. (a) an isolated protein comprising an amino acid sequence of at least 30 contiguous amino acids from SEQ ID NO:2; and, (b) an isolated protein comprising a sequence of at least 50 contiguous amino acids, wherein the at least 50 contiguous amino acid sequence is at least 92% identical over its entire length to an at least 50 contiguous amino acid sequence from SEQ ID NO:2; wherein the isolated protein has at least one activity selected from the group consisting of eliciting an antibody that selectively binds a protein consisting of SEQ ID NO:2, activating expression of the JAK/STAT pathway, and inducing expression of at least one interferon-stimulated gene selected from the group consisting of IFITM1, IFIT1 (IFI-56), IFIT3, MX1, OAS1, STAT1, OAS2, TLR3, EIF2AK2, OAS3, PIK3C2A, IFIH1, DDX58 (RIG-1), CCL5 (RANTES), BRCA2, FANCB, BARD1, NBN, FANCM, RFC3, ZBP1, IFIT2 (IFI-54), ISG15, CXCL11 (IP-9), IL8 and FOS,
A method of constructing a processing plant, the processing plant being configured to process fluid to be processed and includes a plurality of air cooled heat exchangers (ACHEs), wherein the plurality of ACHEs are installed on a pipe rack according to a designed heat exchanger group, the heat exchanger group being designed by a computer, wherein the designed heat exchanger group indicates an arrangement of the heat exchanger group to be installed in the processing plant characterized in that the method of designing the heat exchanger group comprises: a first step of selecting at least one design variable from design variable groups consisting of a design variable relating to a tube bundle to be provided to each of the ACHEs, a design variable relating to each of heat transfer tubes to be included in the tube bundle, and a design variable relating to a fan to be provided to each of the ACHEs as variable parameters, and selecting the number of installed ACHEs in the heat exchanger group as variable parameters and setting a variable range of each of the selected variable parameters; a second step (P 1) of setting design values of each of the ACHEs, which includes the design variables not selected as the variable parameter in the first step (P 1); and a third step of, after the setting of the design value, calculating Pareto solutions for at least two objective functions selected from an objective function group consisting of an installation length of the heat exchanger group when the plurality of ACHEs are arranged in one row, a total heat transfer area of the heat transfer tubes to be included in the heat exchanger group, and total power consumption of the fans included in the heat exchanger group while changing the variable parameters within the variable range set in the first step (P 1); the method of constructing the processing plant comprising constructing the processing plant having the plurality of ACHEs installed on the pipe rack according to the Pareto solutions calculated by the computer for the at least two objective functions selected from the installation length of the heat exchanger group, the total heat transfer area of the heat transfer tubes, and the total power consumption of the fans.
An assembly for a vehicle chassis comprising: - a floor intended to extend substantially along the vehicle following a longitudinal axis, - an exhaust line for gases resulting from a combustion in a heat engine situated in an engine compartment, - a heat screen defining a tunnel in which said exhaust line is positioned, - an apron originating from the floor, and - an apron screen which is mounted between the heat screen and the apron, said heat screen comprising, on the side of the engine compartment, a portion rising towards said engine compartment so as to guide hot air to the interior of said tunnel defined by the heat screen, characterized in that the apron comprises a rounded portion oriented so as to be able to break a wave generated during crossing a ford, said rounded portion being directed towards the ground and being oriented substantially perpendicularly to a direction of advancing of said wave. - a floor intended to extend substantially along the vehicle following a longitudinal axis, - an exhaust line for gases resulting from a combustion in a heat engine situated in an engine compartment, - a heat screen defining a tunnel in which said exhaust line is positioned, - an apron originating from the floor, and - an apron screen which is mounted between the heat screen and the apron,
A soft-solid electrolyte composition comprising: a co-crystal of an ionic compound and an organic compound selected from the group consisting of carbonyl compounds, pyridyl derivatives, and aromatic hydrocarbons; wherein the co-crystal comprises ion channels. a co-crystal of an ionic compound and an organic compound selected from the group consisting of carbonyl compounds, pyridyl derivatives, and aromatic hydrocarbons; wherein the co-crystal comprises ion channels.
Method for checking the structural condition of wind power plants in the form of wind turbines having a plurality of rotor blades, parts of the wind power plants being captured by one or more installed thermographic recording devices and the measured values determined in the process being evaluated with regard to any damage, for which purpose a measurement period (Δt mess) is determined in a first method step, during which period a temperature difference (ΔT) between an internal region of the wind power plant, in particular inside a hollow chamber, and an adjacent external region of the wind power plant (41"), in particular on an outer wall, will assume a minimum value (ΔT min) on account of environmental influences (T U), characterized in that, in the first method step, a profile of the ambient temperature (T U) in the region of a wind power plant is analysed and is used to determine the temperature difference (ΔT) for a time in the future, and an instantaneous temperature (T A) in the external region of the rotor blade is determined, and in that the current temperature (T I) in the internal region of the rotor blade is calculated on the basis of a thermal model of the rotor blade or of a part thereof, the thermal model taking into account the thermal conductivity of the structures and materials in the rotor blade, and in that, in a second method step, an aircraft on which the one or more thermographic recording devices are installed is changed, during this measurement period (Δt mess), to a position in which the wind power plant enters the capturing range of the installed thermographic recording devices, and in that, in a third method step, the wind power plant is captured by the thermographic recording device during this measurement period (Δt mess).
A method for generating a machining program of an electrical discharge machine which comprises an electrode guide supporting an electrode having a rod shape and is configured to form a groove portion in a workpiece by electrically discharging at an end portion of the electrode protruding from the electrode guide and by laterally moving the electrode relative to the workpiece, the method comprising: a reading step for reading an initial shape of a workpiece before machining and a target shape of the workpiece; an electrode path generation step for generating a path of the electrode in which the electrode moves relatively to the workpiece along a surface of the target shape, based on the target shape of the workpiece; a guide path generation step for generating a path of the electrode guide along a surface of the initial shape of the workpiece, based on the initial shape of the workpiece and three dimensional data of the electrode guide, the path of the electrode guide being different from the path of the electrode, in which an interference of the electrode guide with the workpiece is avoided; and a step of generating the machining program in accordance with the path of the electrode and the path of the electrode guide. a reading step for reading an initial shape of a workpiece before machining and a target shape of the workpiece; an electrode path generation step for generating a path of the electrode in which the electrode moves relatively to the workpiece along a surface of the target shape, based on the target shape of the workpiece; a guide path generation step for generating a path of the electrode guide along a surface of the initial shape of the workpiece, based on the initial shape of the workpiece and three dimensional data of the electrode guide, the path of the electrode guide being different from the path of the electrode, in which an interference of the electrode guide with the workpiece is avoided; and a step of generating the machining program in accordance with the path of the electrode and the path of the electrode guide.
An arrangement for a gas turbine engine in which an inner cylindrical casing is connected to a concentric outer cylindrical casing, the arrangement comprising: an inner cylindrical casing; an outer cylindrical casing concentric with the inner cylindrical casing; and a connector (24, 31) connecting the inner and outer cylindrical casings (12, 11), wherein the connector (24, 31) comprises a cylindrical connector (24, 31) disposed between and concentric with the inner and outer cylindrical casings (12, 11), wherein the cylindrical connector (24, 31) is stiff in the direction of the concentric axis but flexible in the direction radially with respect to the concentric axis such that relative thermal expansion of the inner and outer cylindrical casings (12, 11) in the radial direction is permitted whilst simultaneously maintaining the relative position of the casings (12, 11) in the axial direction, wherein the cylindrical connector (24, 31) comprises an annular first end secured to the inner cylindrical casing, an annular second end secured to the outer cylindrical casing, and a cylindrical main body between the annular first and second ends (19, 20), the cylindrical main body being flexible in the radial direction thereby to permit relative thermal expansion of the inner and outer cylindrical casings (12, 11) in the radial direction, wherein the cylindrical main body comprises a cylindrical first section, an annular second section, and a cylindrical third section, the cylindrical first section extending generally axially away from the annular first end to a radially inner part of the annular second section, the cylindrical third section extending generally axially from a radially outer part of the annular second section towards the annular second end, thereby the cylindrical main body forms an S-shape.
An X-ray detection device, comprising: a first line sensor for detecting X-ray that is transmitted through the subject and generating first X-ray image data; a second line sensor arranged in parallel to the first line sensor with a dead zone region having a predetermined width sandwiched therebetween and for detecting X-ray that is transmitted through the subject and generating second X-ray image data, wherein the first line sensor detects X-ray in a first energy range and the second line sensor detects X-ray in a second energy range, one of these energy ranges being a low-energy range and the other being a high-energy range; and a timing control section for outputting first control pulses to the first line sensor and outputting second control pulses to the second line sensor, characterized in that: the predetermined width is narrower than a sensing width of the first line sensor and a sensing width of the second line sensor, and the timing control section is configured to control so as to delay detection timing of at least the second line sensor with respect to detection timing of the first line sensor so that first X-ray image data and second X-ray image data mutually correspond. a first line sensor for detecting X-ray that is transmitted through the subject and generating first X-ray image data; a second line sensor arranged in parallel to the first line sensor with a dead zone region having a predetermined width sandwiched therebetween and for detecting X-ray that is transmitted through the subject and generating second X-ray image data, wherein the first line sensor detects X-ray in a first energy range and the second line sensor detects X-ray in a second energy range, one of these energy ranges being a low-energy range and the other being a high-energy range; and a timing control section for outputting first control pulses to the first line sensor and outputting second control pulses to the second line sensor, characterized in that: the predetermined width is narrower than a sensing width of the first line sensor and a sensing width of the second line sensor, and the timing control section is configured to control so as to delay detection timing of at least the second line sensor with respect to detection timing of the first line sensor so that first X-ray image data and second X-ray image data mutually correspond. the predetermined width is narrower than a sensing width of the first line sensor and a sensing width of the second line sensor, and the timing control section is configured to control so as to delay detection timing of at least the second line sensor with respect to detection timing of the first line sensor so that first X-ray image data and second X-ray image data mutually correspond.