mhurhangee/patent-ind-claim-en huggingface dataset:
Light source including at least one source of excitation coherent radiation , especially solid-state laser source , and at least one single crystal phosphor containing at least one doping element for at least partial conversion of the excitation coherent radiation into the extracted light , composed especially of the visible wavelengths spectrum, characterized in that the solid-state laser source of the excitation coherent radiation has the maximum emission of light wavelengths in the area from 340 nm to 480 nm and where the emitted light from the single crystal phosphor is in essence of white colour with the correlated colour temperature ranging from 2700 K to 10000 K, the single crystal phosphor is connected to a cooler , at least a portion of the single crystal phosphor volume is structured to create colour-homogenized scattered extracted light and/or to maximize the extracted light emission in the desired direction, and the single crystal phosphor is created with the oxide-type compound of the general formula (A x , Lu 1-x ) a Al b O 12 :Ce c where: A is at least one of the chemical elements from the Y, Gd, Tb group, a is a number from the value interval from 0.5 to 20, b is a number from the value interval from 0.5 to 20, c is a positive number from the value interval from 0.0005 < c < 0.03, x is a positive number from the value interval from 0.0005 < x < 0.9999, and the value of the stoichiometric ratio a:b ranges between 0.5 to 0.7. A is at least one of the chemical elements from the Y, Gd, Tb group, a is a number from the value interval from 0.5 to 20, b is a number from the value interval from 0.5 to 20, c is a positive number from the value interval from 0.0005 < c < 0.03, x is a positive number from the value interval from 0.0005 < x < 0.9999,
A method for culturing organoids, the method comprising: a) disassociating unprocessed organoids to produce a cell suspension; b) sieving the cell suspension through a cell strainer to retain a sieved cell suspension containing cells of about 10 μm to about 1 mm in diameter; c) seeding cells of the sieved cell suspension into a bioreactor in a cell culture medium comprising an extracellular support matrix; d) culturing the cells in the bioreactor to form stage I organoids; e) removing the stage I organoids from the bioreactor and suspending the organoids in cell culture medium to form an organoid suspension; and f) sieving the organoid suspension through at least two cell strainers having different mesh sizes to obtain a suspension of stage II organoids having a diameter of about 20 μm to about 200 μm. a) disassociating unprocessed organoids to produce a cell suspension; b) sieving the cell suspension through a cell strainer to retain a sieved cell suspension containing cells of about 10 μm to about 1 mm in diameter; c) seeding cells of the sieved cell suspension into a bioreactor in a cell culture medium comprising an extracellular support matrix; d) culturing the cells in the bioreactor to form stage I organoids; e) removing the stage I organoids from the bioreactor and suspending the organoids in cell culture medium to form an organoid suspension; and f) sieving the organoid suspension through at least two cell strainers having different mesh sizes to obtain a suspension of stage II organoids having a diameter of about 20 μm to about 200 μm.
Modular robotic co-moulding station comprising: - at least one first modular connection device , designed to be operationally connected to and to manage at least one module for the production and construction of specific components; - a vertical injection press , necessary to inject material at high pressure into a mould and operatively connected to said at least one first modular connection device ; - a movement and control system designed for the handling and control of semi-finished components, operationally connected to said vertical injection press ; and - at least one second modular connection device , designed to be operationally connected to and to manage at least one module for carrying out any assembly, machining and control operations on the components; characterized in that said modular connection devices are provided with a completely autonomous mechanical electro-pneumatic and software connection system , said connection system able to guarantee a standardized connection of said modules in said modular connection devices . - at least one first modular connection device , designed to be operationally connected to and to manage at least one module for the production and construction of specific components; - a vertical injection press , necessary to inject material at high pressure into a mould and operatively connected to said at least one first modular connection device ; - a movement and control system designed for the handling and control of semi-finished components, operationally connected to said vertical injection press ; and - at least one second modular connection device , designed to be operationally connected to and to manage at least one module for carrying out any assembly, machining and control operations on the components;
A process for preparing sugammadex of formula I, comprising, a) reacting γ-cyclodextrin of formula II, with a halogenating agent, selected from a group consisting of oxalyl chloride, oxalyl bromide, thionyl chloride and thionyl bromide, in an organic solvent, b) mixing the reaction mixture of step a) with an aqueous solution of base and alcoholic solvent, c) isolating 6-per-deoxy-6-per-halo-γ-cyclodextrin of compound of formula III, wherein x is bromide or chloride, from the reaction mixture, d) optionally, drying the 6-per-deoxy-6-per-halo-γ-cyclodextrin, e) optionally, purifying the compound of step c) or d), f) reacting the 6-per-deoxy-6-per-halo-γ-cyclodextrin with 3-mercaptopropionic acid in presence of alkali metal alkoxide base in an organic solvent to obtain sugammadex. a) reacting γ-cyclodextrin of formula II, with a halogenating agent, selected from a group consisting of oxalyl chloride, oxalyl bromide, thionyl chloride and thionyl bromide, in an organic solvent, b) mixing the reaction mixture of step a) with an aqueous solution of base and alcoholic solvent, c) isolating 6-per-deoxy-6-per-halo-γ-cyclodextrin of compound of formula III, wherein x is bromide or chloride, from the reaction mixture, d) optionally, drying the 6-per-deoxy-6-per-halo-γ-cyclodextrin, e) optionally, purifying the compound of step c) or d), f) reacting the 6-per-deoxy-6-per-halo-γ-cyclodextrin with 3-mercaptopropionic acid in presence of alkali metal alkoxide base in an organic solvent to obtain sugammadex.
A wind turbine blade comprising: a sealed bulkhead provided in said wind turbine blade ; and at least one pressure relief conduit having a first open end located at a first side of said bulkhead and a second open end located at a second side of said bulkhead, wherein said pressure relief conduit is operable to equalize the pressure difference between said first side and said second side of said bulkhead characterized in that said at least one pressure relief conduit is arranged adjacent said bulkhead and provided between said bulkhead and the blade body or outer blade shell of said wind turbine blade. a sealed bulkhead provided in said wind turbine blade ; and at least one pressure relief conduit having a first open end located at a first side of said bulkhead and a second open end located at a second side of said bulkhead, wherein said pressure relief conduit is operable to equalize the pressure difference between said first side and said second side of said bulkhead characterized in that said at least one pressure relief conduit is arranged adjacent said bulkhead and provided between said bulkhead and the blade body or outer blade shell of said wind turbine blade.
A method for transmitting downlink data in a transport block which is divided into C code blocks, comprising: when determining that downlink data is broadcast data, performing bit selection according to a total number of bits for processing Hybrid Automatic Repeat Request, HARQ, transmissions of a code block by a terminal, N cb , that is set to be equal to a circular buffer size K w of each of the C code blocks; and transmitting the broadcast data according to selected bits; wherein the determining that downlink data is broadcast data comprises: when the downlink data is data that is delivered over a paging channel, PCH, to a physical layer, determining that the downlink data is the broadcast data; and/or when the downlink data is data that is delivered over a downlink shared channel, DL-SCH, associated with a random access radio network temporary identifier, RA-RNTI, to the physical layer, determining that the downlink data is the broadcast data; and/or when the downlink data is data that is delivered over a DL-SCH associated with a system information radio network temporary identifier SI-RNTI to the physical layer, determining that the downlink data is the broadcast data.
A wire electric discharge machine applying electric voltage between a wire electrode and a workpiece to generate electric discharge between them, while changing a relative position between the wire electrode and the workpiece, thereby machining the workpiece into a desired shape, the wire electric discharge machine comprising: a first detecting unit that detects an average electric current; a second detecting unit that detects an electric discharge frequency; a determining unit that determines, when starting a machining, whether or not the machining is a machining in an approach up to a shape required as a product; a computing unit configured to set a measuring section in the approach for measuring an average electric current and an electric discharge frequency at the time when machining in the approach is carried out, when the determining unit determines that the machining being started is carried out in the approach, and compute a peak current at the time when machining in the approach is under way, on the basis of the average electric current and the electric discharge frequency detected when machining is carried out in the set measuring section ; a memory unit that stores a reference peak current; a comparing unit that compares the peak current at the time when machining in the approach is under way, obtained by the computation by the computing unit , with the reference peak current stored in the memory unit ; and a compensation voltage calculating unit that calculates an electric voltage of a machining power source for compensating the peak current at a portion where machining of the machined shape is carried out, on the basis of a result of comparison by the comparing unit . a first detecting unit that detects an average electric current; a second detecting unit that detects an electric discharge frequency; a determining unit that determines, when starting a machining, whether or not the machining is a machining in an approach up to a shape required as a product; a computing unit configured to set a measuring section in the approach for measuring an average electric current and an electric discharge frequency at the time when machining in the approach is carried out, when the determining unit determines that the machining being started is carried out in the approach, and compute a peak current at the time when machining in the approach is under way, on the basis of the average electric current and the electric discharge frequency detected when machining is carried out in the set measuring section ; a memory unit that stores a reference peak current; a comparing unit that compares the peak current at the time when machining in the approach is under way, obtained by the computation by the computing unit , with the reference peak current stored in the memory unit ; and a compensation voltage calculating unit that calculates an electric voltage of a machining power source for compensating the peak current at a portion where machining of the machined shape is carried out, on the basis of a result of comparison by the comparing unit .
A method for the hydrolysis of quinolone carboxylic esters of the general formula (II) to obtain quinolone carboxylic acids of the general formula (I): wherein, in formulae (I) and (II) concordantly, R 2 is hydrogen, methyl, methoxy, fluorine, chlorine, nitro or cyano, R 3 is fluorine or chlorine, R 4 is fluorine, R 5 is hydrogen, methyl, fluorine, chlorine or nitro, Y is methyl, ethyl, isopropyl, cyclopropyl, fluorocyclopropyl, 4-fluorophenyl or 2,4-difluorophenyl and, in formula (I), R 1 is methyl or ethyl, comprising the step of: A) reacting compounds of formula (II) with a mixture comprising acetic acid, sulfuric acid and water characterized in that, in step A), ≥ 30 to ≤ 40 mol of acetic acid, ≥ 0.3 to ≤ 1 mol of sulfuric acid and ≥ 0.9 to ≤ 2.5 mol of water are used per mole of compounds of the formula (II). wherein, in formulae (I) and (II) concordantly, R 2 is hydrogen, methyl, methoxy, fluorine, chlorine, nitro or cyano, R 3 is fluorine or chlorine, R 4 is fluorine, R 5 is hydrogen, methyl, fluorine, chlorine or nitro, Y is methyl, ethyl, isopropyl, cyclopropyl, fluorocyclopropyl, 4-fluorophenyl or 2,4-difluorophenyl and, in formula (I), R 1 is methyl or ethyl, comprising the step of: A) reacting compounds of formula (II) with a mixture comprising acetic acid, sulfuric acid and water A) reacting compounds of formula (II) with a mixture comprising acetic acid, sulfuric acid and water characterized in that, in step A), ≥ 30 to ≤ 40 mol of acetic acid, ≥ 0.3 to ≤ 1 mol of sulfuric acid and ≥ 0.9 to ≤ 2.5 mol of water are used per mole of compounds of the formula (II).
An acetabular guide system for placing a guide pin near an acetabulum , comprising: a patient specific acetabular guide including an interior surface and an exterior surface , the exterior surface being configured to have a geometry to register within the acetabulum of a specific patient; a first drill insert configured to be received by the patient specific acetabular guide at a first location, the first drill insert having a first longitudinal bore configured to be received concentrically in a guide bore of the patient specific acetabular guide, the guide bore extending exterior to the interior surface; a second drill insert including at least one anti-withdrawal feature , such that the second drill insert is configured to be fixed to a boney portion exterior to the acetabulum at a second location a predetermined distance from the first location, the second drill insert forming a second longitudinal bore; a selectively removable alignment pin configured to be received by at least one of the first longitudinal bore and the second longitudinal bore; and a coupling mechanism configured to couple the alignment pin to a driver , wherein the coupling mechanism is dimensioned to correspond to the predetermined distance between the first location and the second location , such that the driver can place the second drill insert at the second location based on the first location of the first drill insert . a patient specific acetabular guide including an interior surface and an exterior surface , the exterior surface being configured to have a geometry to register within the acetabulum of a specific patient; a first drill insert configured to be received by the patient specific acetabular guide at a first location, the first drill insert having a first longitudinal bore configured to be received concentrically in a guide bore of the patient specific acetabular guide, the guide bore extending exterior to the interior surface; a second drill insert including at least one anti-withdrawal feature , such that the second drill insert is configured to be fixed to a boney portion exterior to the acetabulum at a second location a predetermined distance from the first location, the second drill insert forming a second longitudinal bore; a selectively removable alignment pin configured to be received by at least one of the first longitudinal bore and the second longitudinal bore; and a coupling mechanism configured to couple the alignment pin to a driver , wherein the coupling mechanism is dimensioned to correspond to the predetermined distance between the first location and the second location , such that the driver can place the second drill insert at the second location based on the first location of the first drill insert .
A robot (R) for a system (A) configured for feeding livestock, comprising a container arranged on a chassis with drive and/or steering wheels including at least one mixing member , a metering device , an electric drive comprising at least one frequency converter, a battery (B), and at least one current collector for connection to a power rail line (S1 to S5), wherein the robot (R) comprises electric drives , which are speed-controllable by means of frequency converters , for the at least one mixing member , for the drive and/or steering wheels , and for the metering device , characterized in that the battery (B) is a high-voltage DC battery and is connected on the output side to a DC intermediate circuit of the frequency converter , the frequency converter including the DC intermediate circuit , an AC primary circuit , and an AC secondary circuit .
A heat shield assembly comprising: a skin panel ; and a stiffener comprising a base portion , a first bead portion and a second bead portion , the first bead portion and the second bead portion protruding from said base portion , wherein said base portion is connected to said skin panel to define a bead volume between said bead portions and said skin panel , wherein said second bead portion intersects with said first bead portion , wherein the base portion surrounding the first and second bead portions closely corresponds to the first and second bead portions , thereby giving the stiffener an X-shape. a skin panel ; and a stiffener comprising a base portion , a first bead portion and a second bead portion , the first bead portion and the second bead portion protruding from said base portion , wherein said base portion is connected to said skin panel to define a bead volume between said bead portions and said skin panel , wherein said second bead portion intersects with said first bead portion , wherein the base portion surrounding the first and second bead portions closely corresponds to the first and second bead portions , thereby giving the stiffener an X-shape.
Apparatus for transporting a core for the production of a vehicle tyre, comprising a first circular-ring-shaped main body with at least a first and a second side , wherein at least two permanent magnets are arranged on a circular path on the first side of the main body , characterized in that the permanent magnets are arranged with alternating poles.
A foam dispensing apparatus comprising a nozzle portion that mixes a liquid with gas so as to dispense the liquid in a form of foam, wherein the nozzle portion includes: a foam generation mechanism including a gas liquid mixing portion in which the liquid and the gas are mixed and a first porous body that is disposed in a discharge outlet of the gas liquid mixing portion ; a cavity that is located below the first porous body and whose cross-sectional area defined by a plane perpendicular to a foam dispensing direction (T) is larger than an area of the discharge outlet of the gas liquid mixing portion ; and a foam dispensing outlet that dispenses a foam that has passed through the cavity to an outside, wherein the foam dispensing outlet is configured so as to form a shaped foam having a predetermined shape, and an opening area of the foam dispensing outlet that is on the cavity side is smaller than a maximum value of the cross-sectional area of the cavity , wherein the foam dispensing apparatus comprises a second porous body in the foam dispensing outlet , and characterized in that , in a vertical cross-section of the nozzle portion passing through a center of the cavity , an inner wall surface of the cavity has a portion (b) that is located on the inner side of the cavity from a virtual straight line (Lp) connecting an outer edge of the discharge outlet of the gas liquid mixing portion and an outer edge of the second porous body . a foam generation mechanism including a gas liquid mixing portion in which the liquid and the gas are mixed and a first porous body that is disposed in a discharge outlet of the gas liquid mixing portion ; a cavity that is located below the first porous body and whose cross-sectional area defined by a plane perpendicular to a foam dispensing direction (T) is larger than an area of the discharge outlet of the gas liquid mixing portion ; and a foam dispensing outlet that dispenses a foam that has passed through the cavity to an outside, wherein the foam dispensing outlet is configured so as to form a shaped foam having a predetermined shape, and an opening area of the foam dispensing outlet that is on the cavity side is smaller than a maximum value of the cross-sectional area of the cavity , wherein the foam dispensing apparatus comprises a second porous body in the foam dispensing outlet , and characterized in that , in a vertical cross-section of the nozzle portion passing through a center of the cavity , an inner wall surface of the cavity has a portion (b) that is located on the inner side of the cavity from a virtual straight line (Lp) connecting an outer edge of the discharge outlet of the gas liquid mixing portion and an outer edge of the second porous body .
A diffraction light guide plate, comprising: a first diffraction substrate ; and a second diffraction substrate provided on the first diffraction substrate, wherein the first diffraction substrate includes a first diffraction grating layer on one surface of the first diffraction substrate and a second diffraction grating layer on an opposite surface of the first diffraction substrate, wherein the second diffraction substrate includes a third diffraction grating layer on one surface of the second diffraction substrate and a stress compensation layer on an opposite surface of the second diffraction substrate, wherein the first diffraction grating layer separates light having a wavelength of 550 nm or more and 700 nm or less, wherein the second diffraction grating layer separates light having a wavelength of 400 nm or more and 550 nm or less, wherein the third diffraction grating layer separates light having a wavelength of 450 nm or more and 650 nm or less, and wherein the stress compensation layer has stress in a same direction as a direction of stress of the third diffraction grating layer. a first diffraction substrate ; and a second diffraction substrate provided on the first diffraction substrate, wherein the first diffraction substrate includes a first diffraction grating layer on one surface of the first diffraction substrate and a second diffraction grating layer on an opposite surface of the first diffraction substrate, wherein the second diffraction substrate includes a third diffraction grating layer on one surface of the second diffraction substrate and a stress compensation layer on an opposite surface of the second diffraction substrate, wherein the first diffraction grating layer separates light having a wavelength of 550 nm or more and 700 nm or less, wherein the second diffraction grating layer separates light having a wavelength of 400 nm or more and 550 nm or less, wherein the third diffraction grating layer separates light having a wavelength of 450 nm or more and 650 nm or less, and wherein the stress compensation layer has stress in a same direction as a direction of stress of the third diffraction grating layer.