mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of substantially pure methylthioninium chloride pentahydrate form A, wherein a) methylthioninium chloride is suspended in an organic solvent with a water content corresponding to a water activity of at least 0.4 at 25°C, the suspension is kept at low temperature, and the solid is isolated and dried to remove the organic solvent and any excess water from the solid; b) methylthioninium chloride is dissolved at elevated temperatures in an organic solvent with a water content corresponding to a water activity of at least 0.4 at 25°C, the solution is cooled, the precipitated solid is isolated and dried to remove the organic solvent and any excess water from the solid; or c) methylthioninium chloride is dissolved in an organic solvent with a water content corresponding to a water activity of at least 0.4 at 25°C, and the organic solvent and any excess water is evaporated to dryness of the solid wherein drying said methylthioninium chloride pentahydrate Form A to remove excess water and/or solvent is performed by drying in a flow of humid inert gas, wherein the drying conditions are such that the MTC pentahydrate form A is not dehydrated; and wherein the dried methylthioninium chloride pentahydrate Form A has a Form A content of at least 95% based on the total weight of methylthioninium chloride. a) methylthioninium chloride is suspended in an organic solvent with a water content corresponding to a water activity of at least 0.4 at 25°C, the suspension is kept at low temperature, and the solid is isolated and dried to remove the organic solvent and any excess water from the solid; b) methylthioninium chloride is dissolved at elevated temperatures in an organic solvent with a water content corresponding to a water activity of at least 0.4 at 25°C, the solution is cooled, the precipitated solid is isolated and dried to remove the organic solvent and any excess water from the solid; or c) methylthioninium chloride is dissolved in an organic solvent with a water content corresponding to a water activity of at least 0.4 at 25°C, and the organic solvent and any excess water is evaporated to dryness of the solid
A method for changing the shape of a flexible communication device, the method comprising: - recognizing (3:1) a request for rendering a haptic effect on the communication device; - initiating determination (3:2) of at least one property associated with the requested haptic effect; - initiating determination (3:3) of at least one property of the communication device, the at least one property of the communication device being considered to be of relevance when rendering the haptic effect on the communication device; - initiating, based on said properties, a determination (3:4) on whether conditions, specifying requirements for rendering the haptic effect on the communication device, are met or not, and - initiating, in case said conditions are not met, a determination (3:5) of a modification of the shape of the device, such that said conditions are met with respect to said properties. - recognizing (3:1) a request for rendering a haptic effect on the communication device; - initiating determination (3:2) of at least one property associated with the requested haptic effect; - initiating determination (3:3) of at least one property of the communication device, the at least one property of the communication device being considered to be of relevance when rendering the haptic effect on the communication device; - initiating, based on said properties, a determination (3:4) on whether conditions, specifying requirements for rendering the haptic effect on the communication device, are met or not, and - initiating, in case said conditions are not met, a determination (3:5) of a modification of the shape of the device, such that said conditions are met with respect to said properties.
A method of handling application data associated with IP flows traveling between a plurality of mobiles and a network element in a communications network, the method comprising: receiving, at a network element, one or more domain name system, DNS, packets being sent to one or more mobiles from among of the plurality of mobiles; and building, at the network element, a mapping table mapping one or more IP addresses, respectively, to corresponding application information, based on mapping information within the one or more DNS packets received at the network element; receiving, at the network element, an IP data packet being sent to or from a mobile of the plurality of mobiles; identifying the application information corresponding to the received IP data packet, from among the application information of the mapping table, by searching the mapping table based on the IP data packet; identifying, at the network element, the mobile the received IP data packet is being sent to or from; building a tracking database including a plurality of sections, the plurality of sections corresponding to the plurality of mobiles, respectively; and forming an entry in the tracking database corresponding to the identified application information, the entry being formed in the section of the tracking database that corresponds to the identified mobile. receiving, at a network element, one or more domain name system, DNS, packets being sent to one or more mobiles from among of the plurality of mobiles; and building, at the network element, a mapping table mapping one or more IP addresses, respectively, to corresponding application information, based on mapping information within the one or more DNS packets received at the network element; receiving, at the network element, an IP data packet being sent to or from a mobile of the plurality of mobiles; identifying the application information corresponding to the received IP data packet, from among the application information of the mapping table, by searching the mapping table based on the IP data packet; identifying, at the network element, the mobile the received IP data packet is being sent to or from; building a tracking database including a plurality of sections, the plurality of sections corresponding to the plurality of mobiles, respectively; and forming an entry in the tracking database corresponding to the identified application information, the entry being formed in the section of the tracking database that corresponds to the identified mobile.
A lubricant supply system for a bearing damper in an engine bearing compartment of a gas turbine engine, the bearing compartment rotatably supporting an engine component and including a drain system for purging excess lubricant, comprising: a first interface; a second interface; a drain conduit fluidly coupled to the first interface and extending from the first interface to the second interface; the drain conduit receiving fluid including excess lubricant and lubricant purging air from the first interface; a supply conduit located within the drain conduit extending between the interfaces (102,104); the supply conduit providing lubricant to the bearing damper; and fluid in the drain conduit is capable of insulating fluid in the supply conduit from heat transferred through the interfaces; characterized by: a joint where the second interface connects with the drain conduit, the joint comprises a piloted O-ring; the joint further includes an outlet conduit for the drain conduit and an inlet conduit for the supply conduit; and the piloted O-ring enables slippage relative to the joint, including the outlet conduit and the inlet conduit. a first interface; a second interface; a drain conduit fluidly coupled to the first interface and extending from the first interface to the second interface; the drain conduit receiving fluid including excess lubricant and lubricant purging air from the first interface; a supply conduit located within the drain conduit extending between the interfaces (102,104); the supply conduit providing lubricant to the bearing damper; and fluid in the drain conduit is capable of insulating fluid in the supply conduit from heat transferred through the interfaces; characterized by: a joint where the second interface connects with the drain conduit, the joint comprises a piloted O-ring; the joint further includes an outlet conduit for the drain conduit and an inlet conduit for the supply conduit; and the piloted O-ring enables slippage relative to the joint, including the outlet conduit and the inlet conduit. a joint where the second interface connects with the drain conduit, the joint comprises a piloted O-ring; the joint further includes an outlet conduit for the drain conduit and an inlet conduit for the supply conduit; and the piloted O-ring enables slippage relative to the joint, including the outlet conduit and the inlet conduit.
A polypropylene-based resin composition comprising a polypropylene-based resin, and an olefin-based copolymer containing an ethylene repeating unit and an alpha-olefin-based repeating unit, wherein when the olefin-based copolymer is analyzed by cross-fractionation chromatography, it includes: a first fraction defined as a first peak appearing at a first elution temperature of -20°C to 50°C, a second fraction defined as a second peak appearing at a second elution temperature of 50°C to 85°C, and a third fraction defined as a third peak appearing at a third elution temperature of 85°C to 130°C, and wherein the fraction ratio of the second fraction defined by the integral area of the second peak is 10 to 23%. a first fraction defined as a first peak appearing at a first elution temperature of -20°C to 50°C, a second fraction defined as a second peak appearing at a second elution temperature of 50°C to 85°C, and a third fraction defined as a third peak appearing at a third elution temperature of 85°C to 130°C, and wherein the fraction ratio of the second fraction defined by the integral area of the second peak is 10 to 23%.
An amphiphilic macromolecule, having, as repeating units, a structural unit A for adjusting molecular weight, molecular weight distribution and charge characteristics, a highly sterically hindered structural unit B and an amphiphilic structural unit C, characterized in that the highly sterically hindered structural unit B comprises a structure G and a structure of formula, wherein the structure G is a cyclic hydrocarbon structure formed on the basis of two adjacent carbon atoms in the main chain, or is selected from a structure of formula: wherein in formula, R 5 is H or a methyl group, preferably H; R 6 is a radical selected from the group consisting of the structures of formula and formula: in formula, a is an integer from 1 to 11, in formula, R 7 is H; R 8 is selected from the group consisting of H, -SO 3 H and salts thereof, -(CH 2) 2 CH 2 Cl, -CH 2 N + (CH 3) 2 (CH 2)ξCH 3 Cl - and -CH 2 N + (CH 3) 2 (CH 2) 2 N + (CH 3) 2 (CH 2) σ CH 3 2Cl -; ξ and σ are respectively integers from 1 to 15, and the amphiphilic structural unit C has a structure of formula: in formula, R 9 is H or a methyl group; R 10 is -O- or -NH-; R 11 is a radical containing a straight-chain hydrocarbyl, a branched hydrocarbyl, a polyoxyethylene, a polyoxypropylene, an EO-PO block, a mono-quaternary ammonium salt, a multiple-quaternary ammonium salt, or a sulfonic acid and salts thereof.
A mammalian-type glycosylation agent, which attaches a sugar chain with sialic acid at a non-reducing terminal to a protein via its asparagine residue, comprising one to three independent expression vector(s) comprising a silk-spinning insect-derived middle and/or posterior silk gland promoter and a gene encoding β1,4-galactosyltransferase or a nucleotide encoding an active fragment of the enzyme, functionally linked downstream of the promoter, and genes encoding UDP-acetylglucosamine 2-epimerase/N-acetylmannosamine kinase, α2,6-sialyltransferase, CMP-Neu5Ac synthase, and Neu5Ac9-phosphate synthase and/or Neu5Ac9-phosphate phosphatase, or nucleotides encoding active fragments of the enzymes, wherein the genes encoding the enzymes or the nucleotides encoding active fragments of the enzymes are arranged so as to be under direct or indirect expression control of the middle and/or posterior silk gland promoter. a silk-spinning insect-derived middle and/or posterior silk gland promoter and a gene encoding β1,4-galactosyltransferase or a nucleotide encoding an active fragment of the enzyme, functionally linked downstream of the promoter, and genes encoding UDP-acetylglucosamine 2-epimerase/N-acetylmannosamine kinase, α2,6-sialyltransferase, CMP-Neu5Ac synthase, and Neu5Ac9-phosphate synthase and/or Neu5Ac9-phosphate phosphatase, or nucleotides encoding active fragments of the enzymes, wherein the genes encoding the enzymes or the nucleotides encoding active fragments of the enzymes are arranged so as to be under direct or indirect expression control of the middle and/or posterior silk gland promoter.
A syringe device comprising: a syringe barrel having an internal chamber; and a syringe piston having a first end insertable into the internal chamber, a second end and a stem extending from the first end to a container housing, the container housing extending to the second end and being configured to house a container, at least a portion of the container housing being insertable within the internal chamber, wherein the container housing comprises a cylindrical sidewall characterised in that the cylindrical sidewall has two opposing lengthwise openings configured to allow removal of a lid from an enclosed container and extraction of the lid from the housing. a syringe barrel having an internal chamber; and a syringe piston having a first end insertable into the internal chamber, a second end and a stem extending from the first end to a container housing, the container housing extending to the second end and being configured to house a container, at least a portion of the container housing being insertable within the internal chamber, wherein the container housing comprises a cylindrical sidewall characterised in that the cylindrical sidewall has two opposing lengthwise openings configured to allow removal of a lid from an enclosed container and extraction of the lid from the housing.
A gas flow control valve, characterized in that, the gas flow control valve comprises a tubular valve body, two valve caps respectively provided at both ends of the valve body, and two flanges respectively provided at both ends of the valve body; wherein one side of the flange is communicated with a gas injection channel, and the other side of the flange is connected to the valve cap; the valve body is provided therein with a plurality of tubular passages arranged in sequence along the horizontal direction of the valve body, and the tubular passages comprises a pipe flow passage and a plurality of seepage passages; a porous cylinder is mounted in each of the seepage passages, each porous cylinder comprises a pipe, and a plurality of pipe bundles filled inside the pipe along a length direction of the pipe, wherein a single flow passage is formed in each of the pipe bundles, such that the seepage passage is formed inside the pipe; wherein an inner diameter, a length and a permeability of the pipe bundle are determined in advance based on a Reynolds number for characterizing the flow state of the gas flowing through the pipe, and the Reynolds number is a positive number smaller than 2300; a plurality of connection channels are provided in the valve cap, one end of each of the connection channels communicates with an interior of each of the tubular passages, and the other end of each of the connection channels is provided respectively with a valve stem, such that the gas in the gas injection channel flows through the connection channel corresponding to the valve stem in an open state, and flows into the tubular passage communicating with the connection channel. wherein one side of the flange is communicated with a gas injection channel, and the other side of the flange is connected to the valve cap; the valve body is provided therein with a plurality of tubular passages arranged in sequence along the horizontal direction of the valve body, and the tubular passages comprises a pipe flow passage and a plurality of seepage passages; a porous cylinder is mounted in each of the seepage passages, each porous cylinder comprises a pipe, and a plurality of pipe bundles filled inside the pipe along a length direction of the pipe, wherein a single flow passage is formed in each of the pipe bundles, such that the seepage passage is formed inside the pipe; wherein an inner diameter, a length and a permeability of the pipe bundle are determined in advance based on a Reynolds number for characterizing the flow state of the gas flowing through the pipe, and the Reynolds number is a positive number smaller than 2300; a plurality of connection channels are provided in the valve cap, one end of each of the connection channels communicates with an interior of each of the tubular passages, and the other end of each of the connection channels is provided respectively with a valve stem, such that the gas in the gas injection channel flows through the connection channel corresponding to the valve stem in an open state, and flows into the tubular passage communicating with the connection channel.
Carbon nanofibers obtained by oxidizing first carbon nanofibers produced by a vapor growth method, the carbon nanofibers having a surface oxygen concentration measured by X-ray photoelectron spectroscopy of 2.6 to 4.6 atm% and a ratio (D/G) of a peak intensity D at around 1300 cm -1 to a peak intensity G at around 1600 cm -1 measured by Raman scattering spectroscopy of 0.12 to 0.22.
A device-to-device, D2D, data transmission method, wherein the method comprises: sending, by source user equipment, UE, a first message to n UEs that are candidate UEs for transmitting data from the source UE to a base station, wherein the first message is used to indicate that the source UE needs to transmit data to a base station, the source UE is UE out of a network coverage area of the base station, the n candidate UEs are UEs in the network coverage area of the base station, and n is an integer not less than 2, and wherein the first message includes an indication that the n candidate UEs need to feed back information; receiving, by the source UE, n second messages from the n candidate UEs, wherein each of the n candidate UEs sends one second message to the source UE, and each second message comprises status information of each candidate UE; determining, by the source UE, relay UE from the n candidate UEs according to the status information of each candidate UE, wherein the relay UE is UE that transmits the data to the base station and wherein the status information comprises at least one or any combination of the following information: current memory usage, current power supply usage or remaining power, or a processing capability of a central processing unit, CPU; and transmitting, by the source UE, the data to the base station by using the relay UE. sending, by source user equipment, UE, a first message to n UEs that are candidate UEs for transmitting data from the source UE to a base station, wherein the first message is used to indicate that the source UE needs to transmit data to a base station, the source UE is UE out of a network coverage area of the base station, the n candidate UEs are UEs in the network coverage area of the base station, and n is an integer not less than 2, and wherein the first message includes an indication that the n candidate UEs need to feed back information; receiving, by the source UE, n second messages from the n candidate UEs, wherein each of the n candidate UEs sends one second message to the source UE, and each second message comprises status information of each candidate UE; determining, by the source UE, relay UE from the n candidate UEs according to the status information of each candidate UE, wherein the relay UE is UE that transmits the data to the base station and wherein the status information comprises at least one or any combination of the following information: current memory usage, current power supply usage or remaining power, or a processing capability of a central processing unit, CPU; and transmitting, by the source UE, the data to the base station by using the relay UE.
A lateral surface member structure (100,500) of a vehicle body, comprising: a tubular body extending in a front-rear direction of the vehicle body; and an impact absorbing member (120,520) disposed inside the tubular body, wherein the impact absorbing member includes a web (121,521) extending along the front-rear direction and flat in a vehicle width direction, a vehicle outer flange (122,522) joined to a vehicle outer end portion (121e,521e) of the web and extending along the front-rear direction, and a vehicle inner flange (121i,521i) joined to a vehicle inner end portion of the web and extending along the front-rear direction, and the vehicle outer flange and the vehicle inner flange include a rib (122R,522R) disposed so as to sandwich the web from above and below and extending along the front-rear direction. a tubular body extending in a front-rear direction of the vehicle body; and an impact absorbing member (120,520) disposed inside the tubular body, wherein the impact absorbing member includes a web (121,521) extending along the front-rear direction and flat in a vehicle width direction, a vehicle outer flange (122,522) joined to a vehicle outer end portion (121e,521e) of the web and extending along the front-rear direction, and a vehicle inner flange (121i,521i) joined to a vehicle inner end portion of the web and extending along the front-rear direction, and the vehicle outer flange and the vehicle inner flange include a rib (122R,522R) disposed so as to sandwich the web from above and below and extending along the front-rear direction.
A process for forming an α,β-unsaturated carboxylic acid or a salt thereof, the process comprising: a) contacting in any order i) a transition metal precursor compound comprising at least one first ligand; ii) optionally, at least one second ligand; iii) an olefin; iv) carbon dioxide (CO 2); v) a diluent; and vi) a metal-treated chemically-modified solid oxide to provide a reaction mixture, wherein the chemically-modified solid oxide comprises a sulfur oxoacid anion-modified solid oxide, a phosphorus oxoacid anion-modified solid oxide, or a halide ion-modified solid oxide; and b) subjecting the reaction mixture to reaction conditions suitable to form the α,β-unsaturated carboxylic acid or the salt thereof; wherein the transition metal precursor compound is present in the reaction mixture at a concentration of less than 0.2 mM (millimolar). a) contacting in any order i) a transition metal precursor compound comprising at least one first ligand; ii) optionally, at least one second ligand; iii) an olefin; iv) carbon dioxide (CO 2); v) a diluent; and vi) a metal-treated chemically-modified solid oxide to provide a reaction mixture, wherein the chemically-modified solid oxide comprises a sulfur oxoacid anion-modified solid oxide, a phosphorus oxoacid anion-modified solid oxide, or a halide ion-modified solid oxide; and i) a transition metal precursor compound comprising at least one first ligand; ii) optionally, at least one second ligand; iii) an olefin; iv) carbon dioxide (CO 2); v) a diluent; and vi) a metal-treated chemically-modified solid oxide to provide a reaction mixture, wherein the chemically-modified solid oxide comprises a sulfur oxoacid anion-modified solid oxide, a phosphorus oxoacid anion-modified solid oxide, or a halide ion-modified solid oxide; and b) subjecting the reaction mixture to reaction conditions suitable to form the α,β-unsaturated carboxylic acid or the salt thereof;