mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for forming inorganic melt-formed fibres comprising:- • a source of molten material; • a fibre forming region housing: iii. a spinning head comprising one or more rotors each having an axis of rotation, at least one rotor being configured to receive molten material from the source of molten material at a region of the rotor to which melt is delivered; iv. a plurality of nozzles or slots disposed around at least part of the one or more rotors, configured to supply a stream of gas at a velocity in excess of 40m.s -1; the fibre forming region being delimited at an end remote from the at least one rotor by a barrier; • a wool bin beyond the barrier to receive fibres from the fibre forming region; and • a conveyor disposed to receive fibres produced from the molten material and settling from the wool bin; the barrier being between the spinning head and the conveyor, an upper edge of the barrier lying below a horizontal line lying in a first vertical plane including the axis of rotation of at least one rotor of the one or more rotors the horizontal line intersecting the intersection of the axis of rotation with a second vertical plane orthogonal to the first vertical plane and including a vertical line through said region of the rotor to which melt is delivered, the included angle θ between the horizontal line and a line in the first vertical plane joining the upper edge of the barrier and the intersection of the horizontal line and axis of rotation being in the range 40°-85°, the spinning head, barrier, and conveyor being disposed to permit fibres carried by the stream of gas to pass over the upper edge of the barrier to the conveyor. • a source of molten material; • a fibre forming region housing: iii. a spinning head comprising one or more rotors each having an axis of rotation, at least one rotor being configured to receive molten material from the source of molten material at a region of the rotor to which melt is delivered; iv. a plurality of nozzles or slots disposed around at least part of the one or more rotors, configured to supply a stream of gas at a velocity in excess of 40m.s -1; the fibre forming region being delimited at an end remote from the at least one rotor by a barrier; iii. a spinning head comprising one or more rotors each having an axis of rotation, at least one rotor being configured to receive molten material from the source of molten material at a region of the rotor to which melt is delivered; iv. a plurality of nozzles or slots disposed around at least part of the one or more rotors, configured to supply a stream of gas at a velocity in excess of 40m.s -1; • a wool bin beyond the barrier to receive fibres from the fibre forming region; and • a conveyor disposed to receive fibres produced from the molten material and settling from the wool bin;
Method for the continuous monitoring of a synchronism between different quality profiles used in HTTP-based adaptive streaming with the respective provision of at least one video with individual images, in which for each quality profile of a plurality of quality profiles which are respectively assigned to different transmission rates, at least one specific individual image is determined for each fragment resulting from a fragmentation carried out, wherein the respective individual images to be determined of the mutually corresponding fragments of the different quality profiles from the plurality of quality profiles correspond to one another with regard to their arrangement within the respective fragment, and a content of the thus determined individual images of the corresponding fragments of the different quality profiles is checked for equality among each other, and an equality among the determined individual images is affirmed as long as existing deviations of the determined individual images among one another are within a defined tolerance range, wherein the method is carried out by a client, wherein the fragments resulting in each case from the fragmentation are downloaded by the client for carrying out the method.
A method of producing a nitride fluorescent material, the method comprising the steps of: preparing a calcined product having a composition represented by following formula: M a v M b w M c x M d y N z wherein M a is at least one element selected from the group consisting of Sr, Ca, Ba, and Mg; M b is at least one element selected from the group consisting of Li, Na, and K; M c is at least one element selected from the group consisting of Eu, Mn, Tb, and Ce; M d is at least one element selected from the group consisting of Al, B, Ga, and In; and v, w, x, y, and z are numbers satisfying 0.8 ≤ v ≤ 1.1, 0.8 ≤ w ≤ 1.1, 0.001 < x ≤ 0.1, 2.0 ≤ y ≤ 4.0, and 3.0 ≤ z ≤ 5.0, respectively; mixing the calcined product with a polar solvent, and optionally removing the polar solvent after mixing, wherein the polar solvent is alcohol and/or ketone containing water in a range of 0.01% by mass or more and 12% by mass or less. preparing a calcined product having a composition represented by following formula: M a v M b w M c x M d y N z wherein M a is at least one element selected from the group consisting of Sr, Ca, Ba, and Mg; M b is at least one element selected from the group consisting of Li, Na, and K; M c is at least one element selected from the group consisting of Eu, Mn, Tb, and Ce; M d is at least one element selected from the group consisting of Al, B, Ga, and In; and v, w, x, y, and z are numbers satisfying 0.8 ≤ v ≤ 1.1, 0.8 ≤ w ≤ 1.1, 0.001 < x ≤ 0.1, 2.0 ≤ y ≤ 4.0, and 3.0 ≤ z ≤ 5.0, respectively; mixing the calcined product with a polar solvent, and optionally removing the polar solvent after mixing, wherein the polar solvent is alcohol and/or ketone containing water in a range of 0.01% by mass or more and 12% by mass or less.
Thio-epoxy resin obtainable from the reaction of at least (a) one polyepoxide compound having at least two epoxide groups per molecule comprising aromatic and/or cycloaliphatic groups, (b) one aliphatic epoxide compound having at least 14 carbon atoms comprising at least one epoxide group, and (c) at least one polythiol compound having at least two mercaptan groups in the presence of (d) at least one base as catalyst, and (e) at least one carbonate compound or a physical propellant or both, wherein as physical propellants substances which change from the liquid or dissolved state to the gaseous state at -10 to 80°C are used, wherein a cellular or foamed thio-epoxy resin is obtained. (a) one polyepoxide compound having at least two epoxide groups per molecule comprising aromatic and/or cycloaliphatic groups, (b) one aliphatic epoxide compound having at least 14 carbon atoms comprising at least one epoxide group, and (c) at least one polythiol compound having at least two mercaptan groups in the presence of (d) at least one base as catalyst, and (e) at least one carbonate compound or a physical propellant or both, wherein as physical propellants substances which change from the liquid or dissolved state to the gaseous state at -10 to 80°C are used,
A piston rod comprising a lead screw and a bearing component, wherein the bearing component comprises a contact surface, a periphery surrounding a centre, and a coupling feature arranged inside the periphery for rotatably engaging the lead screw perpendicular to the contact surface, wherein the coupling feature includes a flexible feature extending from the periphery towards the centre, and the flexible feature is arranged to be deflected towards the periphery by a force exerted on the flexible feature in a direction towards the contact surface and deflected towards the centre by a force exerted on the flexible feature in the opposite direction, characterised in that the lead screw contacts the bearing component at least in a contact area near the periphery of the bearing component (1 so that the force driving the piston rod is transferred to a bung via the contact surface of the bearing component.
A process for adjusting the amount of dilution water of a binding compound intended to be applied on fibers in a fiberizing station of a plant for manufacturing a mat of mineral fibers, the manufacturing plant comprising - a fiberizing station, comprising means for forming the fibers and means for applying, on said fibers, a binding compound resulting from the mixture of a binder composition with dilution water, - a receiving chamber comprising a perforated receiving device, in particular a perforated conveyor or a grid, equipped with a fiber-receiving surface and, below said receiving surface, at least one suction duct, - means for heat treatment of the mat, the process comprising at least the following steps: - determining the humidity of the ambient air in the fiberizing station, - determining the humidity of the intake air and the intake air flow rate in the at least one suction duct, - determining an optimal amount of dilution water as a function at least of the humidity of the ambient air in the fiberizing station, of the humidity of the intake air and of the intake air flow rate in the at least one suction duct, and of the desired amount of water in the mat at the outlet of the receiving chamber, and - adjusting the amount of dilution water as a function of said optimal amount thus determined. - a fiberizing station, comprising means for forming the fibers and means for applying, on said fibers, a binding compound resulting from the mixture of a binder composition with dilution water, - a receiving chamber comprising a perforated receiving device, in particular a perforated conveyor or a grid, equipped with a fiber-receiving surface and, below said receiving surface, at least one suction duct, - means for heat treatment of the mat, - determining the humidity of the ambient air in the fiberizing station, - determining the humidity of the intake air and the intake air flow rate in the at least one suction duct, - determining an optimal amount of dilution water as a function at least of the humidity of the ambient air in the fiberizing station, of the humidity of the intake air and of the intake air flow rate in the at least one suction duct, and of the desired amount of water in the mat at the outlet of the receiving chamber, and - adjusting the amount of dilution water as a function of said optimal amount thus determined.
An air nozzle for an oven of a coating system, comprising: a housing comprising: two side plates; two end plates, respectively located at two ends of the two side plates, wherein the two end plates are both connected to the two side plates, and for each of the side plates, two ends of the side plate are connected to different end plates; a target air outlet and an air inlet, wherein air flow enters the housing through the air inlet and leaves the housing through the target air outlet; and an airflow regulation apparatus and capable of moving between at least a first position and a second position, wherein the airflow regulation apparatus exerts a greater resistance against the air flow in the first position than the airflow regulation apparatus exerts against the air flow in the second position, characterized in that the airflow regulation apparatus is located at the target air outlet and the air inlet is located on the two side plates. a housing comprising: two side plates; two end plates, respectively located at two ends of the two side plates, wherein the two end plates are both connected to the two side plates, and for each of the side plates, two ends of the side plate are connected to different end plates; a target air outlet and an air inlet, wherein air flow enters the housing through the air inlet and leaves the housing through the target air outlet; and two side plates; two end plates, respectively located at two ends of the two side plates, wherein the two end plates are both connected to the two side plates, and for each of the side plates, two ends of the side plate are connected to different end plates; a target air outlet and an air inlet, wherein air flow enters the housing through the air inlet and leaves the housing through the target air outlet; and an airflow regulation apparatus and capable of moving between at least a first position and a second position, wherein the airflow regulation apparatus exerts a greater resistance against the air flow in the first position than the airflow regulation apparatus exerts against the air flow in the second position, characterized in that the airflow regulation apparatus is located at the target air outlet and the air inlet is located on the two side plates.
A computer-implemented method for processing magnetic resonance relaxometry data of a visceral tissue of a subject, comprising: a) obtaining a measurement of T1 relaxometry data of a subject's visceral tissue for extracellular fluid from a bSSFP signal measured by a T1 mapping method using a MR system having a static magnetic field; b) determining by means of measurements fat content of the subject's visceral tissue, iron content of the subject's visceral tissue and off-resonance frequencies of the MR system, wherein the off-resonance frequencies of the MR system represent deviations from the central frequency of the MR system and are proportional to the inhomogeneity of the static magnetic field of the MR system; c) comparing the bSSFP signal from the T1 mapping method of the subject's visceral tissue of Step (a) to simulated bSSFP signals of the subject's visceral tissue for different fractions of extracellular fluid for the determined fat content, iron content and off-resonance frequencies, the simulated bSSFP signals having been obtained by simulating the T1 mapping method; and d) determining a corrected value of T1 from the T1 mapping method simulated for zero fat content and a normal iron content, and preferably for zero off-resonance frequency, for the subject's visceral tissue for the fraction of extracellular fluid corresponding to the simulated bSSFP signal having the highest level of similarity among the simulated bSSFP signals to the measured bSSFP signal. a) obtaining a measurement of T1 relaxometry data of a subject's visceral tissue for extracellular fluid from a bSSFP signal measured by a T1 mapping method using a MR system having a static magnetic field; b) determining by means of measurements fat content of the subject's visceral tissue, iron content of the subject's visceral tissue and off-resonance frequencies of the MR system, wherein the off-resonance frequencies of the MR system represent deviations from the central frequency of the MR system and are proportional to the inhomogeneity of the static magnetic field of the MR system; c) comparing the bSSFP signal from the T1 mapping method of the subject's visceral tissue of Step (a) to simulated bSSFP signals of the subject's visceral tissue for different fractions of extracellular fluid for the determined fat content, iron content and off-resonance frequencies, the simulated bSSFP signals having been obtained by simulating the T1 mapping method; and d) determining a corrected value of T1 from the T1 mapping method simulated for zero fat content and a normal iron content, and preferably for zero off-resonance frequency, for the subject's visceral tissue for the fraction of extracellular fluid corresponding to the simulated bSSFP signal having the highest level of similarity among the simulated bSSFP signals to the measured bSSFP signal.
A method comprising the following steps: (a) illuminating an optically stimulated luminescence sensor (110, 111, 112) with illumination light from an LED for a first period of time based on a first number of clock cycles of a microprocessor, (b) counting photon pulses generated by a photodetector using a pulse counter for a second period of time after a delay time, (c) repeating steps (a) and (b) for a first predetermined number of measurement cycles, (d) a microprocessor (166, 424) determining a radiation dose for one type of ionizing radiation to which the OSL sensor has been exposed based on a number of photon pulses counted in step (b) after steps (a) and (b) have been repeated for the first predetermined number of measurement cycles, and (e) displaying the radiation dose to a user and/or saving the radiation dose to a storage medium, wherein photons of luminescent light emitted by the OSL sensor are registered by the photodetector, wherein the photon pulses generated by the photodetector are based on the photons of luminescent light registered by the photodetector, wherein the second period of time is based on a second number of microprocessor clock cycles after a delay time based on a third number of microprocessor clock cycles, wherein the delay time is based on a third number of microprocessor clock cycles, whe rein OSL sensor has been subjected to a dose of the one type of ionizing radiation prior to step (a), wherein the luminescent light is emitted by the OSL sensor in response to step (a), and wherein the pulse counter is part of the microprocessor (166, 424). (a) illuminating an optically stimulated luminescence sensor (110, 111, 112) with illumination light from an LED for a first period of time based on a first number of clock cycles of a microprocessor, (b) counting photon pulses generated by a photodetector using a pulse counter for a second period of time after a delay time, (c) repeating steps (a) and (b) for a first predetermined number of measurement cycles, (d) a microprocessor (166, 424) determining a radiation dose for one type of ionizing radiation to which the OSL sensor has been exposed based on a number of photon pulses counted in step (b) after steps (a) and (b) have been repeated for the first predetermined number of measurement cycles, and (e) displaying the radiation dose to a user and/or saving the radiation dose to a storage medium,
Immune stimulating pharmaceutical composition comprising an aluminium salt for use in the treatment of Alzheimer's Disease, wherein the immune stimulating pharmaceutical composition comprising an aluminium salt is administered to a patient having AD in an effective amount, and wherein the aluminium salt is administered in an amount of at least 1.2 mg per administration dose to an AD patient, wherein the aluminium salt is aluminium oxyhydroxide.
A method of producing an elastomer diaphragm, the method comprising: - arranging (101; 806; 404; 1204; 1502) an electronic data carrier in a predetermined position between two layers (6, 8), and - compression moulding (102; 810; 406; 1206; 1506, 1510) the two layers (6, 8) to the electronic data carrier arranged therebetween, characterised in that the electronic data carrier is connected to a positioning aid at least for a time, and in that the positioning aid limits wander of the electronic data carrier from the predetermined position during the compression moulding. - arranging (101; 806; 404; 1204; 1502) an electronic data carrier in a predetermined position between two layers (6, 8), and - compression moulding (102; 810; 406; 1206; 1506, 1510) the two layers (6, 8) to the electronic data carrier arranged therebetween, characterised in that the electronic data carrier is connected to a positioning aid at least for a time, and
A method for producing a coil integrated in a substrate, wherein the coil has first winding portions, which each have a first end and a second end, and wherein the coil has second winding portions and third winding portions, wherein the second winding portions electrically interconnect two of the first ends of the first winding portions each, and the third winding portions electrically interconnect two of the second ends of the first winding portions each, such that coil windings of the coil are thus formed, wherein at least the first winding portions are applied by a 3D printing method which enables three-dimensional electrical line structures to be applied by printing, wherein a cavity is produced in the substrate, wherein the first winding portions are applied to the flanks (112, 114) of the cavity and the second winding portions are applied to the base of the cavity by the 3D printing method, wherein the substrate contains glass fibres and the cavity is produced in the substrate by means of a machining method, such that the glass fibres of the substrate located in an edge region of the cavity are severed by the machining method when producing the cavity, the method comprising the following further steps: - introducing a material into the cavity, wherein the material extends at least over the base and the flanks of the cavity, - partially removing the material from the cavity apart from a layer of the material extending over the base and the flanks of the cavity, wherein the first winding portions and the second winding portions are applied to the layer of material. - introducing a material into the cavity, wherein the material extends at least over the base and the flanks of the cavity, - partially removing the material from the cavity apart from a layer of the material extending over the base and the flanks of the cavity, wherein the first winding portions and the second winding portions are applied to the layer of material.
A voltage application device for applying a voltage between a first electrode and a second electrode disposed separately from each other in an airflow generation device, the airflow generation device is configured to be disposed on a rotation blade of a rotation apparatus, the rotation apparatus provides a rotation shaft of the rotation blade held rotatably by a holding part, the voltage application device comprising: an AC/DC conversion unit for converting a alternating voltage of a commercial frequency into a direct-current voltage; a high frequency generation unit for generating a high frequency alternating voltage based on the direct-current voltage converted by the AC/DC conversion unit; slip rings for transmitting alternating voltage or direct current voltage from the holding part side to the rotation blade side; and a transformer for increasing the alternating voltage generated by the high frequency generation unit and outputting the increased voltage between the first electrode and the second electrode, characterized by the voltage application device is configured such that at least one of the below configurations is possible: the high frequency generation unit being disposed on the holding part side and the slip rings transmitting the high frequency voltage from the high frequency generation unit to the transformer; or the high frequency generation unit being disposed on the rotation blade side and the slip rings transmitting the direct current voltage from the AC/DC conversion unit to the high frequency generation unit. an AC/DC conversion unit for converting a alternating voltage of a commercial frequency into a direct-current voltage; a high frequency generation unit for generating a high frequency alternating voltage based on the direct-current voltage converted by the AC/DC conversion unit; slip rings for transmitting alternating voltage or direct current voltage from the holding part side to the rotation blade side; and a transformer for increasing the alternating voltage generated by the high frequency generation unit and outputting the increased voltage between the first electrode and the second electrode, characterized by the voltage application device is configured such that at least one of the below configurations is possible: the high frequency generation unit being disposed on the holding part side and the slip rings transmitting the high frequency voltage from the high frequency generation unit to the transformer; or the high frequency generation unit being disposed on the rotation blade side and the slip rings transmitting the direct current voltage from the AC/DC conversion unit to the high frequency generation unit. the high frequency generation unit being disposed on the holding part side and the slip rings transmitting the high frequency voltage from the high frequency generation unit to the transformer; or the high frequency generation unit being disposed on the rotation blade side and the slip rings transmitting the direct current voltage from the AC/DC conversion unit to the high frequency generation unit.