mhurhangee/ep-ind-claims huggingface dataset:
A molding apparatus with which to mold, in use, a preform of a type for blow molding into a container, the molding apparatus comprising: a lock ring (104, 204) for use in a first stack portion of a mold stack, wherein the lock ring (104, 204) includes a tubular body (150, 250) that is configured to define a support interface in cooperation, in use, with a split insert (6, 106) of the first stack portion that is engageable therewith through which a compressive load is transferrable during molding of the preform, and wherein the support interface includes a support shelf that is defined, at least in part, on a first major promontory (152, 252) that juts out from a side of the tubular body (150, 250) and on a second major promontory (153, 253) that juts out from a side of the tubular body (150, 250), for supporting a bottom face of the split insert (6, 106), characterized in that the support shelf is further defined by a pair of minor promontories (157, 257) that span between the first major promontory (152, 252) and the second major promontory (153, 253), wherein the pair of minor promontories (157, 257) are relatively narrow in contrast to the first major promontory (152, 252) and the second major promontory (153, 253). a lock ring (104, 204) for use in a first stack portion of a mold stack, wherein the lock ring (104, 204) includes a tubular body (150, 250) that is configured to define a support interface in cooperation, in use, with a split insert (6, 106) of the first stack portion that is engageable therewith through which a compressive load is transferrable during molding of the preform, and wherein the support interface includes a support shelf that is defined, at least in part, on a first major promontory (152, 252) that juts out from a side of the tubular body (150, 250) and on a second major promontory (153, 253) that juts out from a side of the tubular body (150, 250), for supporting a bottom face of the split insert (6, 106), characterized in that the support shelf is further defined by a pair of minor promontories (157, 257) that span between the first major promontory (152, 252) and the second major promontory (153, 253), wherein the pair of minor promontories (157, 257) are relatively narrow in contrast to the first major promontory (152, 252) and the second major promontory (153, 253).
A method (300; 400) of health profile based elevator calls implemented by a system comprising at least one elevator (231; 232), the system being in communication with a mobile device of a user, the method (300; 400) comprising: determining, by the system, a distance (320; 420) between a lobby respective to the at least one elevator (231; 232) and the mobile device; acquiring, by the system, a health profile (330; 430) of the user from the mobile device, wherein the health profile comprises average user travel speed; determining, by the system, a travel time (340; 440) based on the distance and the health profile; and executing, by the system, an elevator call (350; 450) for the at least one elevator (231; 232) with respect to the travel time, characterized in that the system executes the elevator call (350; 450) after a call delay equal to the travel time minus a total between an elevator assignment time and an elevator travel time. determining, by the system, a distance (320; 420) between a lobby respective to the at least one elevator (231; 232) and the mobile device; acquiring, by the system, a health profile (330; 430) of the user from the mobile device, wherein the health profile comprises average user travel speed; determining, by the system, a travel time (340; 440) based on the distance and the health profile; and executing, by the system, an elevator call (350; 450) for the at least one elevator (231; 232) with respect to the travel time, characterized in that the system executes the elevator call (350; 450) after a call delay equal to the travel time minus a total between an elevator assignment time and an elevator travel time.
A process for the preparation of core-shell microcapsules comprising the following steps: a) dissolving at least one polyisocyanate having at least two isocyanate groups, in a perfume to form an oil phase; b) dispersing the oil phase obtained in step a) into an aqueous solution comprising an emulsifier to form an oil-in-water emulsion; c) adding to the oil-in-water emulsion obtained in step b) a polymeric cross-linker bearing amino groups with a molecular weight equal or higher than 2 000 g/mol, followed by a polyamine with a molecular weight lower than 250 g/mol to form a microcapsule slurry. characterized in that the polymeric cross-linker bearing amino groups is chosen from the group consisting of a polyvinylamine, a polyethyleneimine, a polyaminoethylacrylate and mixtures thereof. a) dissolving at least one polyisocyanate having at least two isocyanate groups, in a perfume to form an oil phase; b) dispersing the oil phase obtained in step a) into an aqueous solution comprising an emulsifier to form an oil-in-water emulsion; c) adding to the oil-in-water emulsion obtained in step b) a polymeric cross-linker bearing amino groups with a molecular weight equal or higher than 2 000 g/mol, followed by a polyamine with a molecular weight lower than 250 g/mol to form a microcapsule slurry.
A silicon wafer cleaning method, performed after mirror-polishing of the surface of the silicon wafer, comprising: a first cleaning process, in which, after completion of said mirror polishing, a non-ionic surfactant aqueous solution is heated to a temperature of 80 to 95°C and the silicon wafer is immersed in the non-ionic surfactant aqueous solution; a second cleaning process, in which the silicon wafer, after completion of said first cleaning process, is immersed in a dissolved-ozone aqueous solution; and, a third cleaning process, in which the silicon wafer, after completion of said second cleaning process, is immersed in an aqueous solution containing ammonia and hydrogen peroxide; and wherein said first cleaning process through third cleaning process are performed in succession, in this order, without performing rinsing using pure water between each of the processes from said first cleaning process through third cleaning process; the surfactant concentration in the non-ionic surfactant aqueous solution used in said first cleaning process is from 0.001 to 10 weight percent; and in the first cleaning process, the time of immersion of the silicon wafer in the non-ionic surfactant aqueous solution is from 1 to 10 minutes. a first cleaning process, in which, after completion of said mirror polishing, a non-ionic surfactant aqueous solution is heated to a temperature of 80 to 95°C and the silicon wafer is immersed in the non-ionic surfactant aqueous solution; a second cleaning process, in which the silicon wafer, after completion of said first cleaning process, is immersed in a dissolved-ozone aqueous solution; and, a third cleaning process, in which the silicon wafer, after completion of said second cleaning process, is immersed in an aqueous solution containing ammonia and hydrogen peroxide; and wherein said first cleaning process through third cleaning process are performed in succession, in this order, without performing rinsing using pure water between each of the processes from said first cleaning process through third cleaning process; the surfactant concentration in the non-ionic surfactant aqueous solution used in said first cleaning process is from 0.001 to 10 weight percent; and in the first cleaning process, the time of immersion of the silicon wafer in the non-ionic surfactant aqueous solution is from 1 to 10 minutes.
An apparatus for ultrasonic welding, comprising - a sonotrode having an elongate sonotrode head, realized on which there is an elongate welding surface oriented in the longitudinal direction of the sonotrode head, - at least two converters for exciting ultrasonic vibrations of the sonotrode in a direction of action, wherein the direction of action is preferably oriented substantially perpendicularly in relation to the longitudinal direction of the sonotrode head, - a reaction body as a reaction mass, characterized in that the at least two converters are arranged between the sonotrode and the reaction body. - a sonotrode having an elongate sonotrode head, realized on which there is an elongate welding surface oriented in the longitudinal direction of the sonotrode head, - at least two converters for exciting ultrasonic vibrations of the sonotrode in a direction of action, wherein the direction of action is preferably oriented substantially perpendicularly in relation to the longitudinal direction of the sonotrode head, - a reaction body as a reaction mass,
Linear compressor comprising an adapter device, a resilient member, a magnetic actuator and a reciprocating piston coupled to the resilient member by means of a rod or connecting rod, the compressor being capable of operating with the use of flat springs wherein said adapter device comprises: at least one support member cooperating with the resilient element by interference, characterized by said support member comprising a cylindrical part equipped with intermediate perimetrical projection, wherein said intermediate perimetrical projection configures a stop between said intermediate perimetrical projection and a distal end of the resilient member; at least one fastening element cooperating with the support member and the magnetic actuator, said fastening element being produced by electrically insulating and non-magnetic material and comprising, in a distal edge, several dividers having an adhesive material coating to provide the attachment between said fastening element and the magnetic actuator. at least one support member cooperating with the resilient element by interference, characterized by said support member comprising a cylindrical part equipped with intermediate perimetrical projection, wherein said intermediate perimetrical projection configures a stop between said intermediate perimetrical projection and a distal end of the resilient member; at least one fastening element cooperating with the support member and the magnetic actuator, said fastening element being produced by electrically insulating and non-magnetic material and comprising, in a distal edge, several dividers having an adhesive material coating to provide the attachment between said fastening element and the magnetic actuator.
A planar lighting device (2; 4; 6) for an autonomously or semi-autonomously drivable motor vehicle, characterized in that the planar lighting device (2; 4; 6) comprises a common planar carrier and a plurality of at least 20x30 pixels which are arranged in a matrix on the common planar carrier, each one of the pixels comprising: a first individually controllable semiconductor light source element for providing a communication function, which is designed to emit turquoise-colored light at a wavelength in the wavelength range of between 500-520 nm or cyan-colored light at a wavelength in the wavelength range of between 470-500 nm, indicating the autonomous or semi-autonomous driving state of the motor vehicle, and a second individually controllable semiconductor light source element (212; 214) for providing a lighting function, which is designed to emit red or yellow light, a lighting function being an indicator light function or a tail light and/or braking function. a first individually controllable semiconductor light source element for providing a communication function, which is designed to emit turquoise-colored light at a wavelength in the wavelength range of between 500-520 nm or cyan-colored light at a wavelength in the wavelength range of between 470-500 nm, indicating the autonomous or semi-autonomous driving state of the motor vehicle, and a second individually controllable semiconductor light source element (212; 214) for providing a lighting function, which is designed to emit red or yellow light, a lighting function being an indicator light function or a tail light and/or braking function.
A self-adhesive dental composite resin comprising: an asymmetric acrylamide-methacrylic acid ester compound (a); an acid group-containing (meth)acrylic polymerizable monomer (b); a hydrophobic crosslinkable polymerizable monomer (c); a photopolymerization initiator (d); and a filler (e), wherein the asymmetric acrylamide-methacrylic acid ester compound (a) is represented by the following general formula:, where X is an optionally substituted, linear or branched C 1 to C 6 aliphatic group or an optionally substituted aromatic group, the aliphatic group is optionally interrupted by at least one linking group selected from the group consisting of -O-, -S-, -CO-, -O-CO-, -NR 1-, -CO-NR 1 -, -NR 1 -CO-, -COO-NR 1 -, -OCO-NR 1 -, and -NR 1 -CONR 1 -, and R 1 is a hydrogen atom or an optionally substituted, linear or branched C 1 to C 6 aliphatic group. an asymmetric acrylamide-methacrylic acid ester compound (a); an acid group-containing (meth)acrylic polymerizable monomer (b); a hydrophobic crosslinkable polymerizable monomer (c); a photopolymerization initiator (d); and a filler (e), wherein the asymmetric acrylamide-methacrylic acid ester compound (a) is represented by the following general formula:, where X is an optionally substituted, linear or branched C 1 to C 6 aliphatic group or an optionally substituted aromatic group, the aliphatic group is optionally interrupted by at least one linking group selected from the group consisting of -O-, -S-, -CO-, -O-CO-, -NR 1-, -CO-NR 1 -, -NR 1 -CO-, -COO-NR 1 -, -OCO-NR 1 -, and -NR 1 -CONR 1 -, and R 1 is a hydrogen atom or an optionally substituted, linear or branched C 1 to C 6 aliphatic group.
Support assembly for attaching solar modules to a roof, a surface, or a like support structure, having a support profile which has two different longitudinal sides and by way of which at least two solar modules (11, 12) are connectable by way of the two different longitudinal sides of said support profile, wherein the two solar modules (11, 12) are disposable in one plane, and wherein a receptacle is provided on the support profile on the one longitudinal side of the latter, a free end of the at least one first solar module being receivable in said receptacle, wherein the support assembly has a separate profiled element which in a use position is connectable without screws to the support profile and in said use position conjointly with a portion of the support profile on the other longitudinal side of the latter forms a receptacle for a free end of the second of the at least two solar modules (11, 12), and wherein the portion of the support profile is provided as a profiled piece which has at least one flange face and/or leg face which faces the second solar module and on which the free end of said solar module is able to be placed so as to be directly or indirectly supported, wherein the profiled element is provided as a C-profile or a U-profile having legs of equal or unequal length, said profiled element in the use position encompassing the free end of the second solar module and herein by way of one leg of said profiled element engaging behind a flange of the profiled piece in such a manner that the leg of the profiled element conjointly with the flange of the profiled piece as well as with a face of the support profile that is adjacent to the flange forming at least in portions a form-fitting connection.
A system for detecting a contaminant in a layer of a material positioned in a location, wherein either a single composition or two different compositions, one of which is a contaminant, can be present in the layer of the material, the system comprising: a light source directed to heat the layer of the material positioned in the location, an infrared camera positioned aligned with the location to receive electromagnetic thermal radiation energy from the layer of the material in the location, and an optical filter positioned aligned with the infrared camera and positioned between the infrared camera and the location, wherein the optical filter is configured to filter electromagnetic radiation energy of the light beam emitted from the light source and reflected by the material, and characterised in that the optical filter is configured to filter thermal electromagnetic radiation energy exclusive of a peak thermal wavelength (λ max) of one of the two compositions. a light source directed to heat the layer of the material positioned in the location, an infrared camera positioned aligned with the location to receive electromagnetic thermal radiation energy from the layer of the material in the location, and an optical filter positioned aligned with the infrared camera and positioned between the infrared camera and the location, wherein the optical filter is configured to filter electromagnetic radiation energy of the light beam emitted from the light source and reflected by the material, and characterised in that the optical filter is configured to filter thermal electromagnetic radiation energy exclusive of a peak thermal wavelength (λ max) of one of the two compositions.
A developing device (105E; 4; 40) for developing an electrostatic latent image on an image bearing member (1; 102), comprising: a developer bearing member (5; 302) to bear a developer including a transparent toner and a magnetic carrier to develop the electrostatic latent image on the image bearing member (1; 102) with the transparent toner at a development region in which the developer bearing member (5; 302) is opposed to the image bearing member (1; 102), wherein the transparent toner includes a resin and a lubricant, and has a viscoelastic property such that a loss tangent (tan δ), which is defined as a ratio (G"/G') of loss modulus (G") to storage modulus (G'), has a peak at a temperature of from 80°C to 160°C and the peak has a height of not less than 3; a developer supplying passage (9; 304P) having a developer supplying member (8; 304) to feed the developer in a first direction parallel to an axial direction of the developer bearing member (5; 302) to supply the developer to the developer bearing member (5; 302); and a developer feeding passage (7, 10; 305P) having a developer feeding member (6, 11; 305) to feed at least the developer, which has passed through the development region and is fed to the developer feeding passage (7, 10; 305P), in a second direction parallel to the first direction, wherein the developer feeding passage (7, 10; 305P) is separated with a partition (133, 134; 306) from the developer supplying passage (9; 304P) at least at a central portion thereof in the first and second directions, wherein the transparent toner is contained in the developing device (105E; 4; 40). a developer bearing member (5; 302) to bear a developer including a transparent toner and a magnetic carrier to develop the electrostatic latent image on the image bearing member (1; 102) with the transparent toner at a development region in which the developer bearing member (5; 302) is opposed to the image bearing member (1; 102), wherein the transparent toner includes a resin and a lubricant, and has a viscoelastic property such that a loss tangent (tan δ), which is defined as a ratio (G"/G') of loss modulus (G") to storage modulus (G'), has a peak at a temperature of from 80°C to 160°C and the peak has a height of not less than 3; a developer supplying passage (9; 304P) having a developer supplying member (8; 304) to feed the developer in a first direction parallel to an axial direction of the developer bearing member (5; 302) to supply the developer to the developer bearing member (5; 302); and a developer feeding passage (7, 10; 305P) having a developer feeding member (6, 11; 305) to feed at least the developer, which has passed through the development region and is fed to the developer feeding passage (7, 10; 305P), in a second direction parallel to the first direction, wherein the developer feeding passage (7, 10; 305P) is separated with a partition (133, 134; 306) from the developer supplying passage (9; 304P) at least at a central portion thereof in the first and second directions, wherein the transparent toner is contained in the developing device (105E; 4; 40).
Use of a cardiac fibroblast expressing VCAM-1 protein for proliferating of cardiac cells in vitro, wherein the cardiac fibroblast expressing VCAM-1 protein comprises a cardiac fibroblast sorted as a cardiac fibroblast expressing VCAM-1 protein by using a known cell sorting method, and the fibroblast excludes a fibroblast that is in the middle of differentiation or a maturation stage and cannot be identified as a fibroblast.
A pressure-accumulation dispenser that pressurizes and injects liquid in a cylinder from a nozzle portion to outside by sliding a piston portion in the cylinder up and down with rotation of a trigger, the pressure-accumulation dispenser comprising a pressure-accumulation giving valve in the piston portion characterized in that the pressure-accumulation giving valve is formed of an insertion valve seat, a piston valve that abuts on or is isolated from the insertion valve seat, a spring body that presses the piston valve onto the insertion valve seat, and a piston cover mounted on the insertion valve seat through press-fit to accommodate the piston valve and the spring body.
A composition comprising: (a) a first intact, bacterially derived minicell that comprises a functional nucleic acid molecule; (b) a second intact, bacterially derived minicell that is separate from the first minicell and that comprises a cancer chemotherapy agent; and (c) a pharmaceutically acceptable carrier for each of (a) and (b); wherein the functional nucleic acid molecule targets a transcript encoding a protein that contributes to drug resistance to the chemotherapy agent, apoptosis resistance, or neoplasticity, and wherein there is an absence from the minicell of a construct for in situ expression of the functional nucleic acid. (a) a first intact, bacterially derived minicell that comprises a functional nucleic acid molecule; (b) a second intact, bacterially derived minicell that is separate from the first minicell and that comprises a cancer chemotherapy agent; and (c) a pharmaceutically acceptable carrier for each of (a) and (b);