mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing Compound I : or a pharmaceutically acceptable salt thereof, comprising converting a compound of Formula (I) : or a salt thereof, into Compound I , or a pharmaceutically acceptable salt thereof, wherein: X a is selected from F, Cl, Br, I, and -OSO 2 R; R is selected from -C 1-10 alkyl, -C 1-10 haloalkyl, and aryl optionally substituted with -C 1-10 alkyl, -C 1-10 haloalkyl, halo, or nitro; and X c is selected from F, Cl, Br, and I. X a is selected from F, Cl, Br, I, and -OSO 2 R; R is selected from -C 1-10 alkyl, -C 1-10 haloalkyl, and aryl optionally substituted with -C 1-10 alkyl, -C 1-10 haloalkyl, halo, or nitro; and X c is selected from F, Cl, Br, and I.
An oily ink composition for ink jet recording containing: an oily medium; and a colorant, wherein the oily medium contains an aliphatic alcohol containing 12 or more carbon atoms in one molecule and an allyl ether selected from triethylene glycol allyl methyl ether and diethylene glycol allyl butyl ether or represented by the following formula: where R 1 and R 2 independently represent a hydrogen atom or a methyl group, R 3 represents a hydrogen atom or an allyl group, k represents an integer of 1 to 4, and m and n each represent an integer satisfying the inequality m + n ≤ 3. medium; and a colorant, wherein the oily medium contains an aliphatic alcohol containing 12 or more carbon atoms in one molecule and an allyl ether selected from triethylene glycol allyl methyl ether and diethylene glycol allyl butyl ether or represented by the following formula: where R 1 and R 2 independently represent a hydrogen atom or a methyl group, R 3 represents a hydrogen atom or an allyl group, k represents an integer of 1 to 4, and m and n each represent an integer satisfying the inequality m + n ≤ 3.
A computer-implemented method for detecting degraded ground paint in an image comprising: performing semantic segmentation on the image to determine one or more pixels of the image that are classified in a ground paint category; generating a binary image that contains the one or more pixels of the image that are classified in the ground paint category; generating a hole-filled binary image by filling in the binary image to generate one or more curvilinear structures from the one or more pixels; determining a difference between the image and the hole-filled binary image to identify one or more degraded ground paint pixels of the image; and providing the one or more degraded ground paint pixels as an output. performing semantic segmentation on the image to determine one or more pixels of the image that are classified in a ground paint category; generating a binary image that contains the one or more pixels of the image that are classified in the ground paint category; generating a hole-filled binary image by filling in the binary image to generate one or more curvilinear structures from the one or more pixels; determining a difference between the image and the hole-filled binary image to identify one or more degraded ground paint pixels of the image; and providing the one or more degraded ground paint pixels as an output.
Decoding module for a primary base station in a network comprising a plurality of base stations , each base station serving a cell and each cell being partitioned into a plurality of sectors , the primary base station serving a first cell and the decoding module being configured to receive information from each of a plurality of secondary base stations each serving a respective second cell adjacent to the first cell , wherein the information is representative of at least one message originating from at least one terminal located in the respective second cell of a secondary base station in one specific sector adjacent to the first cell , and jointly decode the information sent from the secondary base stations and at least one message originating from at least one terminal located in the first cell , wherein the information , which the decoding module is configured to jointly decode, originates from terminals located in a cluster of sectors , and the cluster includes the sectors of the first cell and the specific sectors of the respective second cells adjacent to the first cell , characterised in that if a respective second cell has two or more sectors adjacent to the first cell , the one specific sector adjacent to the first cell has a predetermined position relative to the other sectors of the respective second cell adjacent to the first cell , and wherein the specific sectors of the respective second cells in the cluster form disjoint pairs of adjacent sectors . receive information from each of a plurality of secondary base stations each serving a respective second cell adjacent to the first cell , wherein the information is representative of at least one message originating from at least one terminal located in the respective second cell of a secondary base station in one specific sector adjacent to the first cell , and jointly decode the information sent from the secondary base stations and at least one message originating from at least one terminal located in the first cell , wherein the information , which the decoding module is configured to jointly decode, originates from terminals located in a cluster of sectors , and the cluster includes the sectors of the first cell and the specific sectors of the respective second cells adjacent to the first cell , characterised in that if a respective second cell has two or more sectors adjacent to the first cell , the one specific sector adjacent to the first cell has a predetermined position relative to the other sectors of the respective second cell adjacent to the first cell , and wherein the specific sectors of the respective second cells in the cluster form disjoint pairs of adjacent sectors .
A 5-axis machining center comprising: a base including a first lateral surface , a second lateral surface , a fourth lateral surface , and a fifth lateral surface to function as both a column and a bed on which a spindle is movable, and that is erected on the ground in a Y-axis direction; a saddle attached to the first lateral surface of the base to be movable in the Y-axis direction; a Z-axis ram coupled to the saddle to be movable in a Z-axis direction and having the spindle capable of mounting a tool and rotating a mounted tool on a front end thereof; and an X-axis ram attached to the second lateral surface orthogonal to the first lateral surface of the base to be movable in an X-axis direction and having a table capable of mounting a workpiece on a front end thereof facing the spindle , the table includes a table body rotatable around an a axis parallel to the X axis, and a table surface rotatable on the table body around a b axis perpendicular to the a axis and allowing the workpiece to be mounted thereon, and other structures are not formed below the table to allow chips generated when the workpiece is machined to free fall to the ground, characterized in that the base has the shape of a pentagonal pillar, further including a third lateral surface and wherein, when viewed from above, the base is formed to form a triangle (t) when points, at which a horizontal line (h) passing on the third lateral surface, an X axis, and a Z axis meet, are connected. a base including a first lateral surface , a second lateral surface , a fourth lateral surface , and a fifth lateral surface to function as both a column and a bed on which a spindle is movable, and that is erected on the ground in a Y-axis direction; a saddle attached to the first lateral surface of the base to be movable in the Y-axis direction; a Z-axis ram coupled to the saddle to be movable in a Z-axis direction and having the spindle capable of mounting a tool and rotating a mounted tool on a front end thereof; and an X-axis ram attached to the second lateral surface orthogonal to the first lateral surface of the base to be movable in an X-axis direction and having a table capable of mounting a workpiece on a front end thereof facing the spindle , the table includes a table body rotatable around an a axis parallel to the X axis, and a table surface rotatable on the table body around a b axis perpendicular to the a axis and allowing the workpiece to be mounted thereon, and other structures are not formed below the table to allow chips generated when the workpiece is machined to free fall to the ground, characterized in that the base has the shape of a pentagonal pillar, further including a third lateral surface and wherein, when viewed from above, the base is formed to form a triangle (t) when points, at which a horizontal line (h) passing on the third lateral surface, an X axis, and a Z axis meet, are connected.
Device comprising a radome (R) and an antenna (A), the antenna being provided with slots, each slot being able to radiate, in the direction of an inner wall of the radome, an electric field having a predetermined rectilinear direction of polarization, the radome being provided with a lightning protection system, characterized in that the lightning protection system comprises at least one lightning protection strip positioned on an inner wall of the radome, each of said at least one lightning protection strip defining, on the inner wall of the radome, a curve which is substantially perpendicular, at each of its points, to the predetermined rectilinear direction of polarization of the electric field vector.
A method for producing a fluoride fluorescent material, comprising: preparing fluoride particles having a composition containing at least one element or ion A selected from the group consisting of alkali metal elements and NH 4 + , at least one M element selected from the group consisting of Group-4 elements and Group-14 elements, Mn 4+ , and F, in which a molar ratio of A in 1 mol of the composition is 2, a total molar ratio of M and Mn 4+ is 1, a molar ratio of Mn 4+ is in a range of more than 0 and less than 0.2, and a molar ratio of F is 6; subjecting the fluoride particles to a first heat treatment at a temperature of 500°C or more in an inert gas atmosphere; washing the first heat-treated fluoride particles with a washing liquid; and bringing the washed fluoride particles into contact with a fluorine-containing substance and subjecting the resulting fluoride particles to a second heat treatment at a temperature of 400°C or more. preparing fluoride particles having a composition containing at least one element or ion A selected from the group consisting of alkali metal elements and NH 4 + , at least one M element selected from the group consisting of Group-4 elements and Group-14 elements, Mn 4+ , and F, at least one element or ion A selected from the group consisting of alkali metal elements and NH 4 + , at least one M element selected from the group consisting of Group-4 elements and Group-14 elements, Mn 4+ , and F, in which a molar ratio of A in 1 mol of the composition is 2, a total molar ratio of M and Mn 4+ is 1, a molar ratio of Mn 4+ is in a range of more than 0 and less than 0.2, and a molar ratio of F is 6; subjecting the fluoride particles to a first heat treatment at a temperature of 500°C or more in an inert gas atmosphere; washing the first heat-treated fluoride particles with a washing liquid; and bringing the washed fluoride particles into contact with a fluorine-containing substance and subjecting the resulting fluoride particles to a second heat treatment at a temperature of 400°C or more.
Device for heating of asphalt and similar mixtures and repairs of asphalt surfaces, provided with at least one microwave generator and a control system, wherein the outlet chamber is provided by at least one mixer , on which at least one deflector is fixed on a horizontal, rotary shaft , for dispersion of microwaves generated by said microwave generator, characterized in that the at least one deflector comprises deflectors having different diameters from 100 to 350 millimetres
A compound of formula I: wherein, R 1 is an aromatic radical selected from a group consisting of: and R 2 is an aliphatic radical; R 3 is a side chain of an amino acid; and Y is selected from a group consisting of hydrogen, and wherein 'n' ranges from 1 to 5, Z is hydrogen or R 4 is a side chain of an amino acid. wherein, R 1 is an aromatic radical selected from a group consisting of: and R 2 is an aliphatic radical; R 3 is a side chain of an amino acid; and Y is selected from a group consisting of hydrogen, and wherein 'n' ranges from 1 to 5, Z is hydrogen or R 4 is a side chain of an amino acid.
A method for producing a coated part by press hardening, comprising the following steps: A) the provision of a steel sheet pre-coated with a metallic coating comprising from 2.0 to 24.0% by weight of zinc, from 7.1 to 12.0% by weight of silicon, optionally from 1.1 to 8.0% by weight of magnesium, and optionally additional elements chosen from Pb, Ni, Zr, or Hf, the content by weight of each additional element being less than 0.3%, the balance being aluminum and unavoidable impurities and residuals elements, wherein the ratio Al/Zn is above 2.9, B) the cutting of the coated steel sheet to obtain a blank, C) the thermal treatment of the blank at a temperature between 840 and 950°C to obtain a fully austenitic microstructure in the steel, D) the transfer of the blank into a press tool, E) the hot-forming of the blank to obtain a part, F) the cooling of the part obtained at step E) in order to obtain a microstructure in steel being martensitic or martensito-bainitic or made of at least 75% of equiaxed ferrite, from 5 to 20% of martensite, and bainite in amount less than or equal to 10%. A) the provision of a steel sheet pre-coated with a metallic coating comprising from 2.0 to 24.0% by weight of zinc, from 7.1 to 12.0% by weight of silicon, optionally from 1.1 to 8.0% by weight of magnesium, and optionally additional elements chosen from Pb, Ni, Zr, or Hf, the content by weight of each additional element being less than 0.3%, the balance being aluminum and unavoidable impurities and residuals elements, wherein the ratio Al/Zn is above 2.9, B) the cutting of the coated steel sheet to obtain a blank, C) the thermal treatment of the blank at a temperature between 840 and 950°C to obtain a fully austenitic microstructure in the steel, D) the transfer of the blank into a press tool, E) the hot-forming of the blank to obtain a part, F) the cooling of the part obtained at step E) in order to obtain a microstructure in steel being martensitic or martensito-bainitic or made of at least 75% of equiaxed ferrite, from 5 to 20% of martensite, and bainite in amount less than or equal to 10%.
Microscope system characterized in that it comprises an optical image splitter prism adapted to be used for the three-dimensional or phase imaging of objects, said prism being made of at least two plane parallel prisms combined to form a unique rigid solid body, the combined at least two plane parallel prisms comprising at least two external parallel and reflecting surfaces , one internal common interface , parallel to said surfaces and acting as a non-polarizing 50:50 beam splitter; said prism furthermore comprising a beam entrance side forming an angle β with respect to said interface and two beam exit sides forming an angle γ with respect to said interface , wherein the thicknesses of said at least two parallel prisms , that is the distances of the external reflecting surfaces from the splitter interface , differ by ε 2 k to generate a plurality of non-overlapping laterally shifted images from a converging beam entering through the beam entrance side such that images in a plurality of image planes can be acquired simultaneously, whereas ε > 0, k = 1... m ; m representing the number of internal back reflections of a beam to said interface .
Conveyor device with a series of conveyor units (2.1-2.12) that can be driven to move along a conveyor line , wherein each conveyor unit (2.1-2.12) has a conveyor carriage, a selectively controllable load-handling device which is held on the conveyor carriage for the receiving and targeted delivery of a conveyed item, a control unit for actuating the load-handling device and a communication interface for receiving control information, wherein the communication interfaces are divided into master communication interfaces and slave communication interfaces, wherein each master communication interface comprises a wireless communication interface and wherein each master communication interface and each slave communication interface comprise a wired communication interface and each slave communication interface is set up to receive control information from an assigned master communication interface via corresponding wired communication interfaces, characterised in that the conveyor device is set up to forward control information from a first master communication interface to a second master communication interface during operation, further comprising a control device that is set up to monitor the positions of the series of conveyor units during operation and to forward control information addressed to the second master communication interface to the first master communication interface if the control device establishes that the second master communication interface is in a predetermined area, wherein the control device has a wireless communication interface and is set up to transmit the control information to the master communication interfaces and wherein the predetermined area is an area in which direct wireless transmission of control information from the wireless communication interface of the control device to a master communication interface of a conveyor unit (2.5) located in the predetermined area is not possible.
A method of manufacturing an upper for an article of footwear, the upper having a toe end, a heel end, a medial side, and a lateral side, the method comprising: knitting an inner booty that extends from the heel end to the toe end, and that has an opening for a foot in the as worn condition; braiding an outer shell with a shape that extends at least partially around the inner booty ; coating only selected locations of the outer braided shell , leaving the other locations of the outer braided shell without the coating , to couple the outer braided shell to the inner booty at the selected locations.
A flow meter , for cryogenic fluids, comprising: a meter section formed from a single stock of material and comprising a first inner pipe portion , a second inner pipe portion and an orifice plate defined between the first inner pipe portion and the second inner pipe portion , wherein the orifice plate has an orifice with a cross-sectional area that is less than a cross-sectional area of the first inner pipe portion ; a first pipe connecting section connected to a first side of the meter section and having a first pipe flange ; a second pipe connecting section connected to a second side of the meter section and having a second pipe flange ; wherein the meter section is formed of 316 stainless steel and comprises a central body , a first weld shoulder and second weld shoulder , and the meter section further comprises a first threaded tap on a first side of the orifice plate , in fluid communication with the first pipe portion, and a second threaded tap on a second side of the orifice plate , on an opposite side of the central body to the first threaded tap, and in fluid communication with the second pipe portion; wherein the central body has a larger outer diameter than the outer diameters of the weld shoulders , and wherein the first and second threaded taps are formed in additional material provided by the larger outer diameter of the central body; wherein the larger outer diameter of the central body provides a thermal mass of meter section which is large enough to ensure a single-phase flow through the meter section . a meter section formed from a single stock of material and comprising a first inner pipe portion , a second inner pipe portion and an orifice plate defined between the first inner pipe portion and the second inner pipe portion , wherein the orifice plate has an orifice with a cross-sectional area that is less than a cross-sectional area of the first inner pipe portion ; a first pipe connecting section connected to a first side of the meter section and having a first pipe flange ; a second pipe connecting section connected to a second side of the meter section and having a second pipe flange ; wherein the meter section is formed of 316 stainless steel and comprises a central body , a first weld shoulder and second weld shoulder , and the meter section further comprises a first threaded tap on a first side of the orifice plate , in fluid communication with the first pipe portion, and a second threaded tap on a second side of the orifice plate , on an opposite side of the central body to the first threaded tap, and in fluid communication with the second pipe portion; wherein the central body has a larger outer diameter than the outer diameters of the weld shoulders , and wherein the first and second threaded taps are formed in additional material provided by the larger outer diameter of the central body; wherein the larger outer diameter of the central body provides a thermal mass of meter section which is large enough to ensure a single-phase flow through the meter section .
An n-heptane production method comprising: a step of distilling a feed containing C6-, C7, and C8+ hydrocarbon components, removing the C8+ and C6- hydrocarbon components, and separating the C7 hydrocarbon component; a step of adding the separated C7 hydrocarbon component to a hydrogenation apparatus and hydrogenating the separated C7 hydrocarbon component; a step of adding the hydrogenated C7 hydrocarbon component to a simulated moving bed (SMB) apparatus and separating the hydrogenated C7 hydrocarbon component into an extract containing n-heptane and a raffinate containing other components;a step of distilling the extract and separating the n-heptane in an extract column; and a step of recirculating a portion of the n-heptane separated in the extract column between a rear end of the hydrogenation apparatus and a front end of the SMB apparatus, wherein, in the recirculation step, a recirculation rate is 30% to 60%, wherein a purity of the produced n-heptane is 99.8 wt% or higher. a step of distilling a feed containing C6-, C7, and C8+ hydrocarbon components, removing the C8+ and C6- hydrocarbon components, and separating the C7 hydrocarbon component; a step of adding the separated C7 hydrocarbon component to a hydrogenation apparatus and hydrogenating the separated C7 hydrocarbon component; a step of adding the hydrogenated C7 hydrocarbon component to a simulated moving bed (SMB) apparatus and separating the hydrogenated C7 hydrocarbon component into an extract containing n-heptane and a raffinate containing other components;a step of distilling the extract and separating the n-heptane in an extract column; and a step of recirculating a portion of the n-heptane separated in the extract column between a rear end of the hydrogenation apparatus and a front end of the SMB apparatus, wherein, in the recirculation step, a recirculation rate is 30% to 60%, wherein a purity of the produced n-heptane is 99.8 wt% or higher.