mhurhangee/ep-ind-claims huggingface dataset:
A process for producing 2,3,3,3-tetrafluoropropene, comprising the steps of: (i) reacting 2-chloro-3,3,3-trifluoropropene with anhydrous HF in a gas phase in the presence of a fluorination catalyst while heating, thus producing 2,3,3,3-tetrafluoropropene, and (ii) reacting anhydrous HF with at least one chlorine-containing compound selected from 1,1,1,2,3-pentachloropropane, 2,3-dichloro-1,1,1-trifluoropropane and 1,1,2,3-tetrachloropropene in a gas phase in the presence of a fluorination catalyst while heating, thus producing 2-chloro-3,3,3-trifluoropropene; wherein - the products obtained in step (i), which contain 2,3,3,3-tetrafluoropropene, are supplied to the reactor used in step (ii) together with the chlorine-containing compound defined in step (ii); and - the reaction temperature in step (i) is higher than the reaction temperature in step (ii). (i) reacting 2-chloro-3,3,3-trifluoropropene with anhydrous HF in a gas phase in the presence of a fluorination catalyst while heating, thus producing 2,3,3,3-tetrafluoropropene, and (ii) reacting anhydrous HF with at least one chlorine-containing compound selected from 1,1,1,2,3-pentachloropropane, 2,3-dichloro-1,1,1-trifluoropropane and 1,1,2,3-tetrachloropropene in a gas phase in the presence of a fluorination catalyst while heating, thus producing 2-chloro-3,3,3-trifluoropropene; - the products obtained in step (i), which contain 2,3,3,3-tetrafluoropropene, are supplied to the reactor used in step (ii) together with the chlorine-containing compound defined in step (ii); and - the reaction temperature in step (i) is higher than the reaction temperature in step (ii).
A method for distributively delivering content to devices being transported by vehicles, comprising: obtaining, at an hybrid communications distributor disposed in a terrestrial location, content that is to be delivered, as a whole, to a device, the device being a mobile computing device that is temporarily being transported by a vehicle that is in-flight; selecting, at a processor of the hybrid communications distributor, a first portion of the content, the selection based on a type of data included in the first portion; selecting, by the processor of the hybrid communications distributor and based on the type of data included in the first portion of the content, at least one of a first forward link included in a first wireless communication link supported by a first frequency band or a second forward link included in a second wireless communication link supported by a second frequency band; causing, by the hybrid communications distributor and by using the first forward link, a first transmission to be sent to the in-flight vehicle, the first transmission including the first portion of the content; and causing, by the hybrid communications distributor and by using the second forward link, a second transmission to be sent to the in-flight vehicle, the second transmission including a second portion of the content. obtaining, at an hybrid communications distributor disposed in a terrestrial location, content that is to be delivered, as a whole, to a device, the device being a mobile computing device that is temporarily being transported by a vehicle that is in-flight; selecting, at a processor of the hybrid communications distributor, a first portion of the content, the selection based on a type of data included in the first portion; selecting, by the processor of the hybrid communications distributor and based on the type of data included in the first portion of the content, at least one of a first forward link included in a first wireless communication link supported by a first frequency band or a second forward link included in a second wireless communication link supported by a second frequency band; causing, by the hybrid communications distributor and by using the first forward link, a first transmission to be sent to the in-flight vehicle, the first transmission including the first portion of the content; and causing, by the hybrid communications distributor and by using the second forward link, a second transmission to be sent to the in-flight vehicle, the second transmission including a second portion of the content.
A recombinant heparan N-sulfatase enzyme for use in a method of treating Sanfilippo Syndrome Type A (MPS IIIA) Syndrome, wherein the method comprises a step of administering intrathecally to a subject in need of treatment the recombinant HNS enzyme at a therapeutically effective dose and an administration interval for a period sufficient to stabilize or reduce decline of cognitive function relative to baseline, wherein the administration interval is (i) monthly or once every four weeks, or (ii) once every two weeks, wherein the therapeutically effective dose is or is greater than 45 mg per dose, and wherein the period is at least 54 months.
An object multi-perspective inspection apparatus, including: an image capture device; an inspection site; at least two reflection devices, being arranged for reflecting simultaneously to the image capture device at least two different side views of an object located in the inspection site; a refracting device having a first surface for supporting the object located in the inspection site and a second surface having an angle deviating from the first surface, being arranged to refracting a bottom view of an object in the inspection site to a first of the at least two reflection devices; wherein a first of the at least two reflection devices receives the refracted bottom view of the object and reflects the received to the image capture device so that that a field of view of the first reflection device includes the side view and bottom view of the object; and wherein the image capture device has a field of view including the at least two different side views and the bottom view of the reflection; the object multi-perspective inspection apparatus further comprising a processor, being adapted for comparing captured images of the views of an object without defect and those of the object under inspection. an image capture device; an inspection site; at least two reflection devices, being arranged for reflecting simultaneously to the image capture device at least two different side views of an object located in the inspection site; a refracting device having a first surface for supporting the object located in the inspection site and a second surface having an angle deviating from the first surface, being arranged to refracting a bottom view of an object in the inspection site to a first of the at least two reflection devices; wherein a first of the at least two reflection devices receives the refracted bottom view of the object and reflects the received to the image capture device so that that a field of view of the first reflection device includes the side view and bottom view of the object; and wherein the image capture device has a field of view including the at least two different side views and the bottom view of the reflection; the object multi-perspective inspection apparatus further comprising a processor, being adapted for comparing captured images of the views of an object without defect and those of the object under inspection.
A system for automatic filling of medication organizers, the system comprising: a storage unit for medication containers (14, 14') that is accessible from a first side thereof; a plurality of medication organizer filling units, each having i) a support table for receiving and indexing a plurality of medication organizers, and ii) a temporary storage rack; and a container handling system that is positioned between the storage unit and the temporary storage racks and that is movable between the storage unit and each of the temporary storage racks for transferring selected medication containers therebetween; wherein each of the temporary storage racks is accessible from a side of the medication filling units that faces the storage unit, said system being characterized in that each of the plurality of medication organizer filling units further includes a medication dispensing tool that is displaceable in at least three degrees-of-freedom for picking medications in one of the medication containers on the temporary storage rack and for moving the medications into at least one of the plurality of medication organizers. a storage unit for medication containers (14, 14') that is accessible from a first side thereof; a plurality of medication organizer filling units, each having i) a support table for receiving and indexing a plurality of medication organizers, and ii) a temporary storage rack; and a container handling system that is positioned between the storage unit and the temporary storage racks and that is movable between the storage unit and each of the temporary storage racks for transferring selected medication containers therebetween; wherein each of the temporary storage racks is accessible from a side of the medication filling units that faces the storage unit, said system being characterized in that each of the plurality of medication organizer filling units further includes a medication dispensing tool that is displaceable in at least three degrees-of-freedom for picking medications in one of the medication containers on the temporary storage rack and for moving the medications into at least one of the plurality of medication organizers.
A method for information processing, the method being applied to a network device capable of connecting to at least one core network or connected to at least one type of core networks, the method comprising: transmitting first indication information for a core network to a terminal device, and receiving core network selection information from the terminal device, wherein the core network selection information comprises a target core network type selected by the terminal device and/or identification information of a target core network selected by the terminal device, wherein the first indication information is used to assist the terminal device to select a target core network type and/or a target core network; wherein the first indication information comprises: at least one core network type; and a parameter corresponding to each core network type, wherein the parameter corresponding to each core network type comprises a parameter associated with a feature corresponding to each core network type, and the method being characterised in that the feature comprises at least one of: a data transmission mechanism, or a power saving mechanism. transmitting first indication information for a core network to a terminal device, and receiving core network selection information from the terminal device, wherein the core network selection information comprises a target core network type selected by the terminal device and/or identification information of a target core network selected by the terminal device, wherein the first indication information is used to assist the terminal device to select a target core network type and/or a target core network; wherein the first indication information comprises: at least one core network type; and a parameter corresponding to each core network type, wherein the parameter corresponding to each core network type comprises a parameter associated with a feature corresponding to each core network type, and the method being characterised in that the feature comprises at least one of: a data transmission mechanism, or a power saving mechanism. at least one core network type; and a parameter corresponding to each core network type, wherein the parameter corresponding to each core network type comprises a parameter associated with a feature corresponding to each core network type, and the method being characterised in that the feature comprises at least one of: a data transmission mechanism, or a power saving mechanism.
Handheld tool case having at least one first inductive charging receiving region (16a, 17a; 16b, 17b; 16c, 17c) and at least one first actuating unit (18a; 18b, 19b; 18c, 19c) which is provided to change a position and/or a size of at least the first inductive charging receiving region (16a, 17a; 16b, 17b; 16c, 17c).
An image decoding method for decoding an image on a per coding unit basis, said image having luminance data, first chrominance data, and second chrominance data in either one of 4:2:0 format and 4:2:2 format, said image being divided into a plurality of coding units, each of the coding units being divided into one or more transform units, wherein each coding unit consists of one or more blocks and each of said blocks consists of one or more transform units, the method comprising: decoding, for each block, transformed luminance data, first transformed chrominance data, and second transformed chrominance data from a bitstream in which the transformed luminance data, the first transformed chrominance data, and the second transformed chrominance data are grouped on a per block basis; applying an inverse frequency transform to the transformed luminance data of each transform unit; determining, for each transform unit, whether a first chroma size of the transform unit is smaller than a predetermined size; combining (S109, S110), when the first chroma size of the transform unit is smaller than the predetermined size, the transform units of the corresponding block and applying (S112, S115) the inverse frequency transform to each of the first transformed chrominance data and the second transformed chrominance data of the combined transform units; applying, when the first chroma size of the transform unit is not smaller than the predetermined size, the inverse frequency transform to each of the first transformed chrominance data and the second transformed chrominance data of the transform unit. decoding, for each block, transformed luminance data, first transformed chrominance data, and second transformed chrominance data from a bitstream in which the transformed luminance data, the first transformed chrominance data, and the second transformed chrominance data are grouped on a per block basis; applying an inverse frequency transform to the transformed luminance data of each transform unit; determining, for each transform unit, whether a first chroma size of the transform unit is smaller than a predetermined size; combining (S109, S110), when the first chroma size of the transform unit is smaller than the predetermined size, the transform units of the corresponding block and applying (S112, S115) the inverse frequency transform to each of the first transformed chrominance data and the second transformed chrominance data of the combined transform units; applying, when the first chroma size of the transform unit is not smaller than the predetermined size, the inverse frequency transform to each of the first transformed chrominance data and the second transformed chrominance data of the transform unit.
A vaccine formulation comprising a water-in-oil emulsion and at least one vaccine antigen for foot and mouth disease or Newcastle disease, oil, and water, where said emulsion comprises an emulsifier being an alkoxylated polyol which is optionally acyl terminated, and wherein the emulsifier has a general structure: R 1.[ n -R 2] m wherein R 1 is the residue of a polyol monosaccharide selected from glucose, fructose, or sorbitol; AO is selected from oxyethylene and/or oxypropylene; each n independently represents an integer in the range from 3 to 20; the total of the indices n (n x m) is in the range from 25 to 70; each R 2 is independently represents hydrogen, or an acyl group represented by - C R 3 wherein each R 3 independently represents a residue of polyhydroxyalkyl carboxylic acid, polyhydroxyalkenyl carboxylic acid; and wherein the polyhydroxyalkyl carboxylic acid and polyhydroxyalkenyl carboxylic acid is formed from hydroxyalkyl and hydroxyalkenyl carboxylic acids of formula HO-X-COOH where X is a divalent saturated aliphatic radical having from 11 to 17 carbon atoms and in which there are at least 4 carbon atoms directly bonded between the hydroxyl and carboxylic acid groups, and the number of hydroxyalkyl and hydroxyalkenyl units is on average between 4 to 8; wherein on average at least two R 2 groups per molecule are alkanoyl groups as defined. R 1 is the residue of a polyol monosaccharide selected from glucose, fructose, or sorbitol; AO is selected from oxyethylene and/or oxypropylene; each n independently represents an integer in the range from 3 to 20; the total of the indices n (n x m) is in the range from 25 to 70; each R 2 is independently represents hydrogen, or an acyl group represented by - C R 3 wherein each R 3 independently represents a residue of polyhydroxyalkyl carboxylic acid, polyhydroxyalkenyl carboxylic acid; and wherein the polyhydroxyalkyl carboxylic acid and polyhydroxyalkenyl carboxylic acid is formed from hydroxyalkyl and hydroxyalkenyl carboxylic acids of formula HO-X-COOH where X is a divalent saturated aliphatic radical having from 11 to 17 carbon atoms and in which there are at least 4 carbon atoms directly bonded between the hydroxyl and carboxylic acid groups, and the number of hydroxyalkyl and hydroxyalkenyl units is on average between 4 to 8; wherein on average at least two R 2 groups per molecule are alkanoyl groups as defined.
A method for producing a composite plated product, the method comprising the steps of: treating carbon particles by an oxidation treatment; adding the treated carbon particles to a silver plating solution; and electroplating a substrate in the silver plating solution containing the treated carbon particles, to form a coating of a compositematerial, which contains the treated carbon particles in a silver layer, on the substrate. treating carbon particles by an oxidation treatment; adding the treated carbon particles to a silver plating solution; and electroplating a substrate in the silver plating solution containing the treated carbon particles, to form a coating of a compositematerial, which contains the treated carbon particles in a silver layer, on the substrate.
A vehicle communication system comprising: a transfer unit including a control circuit that includes an internal controller, the control circuit being configured to be incorporated in a vehicle, to be connected to a device, and to performs a transfer process of transferring information to the device, and an external controller that is provided outside the control circuit, is connected to the control circuit, has higher information processing capability than the internal controller, is configured to perform a transfer order process by outputting a transfer order signal to the internal controller for ordering the internal controller to perform the transfer process, and when performing the transfer order process, is configured to perform a security process of securing security of the information to be transferred, wherein the internal controller is configured to monitors operation of the external controller and, when the external controller is abnormal, to performs the transfer order process instead of the external controller. a transfer unit including a control circuit that includes an internal controller, the control circuit being configured to be incorporated in a vehicle, to be connected to a device, and to performs a transfer process of transferring information to the device, and an external controller that is provided outside the control circuit, is connected to the control circuit, has higher information processing capability than the internal controller, is configured to perform a transfer order process by outputting a transfer order signal to the internal controller for ordering the internal controller to perform the transfer process, and when performing the transfer order process, is configured to perform a security process of securing security of the information to be transferred, wherein the internal controller is configured to monitors operation of the external controller and, when the external controller is abnormal, to performs the transfer order process instead of the external controller.
A chip comprising a correction circuit, correction circuit comprising a frequency dividing circuit, a frequency dividing coefficient operation circuit, a built-in temperature collection circuit, and a power-on and power-off detection circuit; wherein the built-in temperature collection circuit is configured to collect a temperature of the chip; the power-on and power-off detection circuit is configured to detect power-on or power-off of the chip; and the frequency dividing circuit is configured to perform, according to the frequency dividing coefficient output by the frequency dividing coefficient operation circuit, frequency dividing on an oscillation frequency output by an external quartz crystal in order to acquire a timing pulse for a real-time clock, so that the real-time clock outputs a clock signal according to the timing pulse, the correction circuit is configured to function when the chip is powered off, and characterized in that, the correction circuit further includes: an external temperature collector, configured to collect a temperature of the external quartz crystal; a temperature selection circuit, connected to the built-in temperature collection circuit, the external temperature collector, the power-on and power-off detection circuit, and the frequency dividing coefficient operation circuit, and configured to: when the power-on and power-off detection circuit detects that the chip is powered off, output the temperature of the chip collected by the built-in temperature collection circuit to the frequency dividing coefficient operation circuit; and when the power-on and power-off detection circuit detects that the chip is powered on, output a temperature of the quartz crystal collected by the external temperature collector to the frequency dividing coefficient operation circuit, the frequency dividing coefficient operation circuit is configured to: calculate a frequency dividing coefficient according to the temperature output by the temperature selection circuit, and output the frequency dividing coefficient to the frequency dividing circuit. an external temperature collector, configured to collect a temperature of the external quartz crystal; a temperature selection circuit, connected to the built-in temperature collection circuit, the external temperature collector, the power-on and power-off detection circuit, and the frequency dividing coefficient operation circuit, and configured to: when the power-on and power-off detection circuit detects that the chip is powered off, output the temperature of the chip collected by the built-in temperature collection circuit to the frequency dividing coefficient operation circuit; and when the power-on and power-off detection circuit detects that the chip is powered on, output a temperature of the quartz crystal collected by the external temperature collector to the frequency dividing coefficient operation circuit, the frequency dividing coefficient operation circuit is configured to: calculate a frequency dividing coefficient according to the temperature output by the temperature selection circuit, and output the frequency dividing coefficient to the frequency dividing circuit.