mhurhangee/ep-ind-claims huggingface dataset:
A sheet-fed offset printing press comprising: at least one printing unit (11, 12) each comprising: a sheet conveyance cylinder configured to hold and convey a sheet; and a printing device configured to print the sheet held by the sheet conveyance cylinder, and a sheet conveyance apparatus comprising: a transfer cylinder configured to hand over the sheet to the sheet conveyance cylinder; and a pressing cylinder contacting the transfer cylinder and configured to press the sheet held by the transfer cylinder against an outer surface of the transfer cylinder, wherein the pressing cylinder is configured to bring the sheet in tight contact with the outer surface of the transfer cylinder and to stretch the sheet, characterized in that the transfer cylinder is contacting the sheet conveyance cylinder of a printing unit of the at least one printing unit (11, 12) located on the most upstream side in a sheet conveyance direction, and the transfer cylinder has a same diameter as a diameter of the sheet conveyance cylinder. at least one printing unit (11, 12) each comprising: a sheet conveyance cylinder configured to hold and convey a sheet; and a printing device configured to print the sheet held by the sheet conveyance cylinder, and a sheet conveyance cylinder configured to hold and convey a sheet; and a printing device configured to print the sheet held by the sheet conveyance cylinder, and a sheet conveyance apparatus comprising: a transfer cylinder configured to hand over the sheet to the sheet conveyance cylinder; and a pressing cylinder contacting the transfer cylinder and configured to press the sheet held by the transfer cylinder against an outer surface of the transfer cylinder, a transfer cylinder configured to hand over the sheet to the sheet conveyance cylinder; and a pressing cylinder contacting the transfer cylinder and configured to press the sheet held by the transfer cylinder against an outer surface of the transfer cylinder, wherein the pressing cylinder is configured to bring the sheet in tight contact with the outer surface of the transfer cylinder and to stretch the sheet, characterized in that the transfer cylinder is contacting the sheet conveyance cylinder of a printing unit of the at least one printing unit (11, 12) located on the most upstream side in a sheet conveyance direction, and the transfer cylinder has a same diameter as a diameter of the sheet conveyance cylinder.
A method for detecting an obstruction within a field of view of a camera and in near-field compared to an effective focusing range of a camera from an image captured by the camera, said method comprising: analyzing the image, said analyzing of the image comprising: applying edge detection to the image; characterized by: identifying regions of the image lacking edge content; and, comparing a size of the identified regions to a threshold; and determining if there is an obstruction based upon a result of said comparison. analyzing the image, said analyzing of the image comprising: applying edge detection to the image; applying edge detection to the image; identifying regions of the image lacking edge content; and, comparing a size of the identified regions to a threshold; and determining if there is an obstruction based upon a result of said comparison.
Atomizer nozzle for dispensing an atomized fluid, said nozzle being shaped so as to define an inner distribution chamber, adapted to receive a diffuser insert, said nozzle comprising fixing means adapted to allow said nozzle to be fixed to a pipe or main connection, wherein, with said nozzle fixed to said pipe or main connection, said inner distribution chamber is in communication with insertion means of said pipe or main connection for inserting, into said inner distribution chamber, at least one liquid and at least one gas; wherein said nozzle comprises a nozzle body defining a first inner chamber, and a nozzle orifice defining a second inner chamber which opens into a dispensing orifice by means of which said second inner chamber is placed in communication with the exterior of said nozzle orifice; wherein said nozzle body and said nozzle orifice are adapted to be alternately rigidly connected to each other and disconnected from each other; wherein, with said nozzle orifice rigidly fixed to said nozzle body, said second inner chamber is in communication with said first inner chamber, thus defining said distribution chamber, wherein said nozzle body comprises a second portion which extends from a first portion and which, with said nozzle body rigidly fixed to said nozzle orifice, is housed in said second inner chamber of said nozzle body, wherein the outer surface of said second portion comprises a seventh substantially cylindrical end portion opposite to said first portion of said nozzle body, an eighth substantially cylindrical intermediate portion between said seventh end portion and said first portion of said nozzle body, a ninth substantially cylindrical portion which extends from said first portion of said nozzle body, and in that said seventh portion and said ninth portion have substantially coinciding diameters, lower than that of said eighth intermediate portion, characterized in that said eight portion and said ninth portion are connected by a tenth truncated-cone shaped portion, in that said seventh portion and said eighth portion are connected by an eleventh truncated-cone shaped portion and in that said tenth portion and said eleventh portion have opposite conicity.
A method for removing contaminants from a fluid stream, the method comprising contacting the fluid stream with a desulfurizing product which is a solid product comprising: a metal oxide composition that comprises a primary component, wherein the primary component comprises at least one metal oxide of the formula Me x O y • (H 2 0) z, wherein Me is selected from groups 4-12 of the periodic table of elements, O is oxygen; 1 < x < 3; 1≤ y ≤ 4, and 0 ≤ z ≤ 10; wherein the fluid stream is contacted with the agglomeration-resistant desulfurizing product for a period of time, at a pressure, and at a temperature sufficient to react at least a portion of the contaminants in the fluid stream with the metal oxide composition thereby removing contaminants from the fluid stream. characterised in that the solid product also comprises a polymeric crystallization inhibitor which comprises any of: a salt of acrylamido-methyl propane sulfonate/acrylic acid copolymer (AMPS/AA); a phosphonated maleic copolymer (PHOS/MA); a salt of polymaleic acid/acrylic acid/acrylamido-methyl propane sulfonate terpolymers (PMA/AMPS) or a polymer or copolymer comprising an acrylamide moiety, an acrylate moiety, an acrylic acid moiety, a quaternary ammonium salt moiety or combination thereof, a metal oxide composition that comprises a primary component, wherein the primary component comprises at least one metal oxide of the formula Me x O y • (H 2 0) z, wherein Me is selected from groups 4-12 of the periodic table of elements, O is oxygen; 1 < x < 3; 1≤ y ≤ 4, and 0 ≤ z ≤ 10; wherein the fluid stream is contacted with the agglomeration-resistant desulfurizing product for a period of time, at a pressure, and at a temperature sufficient to react at least a portion of the contaminants in the fluid stream with the metal oxide composition thereby removing contaminants from the fluid stream. characterised in that the solid product also comprises a polymeric crystallization inhibitor which comprises any of: a salt of acrylamido-methyl propane sulfonate/acrylic acid copolymer (AMPS/AA); a phosphonated maleic copolymer (PHOS/MA); a salt of polymaleic acid/acrylic acid/acrylamido-methyl propane sulfonate terpolymers (PMA/AMPS) or a polymer or copolymer comprising an acrylamide moiety, an acrylate moiety, an acrylic acid moiety, a quaternary ammonium salt moiety or combination thereof, a salt of acrylamido-methyl propane sulfonate/acrylic acid copolymer (AMPS/AA); a phosphonated maleic copolymer (PHOS/MA); a salt of polymaleic acid/acrylic acid/acrylamido-methyl propane sulfonate terpolymers (PMA/AMPS) or a polymer or copolymer comprising an acrylamide moiety, an acrylate moiety, an acrylic acid moiety, a quaternary ammonium salt moiety or combination thereof,
An item checking system, comprising an optoelectronic identification, OEID, read-write apparatus, an optoelectronic identification, OEID, tag, and a monitoring terminal wherein the optoelectronic identification, OEID, read-write apparatus is arranged on a light source in a designated space, and is configured to deliver a query instruction to an OEID tag arranged on an item in the designated space via a light signal transmitted by the light source, identify the item according to uplink data fed back by the OEID tag, and send an identification result to a monitoring terminal; characterized in that the OEID read-write apparatus is further configured to transmit light to charge the OEID tag or transmit pulsed light to the OEID tag to deliver corresponding data signals; wherein the OEID tag comprises a photocell, a light transmitter and an OEID chip, and the OEID tag is configured to send the uplink data to the OEID read-write apparatus under trigger of the query instruction; and the monitoring terminal is configured to obtain a checking result of the item in the designated space according to the identification result.
A lock cylinder comprising: a stator; a rotor mounted in the stator so as to be rotatable about a first axis of rotation; and a locking device mounted in the stator; wherein the locking device comprises a locking bolt (5, 5'), a driver cooperating with the locking bolt (5, 5'), and a drive device acting on the locking bolt (5, 5') via the driver, and wherein the locking bolt (5, 5') is linearly displaceable by the drive device along a locking direction into a locking position, in which a rotation of the rotor about the first axis of rotation is prevented, and along a release direction opposite to the locking direction into a release position, in which a rotation of the rotor about the first axis of rotation is possible, and is rotatable about a second axis of rotation, wherein the locking device further comprises at least one securing element which is configured such that a displacement of the locking bolt (5, 5') from the locking position into the release position can be prevented when the drive device is not actuated, characterized in that the locking bolt (5, 5') is transferable from the release position into the locking position via at least a first and a second intermediate position, wherein in the first intermediate position a rotation of the locking bolt (5, 5') and of the driver about the second axis of rotation is possible, and in the second intermediate position a rotation of the driver about the second axis of rotation is possible and rotation of the locking bolt (5, 5') about the second axis of rotation is impossible. a stator; a rotor mounted in the stator so as to be rotatable about a first axis of rotation; and a locking device mounted in the stator; wherein the locking device comprises a locking bolt (5, 5'), a driver cooperating with the locking bolt (5, 5'), and a drive device acting on the locking bolt (5, 5') via the driver, and wherein the locking bolt (5, 5') is linearly displaceable by the drive device along a locking direction into a locking position, in which a rotation of the rotor about the first axis of rotation is prevented, and along a release direction opposite to the locking direction into a release position, in which a rotation of the rotor about the first axis of rotation is possible, and is rotatable about a second axis of rotation, wherein the locking device further comprises at least one securing element which is configured such that a displacement of the locking bolt (5, 5') from the locking position into the release position can be prevented when the drive device is not actuated, characterized in that the locking bolt (5, 5') is transferable from the release position into the locking position via at least a first and a second intermediate position, wherein in the first intermediate position a rotation of the locking bolt (5, 5') and of the driver about the second axis of rotation is possible, and in the second intermediate position a rotation of the driver about the second axis of rotation is possible and rotation of the locking bolt (5, 5') about the second axis of rotation is impossible.
A method for manufacturing a shaft assembly of a driveline system, the driveline system further including a first driveline component and a second driveline component, the shaft assembly being adapted to transmit torque between the first driveline component and the second driveline component, the method comprising: providing a hollow shaft member; tuning a mass and a stiffness of at least one liner; and inserting the at least one liner into the shaft member; wherein the at least one liner is a tuned resistive absorber for attenuating shell mode vibrations and wherein the at least one liner is a tuned reactive absorber for attenuating bending mode vibrations, wherein the at least one liner includes a structural portion and at least one resilient member that is coupled to the structural portion, the at least one liner being inserted to the shaft member such that a wall of the shaft member contacts the at least one resilient member, characterized in that the at least one resilient member includes a plurality of fingers, the fingers being disposed between the structural portion and the shaft member. providing a hollow shaft member; tuning a mass and a stiffness of at least one liner; and inserting the at least one liner into the shaft member; wherein the at least one liner is a tuned resistive absorber for attenuating shell mode vibrations and wherein the at least one liner is a tuned reactive absorber for attenuating bending mode vibrations, wherein the at least one liner includes a structural portion and at least one resilient member that is coupled to the structural portion, the at least one liner being inserted to the shaft member such that a wall of the shaft member contacts the at least one resilient member, characterized in that the at least one resilient member includes a plurality of fingers, the fingers being disposed between the structural portion and the shaft member.
Fluidizing apparatus for the treatment of particulate material, having a fluidization unit which has a longitudinal axis (X-X) and which has a perforated distributor plate which divides the fluidization unit into a distributor chamber and a fluidization chamber arranged above said distributor chamber, wherein the fluidization chamber comprises a material inlet for the material to be treated and the distributor chamber comprises a material discharge which has a material outlet for the treated material (M') with a material outlet surface, a lower and an upper edge (23a, 23b), and a shut-off device closes the material discharge, and wherein the distributor chamber comprises a fluid inlet and the fluidization chamber comprises a fluid outlet for a process gas flowing from the fluid inlet through the perforated distributor plate to the fluid outlet and fluidizing the material in the fluidization chamber, characterized in that the distributor chamber comprises a web arranged in the region of the material outlet surface and extending at least partially in the circumferential direction and the distributor plate is arranged movably relative to the fluidization unit, wherein the distributor plate can be moved into an emptying position through a movement of the distributor plate relative to the fluidization unit, wherein the distributor plate is arranged on the web in the emptying state, in such a manner that a fluid connection is created between the material outlet arranged in the distributor chamber and past the fluidization chamber on the distributor plate, in order to discharge treated material (M') from the fluidization unit, and wherein in the emptying state the shut-off device opens up the material discharge in the emptying position of the distributor plate in the emptying state.
A connection, having a shaft, at least partially inserted in a hollow shaft, and a ring part, namely of a clamping ring, placed onto the hollow shaft, wherein the ring part is axially bounded by a collar, formed on the hollow shaft and in particular radially projecting, and/or the ring part rests against a or the collar, formed on the hollow shaft and in particular radially projecting, wherein the hollow shaft has slots, in particular axial slots, spaced apart from the collar, wherein the ring part has a bevel (3, 80, 100) at its inside and/or at its ring opening and/or at its axial end region facing the collar, so that the inner diameter of the ring part is greater in the axial region covered by the bevel (3, 80, 100) than the inner diameter in that axial region in which the ring part contacts the hollow shaft, characterised in that an odd number of radially directed thickened portions are formed on the ring part, so that the outer circumference of the ring part is non-round, wherein the number is three or greater than three, wherein the thickened portions and/or the centres of gravity or central points, fixed in the circumferential direction, of the thickened portions are regularly spaced apart from one another in the circumferential direction.
An operation state monitoring apparatus for monitoring, based on learning data, an operation state of a facility at which a first product and a second product are selectively produced, characterized in that the operation state monitoring apparatus includes: a reference learning data storage part that stores, as reference learning data, measurement data that represents a normal operation state of the facility when the first product is produced; a transformation model storage part that stores a transformation model that is set based on a difference between a normal operation state of the facility when the first product is produced and a normal operation state of the facility when the second product is produced, and an individual learning data generation means configured to transform the reference learning data stored in the reference learning data storage part based on the transformation model stored in the transformation model storage part, and to generate individual learning data corresponding to the second product, when an input indicating that the second product is to be produced at the facility is received by the operation state monitoring apparatus, wherein the reference learning data storage part stores learning data generated for each of multiple control parameters defined for producing the first product, and the individual learning data generation means is configured to define the same control parameters as for the first product also for the second product, and to generate the individual learning data corresponding to the second product, for each of the defined multiple control parameters. a reference learning data storage part that stores, as reference learning data, measurement data that represents a normal operation state of the facility when the first product is produced; a transformation model storage part that stores a transformation model that is set based on a difference between a normal operation state of the facility when the first product is produced and a normal operation state of the facility when the second product is produced, and an individual learning data generation means configured to transform the reference learning data stored in the reference learning data storage part based on the transformation model stored in the transformation model storage part, and to generate individual learning data corresponding to the second product, when an input indicating that the second product is to be produced at the facility is received by the operation state monitoring apparatus, wherein the reference learning data storage part stores learning data generated for each of multiple control parameters defined for producing the first product, and the individual learning data generation means is configured to define the same control parameters as for the first product also for the second product, and to generate the individual learning data corresponding to the second product, for each of the defined multiple control parameters.
A process of making a pemetrexed disodium comprising: a) reacting a compound of formula II or an acid salt thereof, wherein each of R 1 and R 2 is independently a C1-C6 alkyl group, with sodium hydroxide solution at a temperature of no more than 10°C to obtain a first mixture; b1) adding an organic anti-solvent to the first mixture of step a) to form a second mixture; b2) adjusting the pH of the second mixture within a range from about 6.5 to about 9.5 to form a third mixture; b3) separating the pemetrexed disodium from the third mixture. a) reacting a compound of formula II or an acid salt thereof, wherein each of R 1 and R 2 is independently a C1-C6 alkyl group, with sodium hydroxide solution at a temperature of no more than 10°C to obtain a first mixture; b1) adding an organic anti-solvent to the first mixture of step a) to form a second mixture; b2) adjusting the pH of the second mixture within a range from about 6.5 to about 9.5 to form a third mixture; b3) separating the pemetrexed disodium from the third mixture.
A process for compressing a hydrogen-sulfide-comprising gas stream, which comprises (i) compressing the hydrogen-sulfide-comprising gas stream in a compressor, (ii) flushing the compressor with a mixture comprising a) 10 to 98% by weight of dialkyl polysulfides; b) 1.9 to 80% by weight of dialkyl disulfides and c) 0.1 to 10% by weight of at least one amine, wherein the sum of dialkyl polysulfides, dialkyl disulfides and at least one amine totals 100% by weight. (i) compressing the hydrogen-sulfide-comprising gas stream in a compressor, (ii) flushing the compressor with a mixture comprising a) 10 to 98% by weight of dialkyl polysulfides; b) 1.9 to 80% by weight of dialkyl disulfides and c) 0.1 to 10% by weight of at least one amine, a) 10 to 98% by weight of dialkyl polysulfides; b) 1.9 to 80% by weight of dialkyl disulfides and c) 0.1 to 10% by weight of at least one amine,
A light guide assembly for an electron microscope system, comprising a mirror that includes a pressure limiting aperture through which an electron beam from an electron source passes, wherein the mirror is configured to reflect light from the sample to a light detector, to collect back scattered electrons and secondary electrons from the sample, and to convert the back scattered electrons to secondary electrons, and one or more detectors (315,330) configured to collect the converted secondary electrons.