mhurhangee/ep-ind-claims huggingface dataset:
Oval printing machine comprising: a) a) a guide, defining a closed path; b) one or more supports (20a-20d) movable on said guide, said one or more supports (20a-20d) being adapted to support items to be printed; c) one or more operating stations (30a-30c) positioned along said path for processing said items to be printed, said one or more operating stations (30a-30c) comprising at least one silkscreen printing station; d) at least one digital printing station positioned along said path, for printing the items supported by said one or more supports (20a-20d), wherein said digital printing station comprises a structure substantially integral with said guide, and a first printing element associated with said structure and movable relative to said structure, wherein said first printing element is movable in a first direction that is transversal to a second direction in which said guide extends at said digital printing station, wherein said first printing element is movable between a first position, in which it executes a printing operation at a first tract of said guide, and a second position, in which it executes a printing operation at a second tract of said guide, wherein said first tract is substantially parallel to said second tract, wherein said one or more supports (20a-20d) are moved on said first tract in a first direction, wherein said one or more supports (20a-20d) are moved on said second tract in a second direction, opposite to said first direction. a) a) a guide, defining a closed path; b) one or more supports (20a-20d) movable on said guide, said one or more supports (20a-20d) being adapted to support items to be printed; c) one or more operating stations (30a-30c) positioned along said path for processing said items to be printed, said one or more operating stations (30a-30c) comprising at least one silkscreen printing station; d) at least one digital printing station positioned along said path, for printing the items supported by said one or more supports (20a-20d), wherein said digital printing station comprises a structure substantially integral with said guide, and a first printing element associated with said structure and movable relative to said structure, wherein said first printing element is movable in a first direction that is transversal to a second direction in which said guide extends at said digital printing station, wherein said first printing element is movable between a first position, in which it executes a printing operation at a first tract of said guide, and a second position, in which it executes a printing operation at a second tract of said guide, wherein said first tract is substantially parallel to said second tract, wherein said one or more supports (20a-20d) are moved on said first tract in a first direction, wherein said one or more supports (20a-20d) are moved on said second tract in a second direction, opposite to said first direction.
A fluid ejection system, comprising: a fluid ejection device including: a fluid supply chamber to store fluid; a plurality of ejection chambers (11, 11a) including nozzles (12, 12a) and corresponding ejection members to selectively eject the fluid through the respective nozzles; a channel to establish fluid communication between the fluid supply chamber and the ejection chambers (11, 11a), at least one of the ejection chambers (11, 11a) being a test chamber having a nozzle with a diameter greater in size than diameters of the nozzles corresponding to the non-test ejection chambers; a pressure sensor unit having a sensor plate configured to output voltage values corresponding to a resistance of fluid in at least the test chamber between the sensor plate and a grounding member, to periodically detect the presence of and/or absence of fluid through the sensor plate; and a converter module configured to output count values corresponding to the voltage values output by the pressure sensor unit; and a determination module configured to determine a supply condition based on the count values output by the converter module. a fluid supply chamber to store fluid; a plurality of ejection chambers (11, 11a) including nozzles (12, 12a) and corresponding ejection members to selectively eject the fluid through the respective nozzles; a channel to establish fluid communication between the fluid supply chamber and the ejection chambers (11, 11a), at least one of the ejection chambers (11, 11a) being a test chamber having a nozzle with a diameter greater in size than diameters of the nozzles corresponding to the non-test ejection chambers; a pressure sensor unit having a sensor plate configured to output voltage values corresponding to a resistance of fluid in at least the test chamber between the sensor plate and a grounding member, to periodically detect the presence of and/or absence of fluid through the sensor plate; and a converter module configured to output count values corresponding to the voltage values output by the pressure sensor unit; and a determination module configured to determine a supply condition based on the count values output by the converter module.
A crystal form II of [4-[2-dimethylamino-1-(1-hydroxycyclohexyl)ethyl]phenyl 4-methylbenzoate hydrochloride], characterized in that the crystal form II exhibits a powder X-ray diffraction pattern obtained using Cu K α radiation and having characteristic peaks expressed in degrees 2θ (±0.2° 2θ) at 5.899, 11.799, 14.481, 15.440, 18.420, 19.800 and 23.620.
A composition for use in a method of treatment by inducing tolerance in a subject, the method comprising reducing the number or activity of antigen-specific CD4+ and CD8+ T cells and inducing FoxP3 expression, the composition comprising polymeric nanocarriers coupled to: (a) rapamycin or a rapamycin analog; and (b) MHC Class I-restricted and/or MHC Class II-restricted epitopes of an antigen; wherein the loads of: (i) the rapamycin or rapamycin analog; and (ii) the epitopes, on average across the nanocarriers, are each between 1% and 10% (weight/weight), and wherein the nanocarriers comprise PLA-PEG and PLGA.
A composition comprising: a plurality of quantum dots; and a polymeric ligand, wherein the ligand is where m and n are positive integers, wherein: (i) the ratio of m:n is about 3:100 and the formula weight of the ligand is about 21,000; or (ii) the ratio of m:n is about 1:100 and the formula weight of the ligand is about 20,000; or (iii) the ratio of m:n is about 2:100 and the formula weight of the ligand is about 45,000; or (iv) the ratio of m:n is about 0.5:100 and the formula weight of the ligand is about 70,000. a plurality of quantum dots; and a polymeric ligand, wherein the ligand is where m and n are positive integers, wherein: (i) the ratio of m:n is about 3:100 and the formula weight of the ligand is about 21,000; or (ii) the ratio of m:n is about 1:100 and the formula weight of the ligand is about 20,000; or (iii) the ratio of m:n is about 2:100 and the formula weight of the ligand is about 45,000; or (iv) the ratio of m:n is about 0.5:100 and the formula weight of the ligand is about 70,000. (i) the ratio of m:n is about 3:100 and the formula weight of the ligand is about 21,000; or (ii) the ratio of m:n is about 1:100 and the formula weight of the ligand is about 20,000; or (iii) the ratio of m:n is about 2:100 and the formula weight of the ligand is about 45,000; or (iv) the ratio of m:n is about 0.5:100 and the formula weight of the ligand is about 70,000.
Machine having a main wheel, which can be rotated in a driven manner, for receiving multiple longitudinal profiles, having an apparatus for producing a metal mesh reinforcement from multiple metal profiles, comprising multiple longitudinal profiles and one winding profile, wherein the apparatus comprises a welding unit for welding a longitudinal profile to a winding profile at a connecting point of the two metal profiles and a winding profile guide that conducts the winding profile, which can be guided up to the winding profile guide from a master of the winding profile, to the welding unit, characterized in that the winding profile guide has a contact side and a positioning side, wherein the contact side and the positioning side can be moved relative to one another, and wherein the contact side and the positioning side are matched to one another in such a way that a winding profile guided up between the contact side and the positioning side is forced into a centered position when the positioning side and the contact side are moved toward one another, wherein the positioning side has a depression which is matched to the winding profile and into which a longitudinal portion of a centered winding profile dips.
A joint for connecting a multi-hole flat pipe having a thickness T and a width W (W > T) and a cylindrical pipe to each other and that allows a CO 2 refrigerant to pass therethrough, wherein, when a thickness direction and a width direction of the multi-hole flat pipe are respectively defined as a vertical direction and a horizontal direction of the joint, the joint includes a first connection portion that covers an outer side of an end portion of the multi-hole flat pipe, and a body that is continuous from the first connection portion, wherein an inside dimension (L 302) of the body in the vertical direction is larger than an inside dimension (L 301) of the first connection portion in the vertical direction, characterized in that, the joint further includes a reinforcement portion that increases a strength of the joint, and wherein the reinforcement portion is disposed in a refrigerant flow passage so as to extend in the vertical direction. wherein, when a thickness direction and a width direction of the multi-hole flat pipe are respectively defined as a vertical direction and a horizontal direction of the joint, the joint includes a first connection portion that covers an outer side of an end portion of the multi-hole flat pipe, and a body that is continuous from the first connection portion, a first connection portion that covers an outer side of an end portion of the multi-hole flat pipe, and a body that is continuous from the first connection portion, wherein an inside dimension (L 302) of the body in the vertical direction is larger than an inside dimension (L 301) of the first connection portion in the vertical direction, characterized in that, the joint further includes a reinforcement portion that increases a strength of the joint, and wherein the reinforcement portion is disposed in a refrigerant flow passage so as to extend in the vertical direction.
A system for use in particle collection and analysis, said system comprising: an enclosure configured to be attached to a particle-producing device, said enclosure including an inlet and an outlet including a flexible anti-static nozzle for extracting particles from enclosure; wherein the particle-producing device includes a location of particle generation and wherein said enclosure is configured to provide a substantially sealed volume around the location of particle generation when said enclosure is attached to the particle-producing device, a filter coupled to the inlet of said enclosure and configured to filter air directed to said enclosure through the inlet; a vacuum source in flow communication with the outlet of said enclosure to generate an aerosol stream from said enclosure to said vacuum source, wherein the aerosol stream includes particles produced by the particle producing device; and a sampling tower coupled between said vacuum source and said enclosure outlet, said sampling tower including at least one sampling nozzle extending into said sampling tower and configured for sampling the aerosol stream from said enclosure to said vacuum source. an enclosure configured to be attached to a particle-producing device, said enclosure including an inlet and an outlet including a flexible anti-static nozzle for extracting particles from enclosure; wherein the particle-producing device includes a location of particle generation and wherein said enclosure is configured to provide a substantially sealed volume around the location of particle generation when said enclosure is attached to the particle-producing device, a filter coupled to the inlet of said enclosure and configured to filter air directed to said enclosure through the inlet; a vacuum source in flow communication with the outlet of said enclosure to generate an aerosol stream from said enclosure to said vacuum source, wherein the aerosol stream includes particles produced by the particle producing device; and a sampling tower coupled between said vacuum source and said enclosure outlet, said sampling tower including at least one sampling nozzle extending into said sampling tower and configured for sampling the aerosol stream from said enclosure to said vacuum source.
A vehicular lamp comprising: an optical member (24; 224) having a reflective surface (24a; 224a) that reflects light from a light source; a heat radiating member (32; 332) configured to radiate heat generated by the light source; a fan (36; 336) configured to blow air to the heat radiating member (32; 332), a blowing mechanism (40; 332f) configured to lead air blown from the fan (36; 336) to the reflective surface (24a; 224a) of the optical member (24; 224), wherein: the heat radiating member (32; 332) has a mounting surface (32c; 332c) to which the light source is mounted; the fan (36; 336) is provided on a fan side of the heat radiating member (36; 336), the fan side of the heat radiating member (36; 336) being a opposite side of the heat radiating member (36; 336) from the mounting surface (32c; 332c); and the blowing mechanism (40; 332f) includes a vent that extends through the heat radiating member (36; 336) from the fan side of the heat radiating member (36; 336) to a mounting surface side of the heat radiating member (36; 336), characterized in that the vent is formed such that an open end of the vent on the mounting surface side is opposite to the reflective surface (24a; 224a). an optical member (24; 224) having a reflective surface (24a; 224a) that reflects light from a light source; a heat radiating member (32; 332) configured to radiate heat generated by the light source; a fan (36; 336) configured to blow air to the heat radiating member (32; 332), a blowing mechanism (40; 332f) configured to lead air blown from the fan (36; 336) to the reflective surface (24a; 224a) of the optical member (24; 224), wherein: the heat radiating member (32; 332) has a mounting surface (32c; 332c) to which the light source is mounted; the fan (36; 336) is provided on a fan side of the heat radiating member (36; 336), the fan side of the heat radiating member (36; 336) being a opposite side of the heat radiating member (36; 336) from the mounting surface (32c; 332c); and the blowing mechanism (40; 332f) includes a vent that extends through the heat radiating member (36; 336) from the fan side of the heat radiating member (36; 336) to a mounting surface side of the heat radiating member (36; 336), characterized in that the vent is formed such that an open end of the vent on the mounting surface side is opposite to the reflective surface (24a; 224a). the heat radiating member (32; 332) has a mounting surface (32c; 332c) to which the light source is mounted; the fan (36; 336) is provided on a fan side of the heat radiating member (36; 336), the fan side of the heat radiating member (36; 336) being a opposite side of the heat radiating member (36; 336) from the mounting surface (32c; 332c); and the blowing mechanism (40; 332f) includes a vent that extends through the heat radiating member (36; 336) from the fan side of the heat radiating member (36; 336) to a mounting surface side of the heat radiating member (36; 336), characterized in that the vent is formed such that an open end of the vent on the mounting surface side is opposite to the reflective surface (24a; 224a).
A method for producing a composite thermal insulator (1, 1a, 1b, 1c, 1d) including a vacuum thermal insulator (2, 12, 22, 32), the vacuum thermal insulator (2, 12, 22, 32) comprising a core (2a, 12a, 22a, 32a) and an enclosure (2b, 12b) configured to wrap the core (2a, 12a, 22a, 32a) and include a weld portion (5, 5b, 5c) which is configured to extend along an outer periphery of the core (2a, 12a, 22a, 32a) and at which portions of the enclosure (2b, 12b) are welded together, the vacuum thermal insulator (2, 12, 22, 32) having vacuum-sealed inside, the method comprising: - a first step of covering edges of the vacuum thermal insulator (2, 12, 22, 32) including the weld portion (5, 5b, 5c) with a first heat insulating foam (3, 3a, 3b, 3c, 3d) foamed in advance, and placing the first heat insulating foam (3, 3a, 3b, 3c, 3d) along the outer periphery of the core (2a, 12a, 22a, 32a); and - a second step of forming a second heat insulating foam (4, 4a, 4b, 4c, 4d) configured to cover the first heat insulating foam (3, 3a, 3b, 3c, 3d) placed in the first step and at least part of the vacuum thermal insulator (2, 12, 22, 32) by foaming. - a first step of covering edges of the vacuum thermal insulator (2, 12, 22, 32) including the weld portion (5, 5b, 5c) with a first heat insulating foam (3, 3a, 3b, 3c, 3d) foamed in advance, and placing the first heat insulating foam (3, 3a, 3b, 3c, 3d) along the outer periphery of the core (2a, 12a, 22a, 32a); and - a second step of forming a second heat insulating foam (4, 4a, 4b, 4c, 4d) configured to cover the first heat insulating foam (3, 3a, 3b, 3c, 3d) placed in the first step and at least part of the vacuum thermal insulator (2, 12, 22, 32) by foaming.
A method of operation of a network management system that is remotely connected to a radio equipment controller of a base station in a cellular communications network, the base station comprising a first and a second remote radio equipment, RRE, connected to the radio equipment controller, the method comprising: determining that there is a loss of communication between the radio equipment controller and the first remote radio equipment of the base station; causing the second remote radio equipment of the base station to create a local wireless hotspot; obtaining debug information for the first remote radio equipment obtained by the second remote radio equipment via the local wireless hotspot; and utilizing the debug information. determining that there is a loss of communication between the radio equipment controller and the first remote radio equipment of the base station; causing the second remote radio equipment of the base station to create a local wireless hotspot; obtaining debug information for the first remote radio equipment obtained by the second remote radio equipment via the local wireless hotspot; and utilizing the debug information.
A resin composition, comprising an ethylene-vinyl alcohol copolymer and a nonionic surfactant, wherein the ethylene-vinyl alcohol copolymer has an ethylene unit content of 15 to 60 mol%, and a saponification degree of 90 mol% or more; the ethylene-vinyl alcohol copolymer is contained as a major component; and the nonionic surfactant is contained at 3 to 400 ppm, whereby the ethylene content and the saponification degree are determined by 1 H -NMR spectroscopy using DMSO-d 6 as a solvent. wherein the ethylene-vinyl alcohol copolymer has an ethylene unit content of 15 to 60 mol%, and a saponification degree of 90 mol% or more; the ethylene-vinyl alcohol copolymer is contained as a major component; and the nonionic surfactant is contained at 3 to 400 ppm,
Assembly comprising: - a connecting device intended to electrically connect an electric machine and an electronic control device of the machine, - a sealing member intended to be added in a seal-tight manner to the connecting device, said sealing member comprising a housing including a position sensor intended to measure a position of the electric machine, said housing being configured so as to extend mainly along a longitudinal direction (XX') of the connecting device when said sealing member is added to the connecting device, the assembly being characterized in that the connecting device comprises at least one electrically conducting bar linking a first electrical terminal intended to be added to a terminal of the electric machine and a second electrical terminal intended to be added to a terminal of the electronic control device, said bar being coated with electrically insulating material. - a connecting device intended to electrically connect an electric machine and an electronic control device of the machine, - a sealing member intended to be added in a seal-tight manner to the connecting device,
Transmission actuator having precisely one motor, a spindle which is driven by the motor, a spindle nut which is operatively connected to the spindle, a shifting shaft which is operatively connected at least indirectly to the spindle nut, it being possible for the spindle nut to carry out a first and a second movement type from the group of rotational and translational movements, the first movement type being different from the second movement type, further comprising at least one gear mechanism, by means of which the second movement type of the spindle nut is converted into a shifting movement of the shifting shaft, characterized in that the at least one gear mechanism has the spindle nut, two first gearwheels (5a, 5b) and a shaft gear which is connected to the shifting shaft and, in a first axial positional region of the spindle nut, converts a translational movement of the spindle nut via precisely one of the first gearwheels (5a, 5b) into a rotational movement of the shifting shaft as a shifting movement.
A process for preparing a compound having the formula: comprising: reacting a substituted aryl boronic acid: with 3,5-dihalo-2-cyanopyridine: in the presence of a catalyst, wherein ring A is phenyl, R 10 represents from 1 to 5 independently chosen substitutions for hydrogen that is halogen, and each Z is independently chloro or bromo. reacting a substituted aryl boronic acid: with 3,5-dihalo-2-cyanopyridine: in the presence of a catalyst, wherein ring A is phenyl, R 10 represents from 1 to 5 independently chosen substitutions for hydrogen that is halogen, and each Z is independently chloro or bromo. ring A is phenyl, R 10 represents from 1 to 5 independently chosen substitutions for hydrogen that is halogen, and each Z is independently chloro or bromo.
A tensioning device for a seat belt, in particular in a motor vehicle, comprising a gas generator, a piston guided in a tube, which piston closes a pressurized space in the tube, which pressurized space can be applied with a pressure by the gas generator, which piston is drivable to a tensioning movement which is transferable to the seat belt using a mass body abutting on an end surface of the piston, wherein the pis-ton is formed two-part from a base body and an abutment part disposed on the side of the base body facing the mass body, wherein the end surface is disposed on the abutment part, and the abutment part has a greater strength than the base body, characterised in that the abutment part is formed from a metallic deep-drawn part.
Slip ring unit for an electrical machine, wherein the slip ring unit is provided for accommodating a carbon brush system, wherein the slip ring unit has at least one insulating segment (2,3,10) between slip rings (7,8,9) of the electrical machine, wherein the slip ring unit has boreholes (4,5,6) on the sides of the supports of the slip rings (7,8,9) for feeding through cooling air, characterised in that at least the outer-lying insulating segments (2,3,10) are formed such that they act as fans, wherein the insulating segments (2,3) acting as fans have shaped sections for cooling parts of the electrical machine, wherein the insulating segments (2,3) having the shaped sections are shaped from the insulating segment (2,3) as a fanwheel, wherein the insulating segments (2,3) having the shaped sections form a fan, which is provided to distribute a cooling air flow to the parts of the electrical machine to be cooled, and wherein the slip ring unit is configured as a slip ring unit with twin-flow cooling, in which at least the outer-lying insulating segments (2,3) are shaped as fans.