mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling data transmissions within a cellular telecommunications network comprising user equipment and a plurality of base stations, each base station utilising a predetermined plurality of antennas to support data communication within its associated cell (W-Z), said method comprising the steps of: determining at least one uncoordinated quality of service level provided to said user equipment for data transmissions occurring in a corresponding at least one uncoordinated mode in which a plurality of antennas within a single cell supported by a single base station perform data transmissions with said user equipment and at least one coordinated quality of service level provided to user equipment for data transmissions occurring in a corresponding at least one coordinated mode in which a plurality of antennas in each of the associated at least two (W-Z) cells supported by at least two base stations forming a corresponding virtual cell (120B; 120C) perform coordinated data transmissions with said user equipment; establishing at said network controller which of said at least one uncoordinated mode and said at least one coordinated mode provides a desired quality of service to said user equipment; and when said at least one coordinated mode provides said desired quality of service to said user equipment, signalling base stations associated with said at least two cells (W-Z) to perform data transmissions with said user equipment in said at least one coordinated mode. determining at least one uncoordinated quality of service level provided to said user equipment for data transmissions occurring in a corresponding at least one uncoordinated mode in which a plurality of antennas within a single cell supported by a single base station perform data transmissions with said user equipment and at least one coordinated quality of service level provided to user equipment for data transmissions occurring in a corresponding at least one coordinated mode in which a plurality of antennas in each of the associated at least two (W-Z) cells supported by at least two base stations forming a corresponding virtual cell (120B; 120C) perform coordinated data transmissions with said user equipment; establishing at said network controller which of said at least one uncoordinated mode and said at least one coordinated mode provides a desired quality of service to said user equipment; and
An amino acid formulation for oral administration, comprising granulates of fifteen or more of the following amino acids in the recited weight parts: Amino Acid Weight Parts L-Alanine 2.0-12.0 L-Arginine 3.0-10.5 L-Aspartic Acid 5.0-10.5 L-Cystine 1.5-4.0 L-Glutamic Acid + Glutamine 7.0-25.0 Glycine 3.5-15.0 L-Histidine 2.0-6.5 L-Isoleucine 2.0-8.5 L-Leucine 8.0-15.0 L-Lysine 4.5-10.5 L-Methionine 1.0-3.0 L-Phenylalanine 0.0 or 4.0-7.5 L-Proline 3.5-15.0 L-Serine 2.0-8.5 L-Threonine 4.0-7.5 L-Tryptophan 1.0-4.0 L-Tyrosine 0.0 or 2.5-14.0 L-Valine 2.5-10.0 L-Carnitine 0.0-0.2 Taurine 0.05-1.0 wherein the granulates are coated by a coating of from 1 wt% to 15 wt% ethylcellulose based on the weight of the amino acids; and wherein 2 g of said amino acids in said granulates release no more than 60% of the amino acids in 30 minutes of dissolution testing performed in a <711> USP 39 NF 34, paddle apparatus, at 37 °C, in 500 mL, 0.1 N hydrochloric acid (pH 1.2), paddle speed 50 rpm.
A steering control system configured to control a motor that assists or performs steering of a steering mechanism, the steering control system comprising: a first calculation circuit that calculates a basic component (Ta1*) of an assist force based on a torque signal detected based on torsion between an input side of a steering shaft and an output side of the steering shaft; a second calculation circuit that calculates a compensation component (Ta2*) for the basic component (Ta1*), by calculating, based on the torque signal, a rotation angle command value (θp*) for a rotary shaft and then calculating, based on the rotation angle command value (θp*) and a second command value (θa*), a final rotation angle command value (θ*) and then executing angle feedback control based on the final rotation angle command value (θ*), the rotation angle command value being convertible into a steered angle of steered wheels, the second command value (θa*) being externally generated for driver assistance based on information about an environment surrounding a host vehicle; and a first command value generation adder that calculates a first command value (Ta*) by adding the compensation component (Ta2*) to the basic component (Ta1*); characterized by a torque signal correction circuit that is configured to receive the second command value (θa*) and the torque signal and to correct the torque signal used to calculate the basic component (Ta1*) and the compensation component (Ta2*) by increasing or decreasing the torque signal when the second command value (θa*) is reflected in the compensation component (Ta2*). a first calculation circuit that calculates a basic component (Ta1*) of an assist force based on a torque signal detected based on torsion between an input side of a steering shaft and an output side of the steering shaft; a second calculation circuit that calculates a compensation component (Ta2*) for the basic component (Ta1*), by calculating, based on the torque signal, a rotation angle command value (θp*) for a rotary shaft and then calculating, based on the rotation angle command value (θp*) and a second command value (θa*), a final rotation angle command value (θ*) and then executing angle feedback control based on the final rotation angle command value (θ*), the rotation angle command value being convertible into a steered angle of steered wheels, the second command value (θa*) being externally generated for driver assistance based on information about an environment surrounding a host vehicle; and a first command value generation adder that calculates a first command value (Ta*) by adding the compensation component (Ta2*) to the basic component (Ta1*); characterized by a torque signal correction circuit that is configured to receive the second command value (θa*) and the torque signal and to correct the torque signal used to calculate the basic component (Ta1*) and the compensation component (Ta2*) by increasing or decreasing the torque signal when the second command value (θa*) is reflected in the compensation component (Ta2*).
A food processing apparatus comprising: a drive unit configured to drive a processing tool; a first activation site to permit actuation of the drive unit; a first container; and a second container; wherein: the drive unit is useable in a first mode of operation with the first container and is useable in a second mode of operation with the second container; in the first mode of operation, the first activation site is accessible by a user; and in the second mode of operation, a user is prevented from interacting with the first activation site when the drive unit is placed in an upright position on a flat support surface. a drive unit configured to drive a processing tool; a first activation site to permit actuation of the drive unit; a first container; and a second container; the drive unit is useable in a first mode of operation with the first container and is useable in a second mode of operation with the second container; in the first mode of operation, the first activation site is accessible by a user; and in the second mode of operation, a user is prevented from interacting with the first activation site when the drive unit is placed in an upright position on a flat support surface.
An undercarriage for a tracked work vehicle, comprising: - a roller wheel beam comprising a clevis, wherein the clevis comprises a first arm and a second arm, and wherein the first arm comprises a first opening and the second arm comprises a second opening; characterized by - a bushing mount (60, 62) to couple a roller wheel beam to an undercarriage beam, comprising a third opening (124, 128), and configured to be disposed between the first arm and the second arm; - a pin assembly (76, 78) configured to couple the roller wheel beam to the bushing mount (60, 62), wherein the pin assembly (76, 78) comprises: - a first pin configured to be inserted into the first opening and a first end of the third opening (124, 128); - a second pin configured to be inserted into the second opening and a second end of the third opening (124, 128); wherein the first pin is configured to abut the second pin when the first pin and the second pin are inserted into respective openings. - a roller wheel beam comprising a clevis, wherein the clevis comprises a first arm and a second arm, and wherein the first arm comprises a first opening and the second arm comprises a second opening; - a bushing mount (60, 62) to couple a roller wheel beam to an undercarriage beam, comprising a third opening (124, 128), and configured to be disposed between the first arm and the second arm; - a pin assembly (76, 78) configured to couple the roller wheel beam to the bushing mount (60, 62), wherein the pin assembly (76, 78) comprises: - a first pin configured to be inserted into the first opening and a first end of the third opening (124, 128); - a second pin configured to be inserted into the second opening and a second end of the third opening (124, 128); - a first pin configured to be inserted into the first opening and a first end of the third opening (124, 128); - a second pin configured to be inserted into the second opening and a second end of the third opening (124, 128);
Subsea sand handling system for limiting abrasion of specific subsea equipment, comprising an inlet connectable to a sand separation system upstream of the specific equipment and an outlet (18,22) connectable to a pipeline downstream of the specific equipment, characterized in that the subsea sand handling system comprises at least two collection vessels (11,14) and means for flushing (16,17,19, 21) the sand out of at least one of the collection vessels (11,14), and the vessels (11,14) and the means for flushing (16,17,19,21) the sand out of said vessels (11,14) are configured such that sand is flushed from one vessel (11,14) while sand at the same time is collected in the other vessel (14,11).
A measurement module configured for releasable attachment to a surgical instrument, the measurement module comprising: a housing; a measurement cannula; a transducer assembly including a gear coupled to the measurement cannula and configured to rotate more than 360 degrees about a gear axis upon the movement of the measurement cannula relative to the housing, the gear having a reference point having an angular path of rotation about the gear axis being divided into a first arcuate region and a second arcuate region, the first arcuate region being separate from the second arcuate region; and a transducer comprising at least two rotational sensor devices (500, 501), each of the at least two rotational sensor devices (500, 501) coupled to the gear, a first of the at least two rotational sensor devices (500, 501) configured to detect a rotational position of the reference point in the first arcuate region and a second of the at least two rotational sensor devices (500, 501) configured to detect the rotational position of the reference point in at least the second arcuate region, the first rotational sensor being incapable of detecting the reference point in the second arcuate region. a housing; a measurement cannula; a transducer assembly including a gear coupled to the measurement cannula and configured to rotate more than 360 degrees about a gear axis upon the movement of the measurement cannula relative to the housing, the gear having a reference point having an angular path of rotation about the gear axis being divided into a first arcuate region and a second arcuate region, the first arcuate region being separate from the second arcuate region; and a transducer comprising at least two rotational sensor devices (500, 501), each of the at least two rotational sensor devices (500, 501) coupled to the gear, a first of the at least two rotational sensor devices (500, 501) configured to detect a rotational position of the reference point in the first arcuate region and a second of the at least two rotational sensor devices (500, 501) configured to detect the rotational position of the reference point in at least the second arcuate region, the first rotational sensor being incapable of detecting the reference point in the second arcuate region.
A fine tuning structure for headphones, configured for tuning an angle between a head band and a earpiece unit of a headphone, wherein the fine tuning structure for headphones comprises an upper assembly connected to an end of the head band and a lower assembly connected to the earpiece unit, the upper assembly and the lower assembly are hinged together, characterized in that the upper assembly is provided with a step portion, the lower assembly is movably connected to a limiting part, and the limiting part is provided with a plurality of limiting blocks having different thicknesses that are capable of being abutted against the step portion and are configured for limiting an angle of the lower assembly relative to the upper assembly, wherein the upper assembly is provided with a protruded block, the protruded block is provided with a rotating cavity, when the limiting part rotates, the limiting blocks having different thicknesses are driven to rotate in the rotating cavity to adjust the angle between the head band and the earpiece unit.
A method of preparing a personalized blood vessel comprising, contacting a surface of an acellular tubular scaffold with an undiluted whole blood sample from a subject in need of the personalized blood vessel, wherein the contacting is performed for 3 days to 14 days.
A process for producing acetic acid comprising: carbonylating at least one reactant selected from the group consisting of methanol, dimethyl ether, methyl acetate, and mixtures thereof, in the presence of 0.1 to 14 wt.% water, a metal catalyst, methyl iodide and iodide salt to form a reaction medium in a reactor; separating the reaction medium into a liquid recycle and a vapor product stream including acetic acid, methyl iodide, methyl acetate and water; condensing a first portion of the vapor product stream to form a liquid stream; feeding a second portion of the vapor product stream to a first column; feeding at least a portion of the liquid stream to the first column; and withdrawing a side stream from the first column comprising an acetic acid product; wherein the liquid stream is fed to the first column above the feed of the second portion of the vapor product stream and wherein the liquid stream is fed to the first column below the point at which the side stream comprising the acetic acid product is withdrawn from the first column. carbonylating at least one reactant selected from the group consisting of methanol, dimethyl ether, methyl acetate, and mixtures thereof, in the presence of 0.1 to 14 wt.% water, a metal catalyst, methyl iodide and iodide salt to form a reaction medium in a reactor; separating the reaction medium into a liquid recycle and a vapor product stream including acetic acid, methyl iodide, methyl acetate and water; condensing a first portion of the vapor product stream to form a liquid stream; feeding a second portion of the vapor product stream to a first column; feeding at least a portion of the liquid stream to the first column; and withdrawing a side stream from the first column comprising an acetic acid product; wherein the liquid stream is fed to the first column above the feed of the second portion of the vapor product stream and wherein the liquid stream is fed to the first column below the point at which the side stream comprising the acetic acid product is withdrawn from the first column.
A delivery system comprising: (a) an optical sensor comprising a three-dimensional optical detector configured to detect data useful to create a map of a bodily surface; (b) a printer operatively associated with said optical-sensor, said printer for use to deliver cells and/or compositions to said bodily surface based upon said data or said map, wherein the printer comprises a three-dimensional plotter; and (c) a controller operatively connected with said printer, wherein said delivery system further comprises a system for processing data of the bodily surface obtained from the three-dimensional detector to provide a path to the printer, said data processing system comprising: means for interpreting the bodily surface data from said three-dimensional detector to form a model of the surface; means for transforming said model into a negative mold of the bodily surface, which mold is split into a plurality of Z-axis layers; and means for overlaying each of said Z-axis layers of the negative mold_with a series of lines which represent coverage of the bodily surface, wherein said lines provide a path for control software of the controller to use to control the printer. (a) an optical sensor comprising a three-dimensional optical detector configured to detect data useful to create a map of a bodily surface; (b) a printer operatively associated with said optical-sensor, said printer for use to deliver cells and/or compositions to said bodily surface based upon said data or said map, wherein the printer comprises a three-dimensional plotter; and (c) a controller operatively connected with said printer, wherein said delivery system further comprises a system for processing data of the bodily surface obtained from the three-dimensional detector to provide a path to the printer, said data processing system comprising: means for interpreting the bodily surface data from said three-dimensional detector to form a model of the surface; means for transforming said model into a negative mold of the bodily surface, which mold is split into a plurality of Z-axis layers; and means for overlaying each of said Z-axis layers of the negative mold_with a series of lines which represent coverage of the bodily surface, wherein said lines provide a path for control software of the controller to use to control the printer. means for interpreting the bodily surface data from said three-dimensional detector to form a model of the surface; means for transforming said model into a negative mold of the bodily surface, which mold is split into a plurality of Z-axis layers; and means for overlaying each of said Z-axis layers of the negative mold_with a series of lines which represent coverage of the bodily surface, wherein said lines provide a path for control software of the controller to use to control the printer.
A particle characterization method, comprising: receiving a fluid that carries particles flowing along a flow axis, receiving a first subset of the fluid in a central acquisition channel, receiving second and third subsets of the fluid in a pair of lateral bypass channels (30, 34) disposed on either side of the central imaging channel, illuminating the first subset of the fluid along an optical axis through a window in the central imaging channel with a radiation beam, acquiring radiation from the sample resulting from interaction of the radiation beam with the sample, and deriving information about the particles from the radiation acquired in the step of acquiring; wherein the central acquisition channel increases in width and decreases in depth along the flow axis perpendicular to the optical axis before the central acquisition channel reaches the window, and the step of receiving slows the overall flow of the received acquisition and bypass flows by presenting a larger overall cross section upstream of the window. receiving a fluid that carries particles flowing along a flow axis, receiving a first subset of the fluid in a central acquisition channel, receiving second and third subsets of the fluid in a pair of lateral bypass channels (30, 34) disposed on either side of the central imaging channel, illuminating the first subset of the fluid along an optical axis through a window in the central imaging channel with a radiation beam, acquiring radiation from the sample resulting from interaction of the radiation beam with the sample, and deriving information about the particles from the radiation acquired in the step of acquiring; wherein the central acquisition channel increases in width and decreases in depth along the flow axis perpendicular to the optical axis before the central acquisition channel reaches the window, and the step of receiving slows the overall flow of the received acquisition and bypass flows by presenting a larger overall cross section upstream of the window.
A method of manufacturing a wood-based panel, wherein at least one flame retardant is applied to the wood particles as an aqueous suspension in the form of a spray agent during the manufacturing process, the aqueous flame retardant suspension comprising - at least one phosphate salt and/or sulfate, - a mixture of at least one compound of the general formula R 1 a SiX (4-a), whereby - X is alkoxy, and - R 1 is an organic moiety selected from the group consisting of alkyl cycloalkyl or phenyl, and - a = 1, 2, 3, in particular 1 or 2, - at least one compound of the general formula SiX 4, where X is alkoxy, and - at least one compound of the general formula R 2 SiX 3, whereby - X is alkoxy, and - R 2 is an organic moiety selected from the group comprising C1-C10 alkyl, which may be interrupted by -O- or -NH-, and - wherein R 2 comprises at least one functional moiety Q 1 selected from a group comprising a methacrylic, methacryloxy, vinyl and epoxy group. - at least one phosphate salt and/or sulfate, - a mixture of at least one compound of the general formula R 1 a SiX (4-a), whereby - X is alkoxy, and - R 1 is an organic moiety selected from the group consisting of alkyl cycloalkyl or phenyl, and - a = 1, 2, 3, in particular 1 or 2, - X is alkoxy, and - R 1 is an organic moiety selected from the group consisting of alkyl cycloalkyl or phenyl, and - a = 1, 2, 3, in particular 1 or 2, - at least one compound of the general formula SiX 4, where X is alkoxy, and - at least one compound of the general formula R 2 SiX 3, whereby - X is alkoxy, and - R 2 is an organic moiety selected from the group comprising C1-C10 alkyl, which may be interrupted by -O- or -NH-, and - wherein R 2 comprises at least one functional moiety Q 1 selected from a group comprising a methacrylic, methacryloxy, vinyl and epoxy group. - X is alkoxy, and - R 2 is an organic moiety selected from the group comprising C1-C10 alkyl, which may be interrupted by -O- or -NH-, and - wherein R 2 comprises at least one functional moiety Q 1 selected from a group comprising a methacrylic, methacryloxy, vinyl and epoxy group.