mhurhangee/ep-ind-claims huggingface dataset:
A method for obtaining an enriched composition of C 20 -C 22 long chain monounsaturated fatty acids, the composition comprising at least 70% by weight of long chain monounsaturated fatty acids, comprising the steps of: a) Mixing an oil composition comprising C 20 -C 22 long chain polyunsaturated fatty acids and at least 15% by weight C 20 -C 22 long chain monounsaturated fatty acids with (i) an organic solvent selected from the group consisting of C 1 -C 5 alcohols and ketones of the formula R 1 (C=O)R 2 wherein R 1 and R 2 are each independently C 1 -C 5 alkyl; and (ii) a lithium salt to form a mixed composition comprising the lithium salts of long chain monounsaturated fatty acids and the lithium salts of the long chain polyunsaturated fatty acids at 15 °C to 80° C; b) Reducing the temperature of the mixed composition formed in step a such that the lithium salts of the long chain monounsaturated fatty acids form a precipitate; and c) Removing the precipitate to obtain an enriched composition of long chain monounsaturated fatty acids. a) Mixing an oil composition comprising C 20 -C 22 long chain polyunsaturated fatty acids and at least 15% by weight C 20 -C 22 long chain monounsaturated fatty acids with (i) an organic solvent selected from the group consisting of C 1 -C 5 alcohols and ketones of the formula R 1 (C=O)R 2 wherein R 1 and R 2 are each independently C 1 -C 5 alkyl; and (ii) a lithium salt to form a mixed composition comprising the lithium salts of long chain monounsaturated fatty acids and the lithium salts of the long chain polyunsaturated fatty acids at 15 °C to 80° C; b) Reducing the temperature of the mixed composition formed in step a such that the lithium salts of the long chain monounsaturated fatty acids form a precipitate; and c) Removing the precipitate to obtain an enriched composition of long chain monounsaturated fatty acids.
A coated confectionery, comprising: a confectionery core; and a shell surrounding said confectionery core, said shell including: a soft coating including one or more layers of a first coating material and one or more layers of a second coating material; and a hard coating including at least one layer of a third coating material, wherein said one or more layers of said second coating material forms 20-40% of a total weight of said shell. a confectionery core; and a shell surrounding said confectionery core, said shell including: a soft coating including one or more layers of a first coating material and one or more layers of a second coating material; and a hard coating including at least one layer of a third coating material, a soft coating including one or more layers of a first coating material and one or more layers of a second coating material; and a hard coating including at least one layer of a third coating material,
A stylus, comprising a stylus rod and a stylus tip at one end of the stylus rod, and further comprising a first electrode, a second electrode, and a circuit board, wherein the first electrode is disposed in the stylus tip, and the second electrode is disposed on the stylus rod, the second electrode is electrically connected to the circuit board, and the circuit board is used to control the second electrode to transmit a signal, the signal is used to determine an inclination angle of the stylus relative to a touchscreen, wherein the second electrode is disposed on a fastener in the stylus rod; wherein the fastener is a connecting sleeve, and the connecting sleeve is fastened to the stylus rod, wherein the stylus rod comprises a tapered cylinder section and a straight cylinder section, the tapered cylinder section is located between the stylus tip and the straight cylinder section, the second electrode is disposed on an inner wall of the tapered cylinder section, and at least part of the connecting sleeve is located in the tapered cylinder section; wherein the connecting sleeve is a conductive sleeve, and the second electrode is electrically connected to the circuit board through the connecting sleeve.
Process for obtaining a composition rich in omega 3 fatty acids from an oil of marine origin, with a content of phytanic acid (PhA) of less than 90μg/g wherein such process includes the following steps: a) an oil of marine origin is saponified in order to obtain fatty acids salts. b) the fatty acid salts from step a) are acidified in order to obtain acidified oil. c) the acidified oil from step b) is subjected to ultracentrifugation in a glycerol gradient at a temperature of 10o C under vacuum at 27Pa. d) the glycerol gradient from step c) is subjected to crystallisation to a temperature range between 0 and -57oC, obtaining a solid phase and a liquid phase, where the solid phase contains saturated fatty acids, monounsaturated fatty acids and PhA and the liquid phase contains polyunsaturated omega 3 fatty acids with a PhA content below 90μg/g e) the liquid phase from step d) is separated from the solid phase for its recovery through decantation. a) an oil of marine origin is saponified in order to obtain fatty acids salts. b) the fatty acid salts from step a) are acidified in order to obtain acidified oil. c) the acidified oil from step b) is subjected to ultracentrifugation in a glycerol gradient at a temperature of 10o C under vacuum at 27Pa. d) the glycerol gradient from step c) is subjected to crystallisation to a temperature range between 0 and -57oC, obtaining a solid phase and a liquid phase, where the solid phase contains saturated fatty acids, monounsaturated fatty acids and PhA and the liquid phase contains polyunsaturated omega 3 fatty acids with a PhA content below 90μg/g e) the liquid phase from step d) is separated from the solid phase for its recovery through decantation.
A method for use in a device having a rich execution environment and a secure element, the method comprising: detecting initialization of the device; determining that the initialization of the device was a result of a potential security related event; activating a communication component in the REE responsible for communicating with the secure element; sending a request, by the secure element, to the communication component for diagnostic information related to the potential security event; receiving, by the secure element, the related diagnostic information from the communication component; generating an attack log in the secure element; and communicating the attack log with the related diagnostic information to a secure server via a secure channel. detecting initialization of the device; determining that the initialization of the device was a result of a potential security related event; activating a communication component in the REE responsible for communicating with the secure element; sending a request, by the secure element, to the communication component for diagnostic information related to the potential security event; receiving, by the secure element, the related diagnostic information from the communication component; generating an attack log in the secure element; and communicating the attack log with the related diagnostic information to a secure server via a secure channel.
A method of rapidly heating a mold, comprising: a) a heater unit coupling step of inserting a heater unit into a channel of a mold and coupling the heater unit to the mold; b) a heat transfer medium filling step of introducing a heat transfer medium into the channel through an inlet port connected to the inside of the channel and closing an outlet port connected to the outside of the channel and the inlet port connected to the inside of the channel when the channel is filled with the heat transfer medium; c) a heater unit heating step of heating the heater unit in the channel so that the temperature of the heat transfer medium is increased to a high temperature, thereby increasing the temperature of the mold to a high temperature by the heat transfer medium; d) a molding step of performing a molding work by the mold; and e) a mold cooling step characterized in that f) the mold cooling step allows a new low temperature heat transfer medium to rapidly flow through a narrow gap existing between an inner surface of the channel and a surface of a protective member of the heater unit, thereby absorbing and discharging high temperature heat of the channel and rapidly cooling the channel. a) a heater unit coupling step of inserting a heater unit into a channel of a mold and coupling the heater unit to the mold; b) a heat transfer medium filling step of introducing a heat transfer medium into the channel through an inlet port connected to the inside of the channel and closing an outlet port connected to the outside of the channel and the inlet port connected to the inside of the channel when the channel is filled with the heat transfer medium; c) a heater unit heating step of heating the heater unit in the channel so that the temperature of the heat transfer medium is increased to a high temperature, thereby increasing the temperature of the mold to a high temperature by the heat transfer medium; d) a molding step of performing a molding work by the mold; and e) a mold cooling step characterized in that f) the mold cooling step allows a new low temperature heat transfer medium to rapidly flow through a narrow gap existing between an inner surface of the channel and a surface of a protective member of the heater unit, thereby absorbing and discharging high temperature heat of the channel and rapidly cooling the channel.
A non-canonical amino acid comprising a lysine and an aromatic residue, wherein the aromatic residue is bound to the N-epsilon atom of the lysine and wherein the aromatic residue is selected from the group consisting of quinoline, quinoxaline, isoquinoline, benzoquinoline, phenylquinoline, acridine, aminoacridine, phenazine, phenantridine, carbazole, phenanthroline and benzimidazole.
A portable moist heat delivery system comprising: (a) a water vapor generating portion comprising a water vapor source and a heat source; and (b) a water vapor-air regulating portion, said water vapor-air regulating portion comprising a water vapor-air mixing layer, and a water vapor-air distribution layer; said water vapor generating portion being disposed on the first side of and in fluid communication with said water vapor-air regulating portion; and a latent heat delivery surface disposed at the second side of said water vapor-air regulating portion which delivers moist heat at a preselected temperature range wherein 15% to 95% of the moist heat is latent heat of condensation; wherein said system provides moist heat to a human skin surface maintaining a temperature of said surface of said skin of from 38°C to 42°C, while generating an amount of heat flux of from 100 W/m 2 to 500 W/m 2; wherein said heat source comprises a plurality of exothermic heat cells at least a portion of said heat cells being aligned in a row; and wherein a strip of a foam material overlays said row of heat cells, said strip providing an air space parallel to said row of heat cells to aid the inflow of air into the system; wherein each heat cell is formed in a unified structure comprising at least two opposed surfaces, one substantially non-air-permeable and non-moisture-permeable surface, and one aerated surface that is highly air-permeable and moisture-permeable; and wherein the aerated heat cell surface is disposed toward the latent heat surface side and has an air-permeability of greater than 25 cm 3 /cm 2 /sec and a moisture vapor transmission rate greater than 5,000 g/m 2 /24h. (a) a water vapor generating portion comprising a water vapor source and a heat source; and (b) a water vapor-air regulating portion, said water vapor-air regulating portion comprising a water vapor-air mixing layer, and a water vapor-air distribution layer;
A cooling method for cooling a device connected to a cryogenic tank via a main admission duct for feeding the device with cryogenic fluid once the device is cooled, the method being characterized in that during cooling the cryogenic fluid is introduced into the device via a cooling admission duct that is different from the main admission duct and that presents a flow section that is narrower than the flow section of the main admission duct.
A thermoplastic resin composition, comprising: 100 parts by weight of a base resin comprising 1 to 35 % by weight of a graft copolymer (A-1) comprising acrylate rubber having an average particle diameter of 50 to 150 nm, an aromatic vinyl compound, and a vinyl cyanide compound, 30 to 75 % by weight of a graft copolymer (A-2) comprising acrylate rubber having an average particle diameter of 151 to 600 nm, an aromatic vinyl compound, and a vinyl cyanide compound, and 15 to 40 % by weight of an α-methylstyrene-based copolymer having a weight average molecular weight of 60,000 to 180,000 g/mol; and 0.5 to 10 parts by weight of an ultra-high molecular weight copolymer having a weight average molecular weight of 1,000,000 to 12,000,000 g/mol, wherein the weight ratio of the graft copolymer (A-1) to the graft copolymer (A-2) is 1:3 to 1:5, wherein the ultra-high molecular weight copolymer is an acrylic-based copolymer (C-1), an aromatic vinyl compound-vinyl cyanide compound copolymer (C-2), or a mixture thereof, wherein the average particle diameter is measured by dynamic light scattering as disclosed in the specification, and the weight average molecular weight is measured by gel permeation chromatography as disclosed in the specification. 100 parts by weight of a base resin comprising 1 to 35 % by weight of a graft copolymer (A-1) comprising acrylate rubber having an average particle diameter of 50 to 150 nm, an aromatic vinyl compound, and a vinyl cyanide compound, 30 to 75 % by weight of a graft copolymer (A-2) comprising acrylate rubber having an average particle diameter of 151 to 600 nm, an aromatic vinyl compound, and a vinyl cyanide compound, and 15 to 40 % by weight of an α-methylstyrene-based copolymer having a weight average molecular weight of 60,000 to 180,000 g/mol; and 0.5 to 10 parts by weight of an ultra-high molecular weight copolymer having a weight average molecular weight of 1,000,000 to 12,000,000 g/mol, wherein the weight ratio of the graft copolymer (A-1) to the graft copolymer (A-2) is 1:3 to 1:5, wherein the ultra-high molecular weight copolymer is an acrylic-based copolymer (C-1), an aromatic vinyl compound-vinyl cyanide compound copolymer (C-2), or a mixture thereof, wherein the average particle diameter is measured by dynamic light scattering as disclosed in the specification, and the weight average molecular weight is measured by gel permeation chromatography as disclosed in the specification.
A process for preparing 2-chloro-3,3,3-trifluoropropene comprising: providing a starting composition comprising at least one compound of formula I CX 2 =CCl-CH 2 X wherein X is independently selected from F, Cl, Br, and I, provided that at least one X is not fluorine and wherein the starting composition comprises less than 0.2% impurity as measured by GC area, and preferably comprises less than 0.1% impurity as measured by GC area, wherein the impurities comprise an ionic metal, which is preferably iron, or one or more organic compounds selected from the group consisting of hexachloroethane, tetrachloropropane, pentachloropropane, dichloropropene, trichloropropene, trichloropropane, hexachlorohexadiene, pentachloropropene, dichlorobutene, and combinations thereof; and contacting said starting composition with a fluorinating agent to produce a final composition comprising 2-chloro-3,3,3-trifluoropropene. providing a starting composition comprising at least one compound of formula I CX 2 =CCl-CH 2 X wherein X is independently selected from F, Cl, Br, and I, provided that at least one X is not fluorine and wherein the starting composition comprises less than 0.2% impurity as measured by GC area, and preferably comprises less than 0.1% impurity as measured by GC area, wherein the impurities comprise an ionic metal, which is preferably iron, or one or more organic compounds selected from the group consisting of hexachloroethane, tetrachloropropane, pentachloropropane, dichloropropene, trichloropropene, trichloropropane, hexachlorohexadiene, pentachloropropene, dichlorobutene, and combinations thereof; and contacting said starting composition with a fluorinating agent to produce a final composition comprising 2-chloro-3,3,3-trifluoropropene.
A method of producing antigen-specific effector T cells and/or NK cells comprising: (a) engineering pluripotent stem cells (PSCs) to express a chimeric antigen receptor, thereby producing CAR-PSCs; (b) differentiating the CAR-PSCs to CD34 + hematopoietic progenitor cells (HPCs); (c) further differentiating the CD34 + HPCs to T cells and/or NK cells; and (d) expanding the T cells and/or NK cells, wherein expanding comprises co-culturing with antigen-specific target cells, thereby producing antigen-specific effector T cells and/or NK cells, wherein step (b) comprises performing directed differentiation comprising (ba) generating embryoid bodies (EBs) in the presence of blebbistatin, a GSK-3 inhibitor, FGF2, and VEGF; (bb) contacting the EBs with BMP-4, VEGF, and FGF2 to induce mesoderm induction; and (bc) differentiating the EBs in the presence of Flt-3 ligand, IL3, SCF, and TPO, thereby producing HPCs. (a) engineering pluripotent stem cells (PSCs) to express a chimeric antigen receptor, thereby producing CAR-PSCs; (b) differentiating the CAR-PSCs to CD34 + hematopoietic progenitor cells (HPCs); (c) further differentiating the CD34 + HPCs to T cells and/or NK cells; and (d) expanding the T cells and/or NK cells, wherein expanding comprises co-culturing with antigen-specific target cells, thereby producing antigen-specific effector T cells and/or NK cells, (ba) generating embryoid bodies (EBs) in the presence of blebbistatin, a GSK-3 inhibitor, FGF2, and VEGF; (bb) contacting the EBs with BMP-4, VEGF, and FGF2 to induce mesoderm induction; and (bc) differentiating the EBs in the presence of Flt-3 ligand, IL3, SCF, and TPO, thereby producing HPCs.
A badminton racket manufacturing method comprising: - executing a resin sheet tube forming process that forms a resin sheet tube by placing an expandable resin (5, 5a) that expands when heated on an inner side of a resin sheet and rolling the resin sheet into a cylindrical shape; - executing an expandable resin placing process that places an expandable resin (6, 6a) that expands when heated on an outer periphery of a to-be-frame installed portion of a joint member, - placing the joint member such that the to-be-frame installed portion of the joint member reaches inside a frame formed with the resin sheet tube and a to-be-shaft installed portion of the joint member reaches inside a shaft; and - executing a joining process that joins the frame and the shaft by installing the joint member placed with the expandable resin (6, 6a) inside both end portions of the resin sheet tube, bent circularly and butted against each other, and the shaft, and - setting the frame, the shaft and the joint member in a die, and then - heating the frame, the shaft and the joint member, and - spreading out the both end portions along the die by the expandable resin (6, 6a) placed on the joint member, - wherein at that time, in the joining process, performing a pushing of the resin sheet tube against the die with the expandable resin (5, 5a) in the resin sheet tube, as well as performing a pushing of both end portions of the resin sheet tube against the die with the expandable resin (6, 6a) on the joint member. - executing a resin sheet tube forming process that forms a resin sheet tube by placing an expandable resin (5, 5a) that expands when heated on an inner side of a resin sheet and rolling the resin sheet into a cylindrical shape; - executing an expandable resin placing process that places an expandable resin (6, 6a) that expands when heated on an outer periphery of a to-be-frame installed portion of a joint member, - placing the joint member such that the to-be-frame installed portion of the joint member reaches inside a frame formed with the resin sheet tube and a to-be-shaft installed portion of the joint member reaches inside a shaft; and - executing a joining process that joins the frame and the shaft by installing the joint member placed with the expandable resin (6, 6a) inside both end portions of the resin sheet tube, bent circularly and butted against each other, and the shaft, and - setting the frame, the shaft and the joint member in a die, and then - heating the frame, the shaft and the joint member, and - spreading out the both end portions along the die by the expandable resin (6, 6a) placed on the joint member, - wherein at that time, in the joining process, performing a pushing of the resin sheet tube against the die with the expandable resin (5, 5a) in the resin sheet tube, as well as performing a pushing of both end portions of the resin sheet tube against the die with the expandable resin (6, 6a) on the joint member.
A tangible media embodying computer readable code instructions for performing a method for configuring a robotic system, the method comprising: sensing a torque applied to a joint using a joint sensor; inhibiting manual articulation of a linkage of the robotic system from a first pose in response to a first manual effort against the linkage being below a desired articulation threshold; in response to a second manual effort to articulate the linkage exceeding the desired articulation threshold, facilitating a manual movement of the linkage from the first pose toward a second pose using a movement torque lower than the desired articulation threshold; determining the second pose in response to determining that a velocity of the manual movement is below a threshold velocity; and inhibiting manual movement of the linkage from the second pose. sensing a torque applied to a joint using a joint sensor; inhibiting manual articulation of a linkage of the robotic system from a first pose in response to a first manual effort against the linkage being below a desired articulation threshold; in response to a second manual effort to articulate the linkage exceeding the desired articulation threshold, facilitating a manual movement of the linkage from the first pose toward a second pose using a movement torque lower than the desired articulation threshold; determining the second pose in response to determining that a velocity of the manual movement is below a threshold velocity; and inhibiting manual movement of the linkage from the second pose.