mhurhangee/ep-ind-claims huggingface dataset:
An electrodepositable coating composition comprising: (a) an acrylic polymer comprising greater than 60% by weight of constitutional units comprising the residue of a hydroxyl-functional (meth)acrylate monomer and/or a hydroxyl-functional (meth)acrylamide monomer, based on the total weight of the acrylic polymer; and (b) an ionic salt group-containing film-forming polymer different from the acrylic polymer, wherein the acrylic polymer comprises a single-stage acrylic polymer. (a) an acrylic polymer comprising greater than 60% by weight of constitutional units comprising the residue of a hydroxyl-functional (meth)acrylate monomer and/or a hydroxyl-functional (meth)acrylamide monomer, based on the total weight of the acrylic polymer; and (b) an ionic salt group-containing film-forming polymer different from the acrylic polymer, wherein the acrylic polymer comprises a single-stage acrylic polymer.
A method of producing fatty alcohols comprising: introducing a fatty alcohol feedstock stream comprising a first fatty alcohol species and a second fatty alcohol species to a distillation column; wherein the first fatty alcohol species comprises fewer carbon atoms than the second fatty alcohol species; separating the fatty alcohol feedstock stream by a distillation process to form a light outlet stream and a heavy outlet stream; condensing at least a portion of the light outlet stream to form a reflux stream comprising a reflux mass flow rate and a light product stream comprising a light product mass flow rate; returning the reflux stream to a reflux inlet of the distillation column at a reflux ratio defined as the reflux mass flow rate divided by the light product mass flow rate, wherein the reflux ratio is greater than or equal to 2; and recovering a fatty alcohol product stream comprising the first fatty alcohol species and the second fatty alcohol species from an outlet of the distillation column, wherein the outlet is located above a feed inlet and below an overhead product outlet, wherein the fatty alcohol product stream comprises a first mass percentage of the first fatty alcohol species (M 1), and a second mass percentage of the second fatty alcohol species (M 2), and wherein a fatty alcohol mass ratio (M 1 /M 2) of the fatty alcohol product stream is the first mass percentage divided by the second mass percentage, and wherein the fatty alcohol mass ratio is greater than or equal to 2.0. introducing a fatty alcohol feedstock stream comprising a first fatty alcohol species and a second fatty alcohol species to a distillation column; wherein the first fatty alcohol species comprises fewer carbon atoms than the second fatty alcohol species; separating the fatty alcohol feedstock stream by a distillation process to form a light outlet stream and a heavy outlet stream; condensing at least a portion of the light outlet stream to form a reflux stream comprising a reflux mass flow rate and a light product stream comprising a light product mass flow rate; returning the reflux stream to a reflux inlet of the distillation column at a reflux ratio defined as the reflux mass flow rate divided by the light product mass flow rate, wherein the reflux ratio is greater than or equal to 2; and recovering a fatty alcohol product stream comprising the first fatty alcohol species and the second fatty alcohol species from an outlet of the distillation column, wherein the outlet is located above a feed inlet and below an overhead product outlet, wherein the fatty alcohol product stream comprises a first mass percentage of the first fatty alcohol species (M 1), and a second mass percentage of the second fatty alcohol species (M 2), and wherein a fatty alcohol mass ratio (M 1 /M 2) of the fatty alcohol product stream is the first mass percentage divided by the second mass percentage, and wherein the fatty alcohol mass ratio is greater than or equal to 2.0.
An ink jet printer comprising: a transportation mechanism configured to transport a medium in a first direction; and a carriage that has a plasma irradiation mechanism configured to irradiate at least a portion of the medium with plasma generated in an electricity discharge portion and emitted from a plasma irradiation opening and a head configured to eject ink from a nozzle to the portion of the medium irradiated with the plasma, and configured to move in a second direction intersecting the first direction, wherein the plasma irradiation mechanism is provided on one side of the head in the second direction, wherein a partition board is provided between the plasma irradiation opening and the head, and wherein if a distance from a surface of the medium to the nozzle is, a distance from a surface of the medium to the plasma irradiation opening is, and a distance from a surface of the medium to the partition board is, a conditional expression: < ≤ is satisfied. a transportation mechanism configured to transport a medium in a first direction; and a carriage that has a plasma irradiation mechanism configured to irradiate at least a portion of the medium with plasma generated in an electricity discharge portion and emitted from a plasma irradiation opening and a head configured to eject ink from a nozzle to the portion of the medium irradiated with the plasma, and configured to move in a second direction intersecting the first direction, wherein the plasma irradiation mechanism is provided on one side of the head in the second direction, wherein a partition board is provided between the plasma irradiation opening and the head, and wherein if a distance from a surface of the medium to the nozzle is, a distance from a surface of the medium to the plasma irradiation opening is, and a distance from a surface of the medium to the partition board is, a conditional expression: < ≤ is satisfied.
An ink formulation comprising a colorant encapsulated in a plurality of capsules, wherein the plurality of capsules comprises a release agent which is covalently bonded to the plurality of capsules, and wherein the release agent comprises epoxy acrylate, polyester acrylate, polyether acrylate, urethane acrylate, 2-(2-ethoxyethoxy) ethylacrylate, 2-phenoxy ethyl acrylate, tetrahydrofurfuryl methacrylate, ortho-phenoxy ethyl acrylate, pentaerythriol acrylate, cyclic trimethylolpropane formal acrylate, isobornyl acrylate, benzyl acrylate, 3,3,5-trimethylcyclohexyl acrylate, or any combination thereof.
Fixed bed reactor for the gasification of fuels, in particular of biomass, having a reactor interior, having at least one fuel-metering device for metering fuel to be gasified into the reactor interior, having a grate which is arranged in the reactor interior and on which the fuel which is metered into the reactor interior and is to be gasified lies as a fixed bed, having at least one air-feeding device for feeding air into the reactor interior, and having at least one gas outlet for removing the gas generated in the reactor interior from the reactor interior, wherein a muffle pipe is conducted, with respect to the reactor vertical axis direction, into the reactor interior from above in such a way that it opens into the reactor interior by a lower muffle pipe end region above the grate, wherein the lower muffle pipe end region, as a free muffle pipe end region, protrudes into the reactor interior at a spacing from a reactor inner wall, wherein an upper reactor inner wall region, as viewed in the vertical axis direction, surrounds the lower, free muffle pipe end region with a defined gap spacing in such a way that a gas-collecting space which extends annularly at least in certain regions around the lower, free muffle pipe end region is formed between the lower, free muffle pipe end region and the upper reactor inner wall region, into which gas-collecting space the at least one gas outlet opens, characterized in that the lower muffle pipe end region has or forms a muffle pipe comb which extends around there at least in certain regions, preferably completely, and which has a plurality of spaced-apart and/or downwardly projecting comb teeth.
A method for simultaneously forming a plurality of preforms, the method comprising: positioning a plurality of resin-impregnated fiber bundles on a surface of a forming tool each fiber bundle having a length, wherein a first portion of the length, but not a second portion of the length of each fiber bundle is in contact with the surface of the forming tool, and wherein the first portion of each fiber bundle is physically separated from neighboring fiber bundles; restraining lateral movement of each first portion towards neighboring first portions; and deforming the plurality of fiber bundles wherein the second portion of each fiber bundle contacts the surface of forming tool, conforming to a contour of the surface of the forming tool, thereby forming a plurality of preforms. positioning a plurality of resin-impregnated fiber bundles on a surface of a forming tool each fiber bundle having a length, wherein a first portion of the length, but not a second portion of the length of each fiber bundle is in contact with the surface of the forming tool, and wherein the first portion of each fiber bundle is physically separated from neighboring fiber bundles; restraining lateral movement of each first portion towards neighboring first portions; and deforming the plurality of fiber bundles wherein the second portion of each fiber bundle contacts the surface of forming tool, conforming to a contour of the surface of the forming tool, thereby forming a plurality of preforms.
A dispensing system for dispensing unit dosage forms from a blister pack, the dispensing system comprising: a blister pack having a plurality of cavities with at least one unit dosage form sealed in each of the cavities; a housing for receiving the blister pack comprising at least one housing aperture; a flexible induction sensitive layer; and at least one sensing region; an electronics unit; and a power source for providing voltage to the induction sensitive layer; characterized in that said induction sensitive layer comprises an induction coil layer comprising one or more coils and a flexible induction coil substrate, each one or more coil providing at least one sensing region configured to substantially align with the at least one housing aperture and with a corresponding one or more of the plurality of cavities of the blister pack when the blister pack is received in the housing; and wherein: in use, the unit dosage forms are dispensed from the blister pack through the coils and through the at least one housing aperture by pressing on the plurality of cavities positioned within the at least one sensing region; and the induction sensitive layer senses each unit dosage form being dispensed from the blister pack by the flexible induction coil substrate flexing under pressure and displacing the coil thereby changing the electrical properties of the sensing region. a blister pack having a plurality of cavities with at least one unit dosage form sealed in each of the cavities; a housing for receiving the blister pack comprising at least one housing aperture; a flexible induction sensitive layer; and at least one sensing region; an electronics unit; and a power source for providing voltage to the induction sensitive layer; characterized in that said induction sensitive layer comprises an induction coil layer comprising one or more coils and a flexible induction coil substrate, each one or more coil providing at least one sensing region configured to substantially align with the at least one housing aperture and with a corresponding one or more of the plurality of cavities of the blister pack when the blister pack is received in the housing; and wherein: in use, the unit dosage forms are dispensed from the blister pack through the coils and through the at least one housing aperture by pressing on the plurality of cavities positioned within the at least one sensing region; and the induction sensitive layer senses each unit dosage form being dispensed from the blister pack by the flexible induction coil substrate flexing under pressure and displacing the coil thereby changing the electrical properties of the sensing region. in use, the unit dosage forms are dispensed from the blister pack through the coils and through the at least one housing aperture by pressing on the plurality of cavities positioned within the at least one sensing region; and the induction sensitive layer senses each unit dosage form being dispensed from the blister pack by the flexible induction coil substrate flexing under pressure and displacing the coil thereby changing the electrical properties of the sensing region.
A structure against a side impact, the structure comprising: a side wall of a vehicle body, the side wall including a center pillar within which a reinforcement is provided; a seatback frame; and a load receiving member disposed on the seatback frame to contact with the side wall of the vehicle body and to receive an impact load when the side wall of the vehicle body is moved toward a vehicle cabin by a side impact, wherein a high-strength area reinforced by the reinforcement to have high strength is formed in the side wall of the vehicle body, an upper area reinforced by the reinforcement to have strength lower than the strength of the high-strength area is formed beneath the high-strength area, a lower area that is not reinforced by the reinforcement is formed beneath the upper area, strength of the upper area of the side wall of the vehicle body is made higher, by being reinforced by the reinforcement, than strength of the lower area of the side wall of the vehicle body, and an upper end of the upper area is located lateral to the load receiving member, the upper end being adjoined to a lower end (Da) of the high-strength area. a side wall of a vehicle body, the side wall including a center pillar within which a reinforcement is provided; a seatback frame; and a load receiving member disposed on the seatback frame to contact with the side wall of the vehicle body and to receive an impact load when the side wall of the vehicle body is moved toward a vehicle cabin by a side impact, wherein a high-strength area reinforced by the reinforcement to have high strength is formed in the side wall of the vehicle body, an upper area reinforced by the reinforcement to have strength lower than the strength of the high-strength area is formed beneath the high-strength area, a lower area that is not reinforced by the reinforcement is formed beneath the upper area, strength of the upper area of the side wall of the vehicle body is made higher, by being reinforced by the reinforcement, than strength of the lower area of the side wall of the vehicle body, and an upper end of the upper area is located lateral to the load receiving member, the upper end being adjoined to a lower end (Da) of the high-strength area.
A water-dispersible composition comprising a mixture of: (a) a nanofiller-containing epoxy resin: and (b) at least one low temperature nonionic surfactant which is operational at a temperature of from 20°C - 65°C; wherein the concentration of the low temperature nonionic surfactant comprises from 10 wt% to 25 wt% based on the nanofiller-containing epoxy resin; and wherein the molecular weight of the low temperature nonionic surfactant comprises from 1000 Daltons to 7000 Daltons. (a) a nanofiller-containing epoxy resin: and (b) at least one low temperature nonionic surfactant which is operational at a temperature of from 20°C - 65°C; wherein the concentration of the low temperature nonionic surfactant comprises from 10 wt% to 25 wt% based on the nanofiller-containing epoxy resin; and wherein the molecular weight of the low temperature nonionic surfactant comprises from 1000 Daltons to 7000 Daltons.
A method for extracting a nucleic acid from a formalin fixed paraffin-embedded biological tissue sample, said method comprising: incubating one or more sections of said tissue sample in a lysis solution comprising: Guanidine Thiocyanate; N-acetyl-L-cysteine; Na Citrate; and N-Lauroylsarcosine; wherein the pH of said solution ranges from pH 3.0 to pH 5.5; or the lysis solution comprising: a buffer sufficient to maintain the pH of said solution at a pH ranging from pH 3 to pH 9; a chaotropic agent; an antioxidant and/or chelating agent; and a detergent; wherein said incubating is at a temperature ranging from 50°C to 100°C, said method does not utilize an organic solvent for deparaffinization and does not utilize a protease; and said method does not include further steps of deparaffinization and/or additional reagents for deparaffinization; and recovering said nucleic acid from said lysis solution, wherein said method produces an isolated nucleic acid of quality sufficient for amplification and/or quantitation. Guanidine Thiocyanate; N-acetyl-L-cysteine; Na Citrate; and N-Lauroylsarcosine; wherein the pH of said solution ranges from pH 3.0 to pH 5.5; a buffer sufficient to maintain the pH of said solution at a pH ranging from pH 3 to pH 9; a chaotropic agent; an antioxidant and/or chelating agent; and a detergent;
A two-part adhesive comprising: A) a curative part comprising: i) an epoxy curative; and ii) a reaction intermediate which is the reaction product of a suspension of core/shell rubber nanoparticles in a liquid epoxy resin and an excess of the epoxy curative; wherein the curative part comprises greater than 1.1 wt% core/shell rubber nanoparticles; and B) an epoxy part comprising: iii) a liquid epoxy resin; and iv) greater than 9.1 wt% core/shell rubber nanoparticles. A) a curative part comprising: i) an epoxy curative; and ii) a reaction intermediate which is the reaction product of a suspension of core/shell rubber nanoparticles in a liquid epoxy resin and an excess of the epoxy curative; wherein the curative part comprises greater than 1.1 wt% core/shell rubber nanoparticles; and i) an epoxy curative; and ii) a reaction intermediate which is the reaction product of a suspension of core/shell rubber nanoparticles in a liquid epoxy resin and an excess of the epoxy curative; B) an epoxy part comprising: iii) a liquid epoxy resin; and iv) greater than 9.1 wt% core/shell rubber nanoparticles. iii) a liquid epoxy resin; and iv) greater than 9.1 wt% core/shell rubber nanoparticles.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein: A is: -NHC -; B is 4 to 7-membered monocyclic heterocycloalkyl; R 1 is selected from C 1 -C 6 alkyl, C 1 -C 6 hydroxyalkyl and -(C 1 -C 4 alkylene)-O-(C 1 -C 6 alkyl); R 2 represents up to 2 optional substituents, each independently selected from halo or up to 3 substituent groups, each independently selected from F and Cl; and each occurrence of R 3 is independently H or C 1 -C 6 alkoxy. or a pharmaceutically acceptable salt thereof, wherein: A is: -NHC -; B is 4 to 7-membered monocyclic heterocycloalkyl; R 1 is selected from C 1 -C 6 alkyl, C 1 -C 6 hydroxyalkyl and -(C 1 -C 4 alkylene)-O-(C 1 -C 6 alkyl); R 2 represents up to 2 optional substituents, each independently selected from halo or up to 3 substituent groups, each independently selected from F and Cl; and each occurrence of R 3 is independently H or C 1 -C 6 alkoxy. A is: -NHC -; B is 4 to 7-membered monocyclic heterocycloalkyl; R 1 is selected from C 1 -C 6 alkyl, C 1 -C 6 hydroxyalkyl and -(C 1 -C 4 alkylene)-O-(C 1 -C 6 alkyl); R 2 represents up to 2 optional substituents, each independently selected from halo or up to 3 substituent groups, each independently selected from F and Cl; and each occurrence of R 3 is independently H or C 1 -C 6 alkoxy.
An ejector for road milling machines, comprising: - a conveyor surface directed in the advancing direction; - a rear side facing away from the conveyor surface, wherein the rear side forms an attachment side with at least one supporting surface; - a screw receptacle, wherein at least one protruding fixing shoulder (26.1, 26.2) or a recessed fixing receptacle is arranged on the side facing away from the conveyor surface, wherein by means of the at least one fixing shoulder (26.1, 26.2) or the at least one fixing receptacle a displacement of the ejector in a plane transverse to the advancing direction can be delimited in a form-fitting manner, and wherein the attachment side is designed such that the ejector can be mounted on the cover in two different operating positions. - a conveyor surface directed in the advancing direction; - a rear side facing away from the conveyor surface, wherein the rear side forms an attachment side with at least one supporting surface; - a screw receptacle,
A harvesting machine comprising a guide mechanism adapted to direct a flow of crop residue from a threshing mechanism along one of three paths corresponding with three respective processing modes, the guide mechanism comprising a first deflection door which is supported on a first pivot shaft and fitted with a first crank arm and a second deflection door which is supported on a second pivot shaft fitted with a second crank arm, both deflection doors (96, 94) being movable between respective first end positions and second end positions, wherein - in the first processing mode, both deflection doors (96, 94) are in their first end position; - in the second processing mode, the first deflection door is in its first position and the second deflection door is in its second end position; - in the third processing mode, both deflection doors (96, 94) are in their second end position; and CHARACTERIZED IN THAT said guide mechanism comprises - an actuator, at its first end coupled to the first crank arm and at its second end to the second crank arm, and being arranged to vary the distance between its ends (100a, 100b); and - a first resilient element, coupled to the first crank arm such that - when contracting the actuator in the first processing mode, the first resilient element exerts a force on the first deflection door in order to hold the first deflection door in its first end position and the second deflection door is brought to its second end position, and - when contracting the actuator in the second processing mode, the actuator overcomes the force of the first resilient element in order to bring the first deflection door to its second end position while keeping the second deflection door in its second end position. - in the first processing mode, both deflection doors (96, 94) are in their first end position; - in the second processing mode, the first deflection door is in its first position and the second deflection door is in its second end position; - in the third processing mode, both deflection doors (96, 94) are in their second end position; and - an actuator, at its first end coupled to the first crank arm and at its second end to the second crank arm, and being arranged to vary the distance between its ends (100a, 100b); and - a first resilient element, coupled to the first crank arm such that - when contracting the actuator in the first processing mode, the first resilient element exerts a force on the first deflection door in order to hold the first deflection door in its first end position and the second deflection door is brought to its second end position, and - when contracting the actuator in the second processing mode, the actuator overcomes the force of the first resilient element in order to bring the first deflection door to its second end position while keeping the second deflection door in its second end position.