mhurhangee/ep-ind-claims huggingface dataset:
A method of producing an electrode material precursor having a core-shell structure in which an active material core precursor is coated with polyaniline, wherein an oxidizing agent is added to a solution containing aniline and an active raw material to generate fine active material particles, and aniline is polymerized at the surface of the fine particles.
A method for preparing nanographene-supported metal and/or metal oxide nanoparticle composites, in which, - the nanographene has a lateral size between 1 and 200 nm and - the metal or metal oxide nanoparticles have a diameter from 0.5 to 100 nm, comprising the following steps: a) formation of an organic nanographenide solution by dissolving a nanographite intercalation compound in an aprotic organic solvent or a mixture (A') of aprotic organic solvents under anhydrous inert atmosphere, preferably in the absence of sonication; b) reacting the organic nanographenide solution obtained in step a) with a suitable amount of at least one metal salt and/or at least one metal complex or a mixture of at least two metal salts and/or metal complexes under anhydrous inert atmosphere; thereby leading to a suspension of nanographene-supported metal nanoparticles; and c) optionally oxidizing the metal nanoparticles present on the nanographene support; wherein the process is free of reducing agent other than the nanographenide formed in step a) and wherein the nanographite has a lateral size between 1 and 200 nm. - the nanographene has a lateral size between 1 and 200 nm and - the metal or metal oxide nanoparticles have a diameter from 0.5 to 100 nm, comprising the following steps: a) formation of an organic nanographenide solution by dissolving a nanographite intercalation compound in an aprotic organic solvent or a mixture (A') of aprotic organic solvents under anhydrous inert atmosphere, preferably in the absence of sonication; b) reacting the organic nanographenide solution obtained in step a) with a suitable amount of at least one metal salt and/or at least one metal complex or a mixture of at least two metal salts and/or metal complexes under anhydrous inert atmosphere; thereby leading to a suspension of nanographene-supported metal nanoparticles; and c) optionally oxidizing the metal nanoparticles present on the nanographene support; a) formation of an organic nanographenide solution by dissolving a nanographite intercalation compound in an aprotic organic solvent or a mixture (A') of aprotic organic solvents under anhydrous inert atmosphere, preferably in the absence of sonication; b) reacting the organic nanographenide solution obtained in step a) with a suitable amount of at least one metal salt and/or at least one metal complex or a mixture of at least two metal salts and/or metal complexes under anhydrous inert atmosphere; thereby leading to a suspension of nanographene-supported metal nanoparticles; and c) optionally oxidizing the metal nanoparticles present on the nanographene support; wherein the process is free of reducing agent other than the nanographenide formed in step a) and wherein the nanographite has a lateral size between 1 and 200 nm.
A switch mode switching method, comprising: Receiving, by a switch, a mode switch request message sent by a controller, wherein the mode switch request message is used to instruct the switch to switch from a conventional switching mode to an OpenFlow switching mode; wherein in response to the mode switch request message, freezing, by the switch, all routing and switching information tables of the switch in the conventional switching mode, and converting, according to routing and switching information in each routing and switching information table, the routing and switching information table into an OpenFlow flow table corresponding to the routing and switching information table, wherein the OpenFlow flow table comprises at least one OpenFlow flow entry; and switching, by the switch, to the OpenFlow switching mode, and sending a mode switch response message to the controller. Receiving, by a switch, a mode switch request message sent by a controller, wherein the mode switch request message is used to instruct the switch to switch from a conventional switching mode to an OpenFlow switching mode; wherein in response to the mode switch request message, freezing, by the switch, all routing and switching information tables of the switch in the conventional switching mode, and converting, according to routing and switching information in each routing and switching information table, the routing and switching information table into an OpenFlow flow table corresponding to the routing and switching information table, wherein the OpenFlow flow table comprises at least one OpenFlow flow entry; and switching, by the switch, to the OpenFlow switching mode, and sending a mode switch response message to the controller.
An automatic braking system for a pivoting power tool, comprising: a) a cutting assembly; b) a cutting arm supporting the cutting assembly; c) a hinge supporting the cutting arm through a pivot; d) a primary braking system operably connected to the cutting assembly; e) a secondary braking system operably connected to the hinge; and f) a safety circuit configured to sense an unsafe condition and, in response to sensing the unsafe condition, (i) control the primary braking system to oppose rotation of a blade supported by the cutting assembly, and (ii) control the secondary braking system to oppose rotation of the cutting arm; characterized in that g1) the primary braking assembly is operably connected to a motor through a primary clutch; g2) the secondary braking assembly is operably connected to the motor through a secondary clutch; g3) the safety circuit is configured to disengage the primary clutch and the secondary clutch in response to sensing the unsafe condition; and h) wherein the secondary braking assembly is sized to produce a moment of inertia of substantially the same magnitude as a moment of inertia generated by the primary braking assembly. a) a cutting assembly; b) a cutting arm supporting the cutting assembly; c) a hinge supporting the cutting arm through a pivot; d) a primary braking system operably connected to the cutting assembly; e) a secondary braking system operably connected to the hinge; and f) a safety circuit configured to sense an unsafe condition and, in response to sensing the unsafe condition, (i) control the primary braking system to oppose rotation of a blade supported by the cutting assembly, and (ii) control the secondary braking system to oppose rotation of the cutting arm; characterized in that g1) the primary braking assembly is operably connected to a motor through a primary clutch; g2) the secondary braking assembly is operably connected to the motor through a secondary clutch; g3) the safety circuit is configured to disengage the primary clutch and the secondary clutch in response to sensing the unsafe condition; and h) wherein the secondary braking assembly is sized to produce a moment of inertia of substantially the same magnitude as a moment of inertia generated by the primary braking assembly.
A bone screw comprising: - a head portion with a first axis, - a proximal shaft portion with a second axis, and - a distal shaft portion with a third axis, wherein the first axis is a center axis extending in a longitudinal direction of the head portion, wherein the second axis is a center axis extending in a longitudinal direction of the proximal shaft portion, and wherein the third axis is a center axis extending in a longitudinal direction of the distal shaft portion, wherein the first and third axes are aligned to each other, and wherein the second axis is displaced relative to the first and third axes, wherein a screw thread is continuously formed on the distal shaft portion and the proximal shaft portion, characterized in that the length of the distal shaft portion is at least three times the length of the proximal shaft portion. - a head portion with a first axis, - a proximal shaft portion with a second axis, and - a distal shaft portion with a third axis, wherein the first axis is a center axis extending in a longitudinal direction of the head portion, wherein the second axis is a center axis extending in a longitudinal direction of the proximal shaft portion, and wherein the third axis is a center axis extending in a longitudinal direction of the distal shaft portion, wherein the first and third axes are aligned to each other, and wherein the second axis is displaced relative to the first and third axes, wherein a screw thread is continuously formed on the distal shaft portion and the proximal shaft portion, characterized in that the length of the distal shaft portion is at least three times the length of the proximal shaft portion.
A pharmaceutical composition, comprising an aqueous solution of a 7-dimethylamino-tetracycline antibiotic and a magnesium cation, wherein the molar ratio of magnesium cation to 7-dimethylamino-tetracycline antibiotic is greater than 2:1 and wherein the solution does not comprise a pharmaceutically acceptable oil, has a pH greater than 4 and less than 7, has an osmolality less than 500 mOsmol/kg, and is suitable for intravenous administration, preferably the 7-dimethylamino-tetracycline antibiotic is minocycline, or comprising an aqueous solution of minocycline and a magnesium cation, wherein the concentration of minocycline is at least 1 mg/ml, wherein the molar ratio of magnesium cation to minocycline is greater than 2:1 and wherein the solution has a pH greater than 4 and less than 5 and is suitable for intravenous administration. an aqueous solution of a 7-dimethylamino-tetracycline antibiotic and a magnesium cation, wherein the molar ratio of magnesium cation to 7-dimethylamino-tetracycline antibiotic is greater than 2:1 and wherein the solution does not comprise a pharmaceutically acceptable oil, has a pH greater than 4 and less than 7, has an osmolality less than 500 mOsmol/kg, and is suitable for intravenous administration, preferably the 7-dimethylamino-tetracycline antibiotic is minocycline, or comprising an aqueous solution of minocycline and a magnesium cation, wherein the concentration of minocycline is at least 1 mg/ml, wherein the molar ratio of magnesium cation to minocycline is greater than 2:1 and wherein the solution has a pH greater than 4 and less than 5 and is suitable for intravenous administration.
A nutritional composition comprising a combination of Bifidobacterium breve and non-digestible oligosaccharides for use in preventing and/or reducing the risk of occurrence of hyperinsulinemia and/or insulin resistance later in life in a human subject by administration of the nutritional composition to the human subject early in life, wherein the nutritional composition is an infant formula or follow on formula or young child formula, and wherein the composition comprises a mixture of galacto-oligosaccharides and fructo-oligosaccharides, and wherein said human subject is exposed to or raised in an obesogenic environment and/or consumes after infancy a Western Style Diet that is increased in fat and is increased in saturated fatty acids, with the fat providing more than 35 % of the total calories of the diet, and with the saturated fatty acids providing more than 10 % of the total calories of the diet, and wherein early in life is when the human subject has an age of 0 to 36 months and wherein later in life is when the human subject has an age above 5 years.
A method of replacing a compressor outlet housing comprising the steps of: (a) removing a first compressor outlet housing from a compressor having a compressor impeller configured to be driven by a motor through a drive shaft, said first compressor outlet housing having a first bearing support portion supporting a bearing for said drive shaft, said first bearing support portion connected through a first radially outwardly extending web to a first ledge, and a first volute connected to said first ledge through a first radially inwardly extending finger; (b) replacing said removed compressor outlet housing with a second compressor outlet housing, said second compressor outlet housing having a second volute and a second radially inwardly extending finger extending from said second volute, and said second radially inwardly extending finger being welded to an insert, said insert having a second bearing support placed on said drive shaft to support said bearing for said drive shaft, and said insert having a second web connecting a second ledge to said second bearing support, and said second inwardly extending replacement finger welded to said second ledge; and wherein said second ledge has an extending portion providing a radial support location for said radially inner surface of said replacement finger, and said second ledge having an axially rear portion extending radially outwardly for a greater amount to a radially outer surface than does a radially outer surface of said axially forward portion at an axially forward end of said axially rear portion, and said second finger abutting the axially forward end to provide axial alignment. (a) removing a first compressor outlet housing from a compressor having a compressor impeller configured to be driven by a motor through a drive shaft, said first compressor outlet housing having a first bearing support portion supporting a bearing for said drive shaft, said first bearing support portion connected through a first radially outwardly extending web to a first ledge, and a first volute connected to said first ledge through a first radially inwardly extending finger; (b) replacing said removed compressor outlet housing with a second compressor outlet housing, said second compressor outlet housing having a second volute and a second radially inwardly extending finger extending from said second volute, and said second radially inwardly extending finger being welded to an insert, said insert having a second bearing support placed on said drive shaft to support said bearing for said drive shaft, and said insert having a second web connecting a second ledge to said second bearing support, and said second inwardly extending replacement finger welded to said second ledge; and
Vehicle seat having a first seating position which comprises a first backrest and having a second seating position which comprises a second backrest, wherein the second backrest is reinforced with at least one second longitudinal member (42, 44) which is formed from a frame part (52, 54) and the first backrest is reinforced with at least one first longitudinal member (41, 43) which has an identical frame part (52, 54) and additionally a reinforcement part (51, 53, 55), characterized in that the first backrest is reinforced with a first right-hand longitudinal member, which has a right-hand frame part and a reinforcement part (51, 55), and with a first left-hand longitudinal member, which has a left-hand frame part and a reinforcement part (53, 55), and in that the first right-hand longitudinal member has a right-hand reinforcement part and the first left-hand longitudinal member has an adaptation reinforcement part, wherein the adaptation reinforcement part is designed to be shorter in a vertical direction than the right-hand reinforcement part, or in that the first right-hand longitudinal member has an adaptation reinforcement part and the first left-hand longitudinal member has a left-hand reinforcement part, wherein the adaptation reinforcement part is designed to be shorter in a vertical direction than the left-hand reinforcement part.
An anti-reflective coating solution composition, comprising: a compound represented by Chemical Formula 1 below; a water-soluble organic solvent; and water: in Chemical Formula 1, X is an integer selected from among 15 to 25, R 1 is selected from the group consisting of CH 2, C 2 H 4, C 3 H 6, C 4 H 8 and C 5 H 10, R 2 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9, C 5 H 11, OCH 3, OC 2 H 5, OC 3 H 7, OC 4 H 9 and OC 5 H 11, R 3 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9, C 5 H 11, OCH 3, OC 2 H 5, OC 3 H 7, OC 4 H 9 and OC 5 H 11, and R 4 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9 and C 5 H 11. a compound represented by Chemical Formula 1 below; a water-soluble organic solvent; and water: in Chemical Formula 1, X is an integer selected from among 15 to 25, R 1 is selected from the group consisting of CH 2, C 2 H 4, C 3 H 6, C 4 H 8 and C 5 H 10, R 2 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9, C 5 H 11, OCH 3, OC 2 H 5, OC 3 H 7, OC 4 H 9 and OC 5 H 11, R 3 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9, C 5 H 11, OCH 3, OC 2 H 5, OC 3 H 7, OC 4 H 9 and OC 5 H 11, and R 4 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9 and C 5 H 11. R 1 is selected from the group consisting of CH 2, C 2 H 4, C 3 H 6, C 4 H 8 and C 5 H 10, R 2 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9, C 5 H 11, OCH 3, OC 2 H 5, OC 3 H 7, OC 4 H 9 and OC 5 H 11, R 3 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9, C 5 H 11, OCH 3, OC 2 H 5, OC 3 H 7, OC 4 H 9 and OC 5 H 11, and R 4 is selected from the group consisting of H, CH 3, C 2 H 5, C 3 H 7, C 4 H 9 and C 5 H 11.
A battery pack, comprising: a plurality of secondary batteries, each of the secondary batteries comprising a housing which comprises a weakened portion, so that a heat flow resulting from thermal runaway of a secondary battery is able to break through the weakened portion to be discharged; a spray pipeline which is corresponding to weakened portions of the secondary batteries and is arranged at a spacing B from the weakened portions of the secondary batteries, at least a portion of the spray pipeline corresponding to the weakened portions being a breakthrough region which is able to form an opening under an action of the heat flow, a spray medium in the spray pipeline being sprayed to an abnormal secondary battery in thermal runaway via the opening; wherein a capacity A of the secondary battery by Ah and a spacing B between the weakened portion and the spray pipeline by mm satisfy: 10 ⩽ 3 × A + 25 / B 0.5 ⩽ 35. a plurality of secondary batteries, each of the secondary batteries comprising a housing which comprises a weakened portion, so that a heat flow resulting from thermal runaway of a secondary battery is able to break through the weakened portion to be discharged; a spray pipeline which is corresponding to weakened portions of the secondary batteries and is arranged at a spacing B from the weakened portions of the secondary batteries, at least a portion of the spray pipeline corresponding to the weakened portions being a breakthrough region which is able to form an opening under an action of the heat flow, a spray medium in the spray pipeline being sprayed to an abnormal secondary battery in thermal runaway via the opening; wherein a capacity A of the secondary battery by Ah and a spacing B between the weakened portion and the spray pipeline by mm satisfy: 10 ⩽ 3 × A + 25 / B 0.5 ⩽ 35.
A method for monitoring engine health of an aircraft having a first gas turbine engine and a second gas turbine engine, the method comprising the steps of: obtaining a first turbine gas temperature of the first gas turbine engine and a second turbine gas temperature of the second gas turbine engine from a first flight; relating the first turbine gas temperature and the second turbine gas temperature to each other to define a first value; and comparing the first value to a data set for monitoring the engine health wherein the obtaining step includes obtaining the first turbine gas temperature of the first gas turbine engine and the second turbine gas temperature of the second gas turbine engine from the first flight at a first set of ambient conditions, and wherein the relating step includes using the first set of ambient conditions to standardize the first turbine gas temperature and the second turbine gas temperature to define a first standardized turbine gas temperature and a second standardized turbine gas temperature, respectively, wherein said standardization includes mathematically adjusting the turbine gas temperatures to what they would have been if they were calculated at a standard temperature and a standard rotor speed. obtaining a first turbine gas temperature of the first gas turbine engine and a second turbine gas temperature of the second gas turbine engine from a first flight; relating the first turbine gas temperature and the second turbine gas temperature to each other to define a first value; and comparing the first value to a data set for monitoring the engine health wherein the obtaining step includes obtaining the first turbine gas temperature of the first gas turbine engine and the second turbine gas temperature of the second gas turbine engine from the first flight at a first set of ambient conditions, and wherein the relating step includes using the first set of ambient conditions to standardize the first turbine gas temperature and the second turbine gas temperature to define a first standardized turbine gas temperature and a second standardized turbine gas temperature, respectively, wherein said standardization includes mathematically adjusting the turbine gas temperatures to what they would have been if they were calculated at a standard temperature and a standard rotor speed.
A guanylate cyclase receptor agonist having the sequence of SEQ ID NO: 1, wherein said sequence is a [4,12; 7,15] bicycle, for use in a method of preventing or treating hypercholesterolemia.
An isolated, mutant thermostable Type-A DNA polymerase that is at least 90, 95, 96, 97, 98 or 99% identical to the sequence of SEQ ID NO: 4, and contains five amino acid substitutions at residues G59, V155, L245, E507, and F749 of SEQ ID NO:4 or at residues corresponding to residues G59, V155, L245, E507, and F749 of SEQ ID NO:4; wherein said substitutions are G59W, V155I, L245M, E507K, and F749I of SEQ ID NO:4; wherein the mutant polymerase possesses (i) DNA polymerase activity and (ii) a higher resistance to polymerization activity inhibitor heparin than the wild-type DNA polymerase from which the mutant polymerase is derived, and wherein the mutant polymerase is free of mutation at residue 375 or 734 of SEQ ID NO: 4, or at a residue corresponding to residue 375 or 734 of SEQ ID NO: 4. wherein said substitutions are G59W, V155I, L245M, E507K, and F749I of SEQ ID NO:4; wherein the mutant polymerase possesses (i) DNA polymerase activity and (ii) a higher resistance to polymerization activity inhibitor heparin than the wild-type DNA polymerase from which the mutant polymerase is derived, and wherein the mutant polymerase is free of mutation at residue 375 or 734 of SEQ ID NO: 4, or at a residue corresponding to residue 375 or 734 of SEQ ID NO: 4.
Arrangement having a polyphase transformer, which has primary windings and secondary windings, wherein - the secondary windings are connected in a star circuit, the star point of which is connected to earth potential by means of an overvoltage limitation device, - the overvoltage limitation device has a first overvoltage-limiting component, - a switch, which in its closed state electrically bypasses the first overvoltage-limiting component, is assigned to the first overvoltage-limiting component, and - the overvoltage limitation device has a second overvoltage-limiting component, which is electrically connected in series with the first overvoltage-limiting component. - the secondary windings are connected in a star circuit, the star point of which is connected to earth potential by means of an overvoltage limitation device, - the overvoltage limitation device has a first overvoltage-limiting component, - a switch, which in its closed state electrically bypasses the first overvoltage-limiting component, is assigned to the first overvoltage-limiting component, and - the overvoltage limitation device has a second overvoltage-limiting component, which is electrically connected in series with the first overvoltage-limiting component.