mhurhangee/ep-ind-claims huggingface dataset:
A fluid-operated drive, such as a pneumatic or hydraulic drive, for a field device (1, 1', 1", 1"') of a processing plant, such as a chemical plant, particularly a petrochemical plant, a power station, a brewery or the like, wherein the drive (9, 9', 9", 9"') is designed to set a control valve (3, 3', 3", 3"'), such as a regulating and/or safety valve, of the field device (1, 1', 1", 1"'), comprising a fluidically, such as pneumatically or hydraulically, operated basic drive (17, 17', 17", 17"') with a basic working chamber (19, 19', 19", 19"'), which is to be loaded fluidically and which is delimited by a basic drive housing part (23, 23', 23", 23'") and by a basic actuating piston (29, 29', 29", 29"'), which is guided in a fluid-tight manner in the basic drive housing part (23, 23', 23", 23"'), and at least one supplementary drive (35, 35', 35", 35"') with an supplementary working chamber (45, 45', 45", 45"'), which is to be loaded fluidically and is delimited by a supplementary drive housing part (43, 43', 43", 43"'), wherein the basic drive housing part (23, 23', 23", 23"') and the supplementary drive housing part (43, 43' 43", 43"') can be displaced in one another in accordance with a piston/chamber arrangement, so that the volume of the supplementary chamber (45, 45' 45", 45"') changes in the event of a relative movement of the drive housing parts (23, 23' 23", 23'", 43, 43' 43", 43"'), characterized in that a supplementary actuating rod (55, 55"), which is fastened to the supplementary drive housing part (43, 43"), extends in the interior of the supplementary drive housing part (43, 43") through a passage (57, 57") integrated in the basic drive housing part, wherein the supplementary actuating rod (55, 55") is guided in a fluid-tight, movable manner in the passage (57, 57") and/or has a stop end (61, 61"), which is situated in the basic working chamber (19, 19") and which can be brought into loose engagement with the basic actuating piston (29, 29") in order to transmit an supplementary actuating force of the supplementary drive (35, 35") in a driving manner.
Exhaust system component of an exhaust system for an internal combustion engine, in particular of a motor vehicle, said component comprising: - an inner pipe made of metal, which is exposed to exhaust gas during operation of the exhaust system - a housing made of plastics material, which encloses a working chamber, - at least one outer pipe made of metal, which comprises two end regions (7, 9), is attached to the inner pipe by the first end region thereof, is rigidly connected to the housing, and encloses an annular gap, which is formed radially between the inner pipe and the outer pipe, between the end regions (7, 9) of said outer pipe, characterised in that - the second end region of the outer pipe is rigidly connected to the housing, - the housing is moulded onto the outer pipe, - moulding contours are integrally formed on the second end region of the outer pipe, which contours form an interlocking connection with the moulded-on housing. - an inner pipe made of metal, which is exposed to exhaust gas during operation of the exhaust system - a housing made of plastics material, which encloses a working chamber, - at least one outer pipe made of metal, which comprises two end regions (7, 9), is attached to the inner pipe by the first end region thereof, is rigidly connected to the housing, and encloses an annular gap, which is formed radially between the inner pipe and the outer pipe, between the end regions (7, 9) of said outer pipe, characterised in that - the second end region of the outer pipe is rigidly connected to the housing, - the housing is moulded onto the outer pipe, - moulding contours are integrally formed on the second end region of the outer pipe, which contours form an interlocking connection with the moulded-on housing.
A rewinding machine comprising: a drawing assembly for feeding a ply; a winding assembly for winding the ply fed by the drawing assembly around a core on which the ply is to be wound, comprising a primary roller and a secondary roller rotating in contact with the core on which the ply is being wound, and a channel for passage of the core delimited by a bottom chute and by a sector of the surface of the primary roller that, during winding, is in contact with the core; a core-change assembly for expelling from the machine a core on which the ply has been wound, or log, formed at the end of a winding cycle and inserting a new core on which the ply is to be wound; means for interrupting the continuity of the ply at the end of a winding cycle; and means for winding a flap for drawing the ply onto the new core at start of a new winding cycle, said rewinding machine being characterized in that said interruption means are operative upstream of introduction of the new core into said channel and comprise a dispenser of pressurized air for sending a jet of pressurized air onto the ply. a drawing assembly for feeding a ply; a winding assembly for winding the ply fed by the drawing assembly around a core on which the ply is to be wound, comprising a primary roller and a secondary roller rotating in contact with the core on which the ply is being wound, and a channel for passage of the core delimited by a bottom chute and by a sector of the surface of the primary roller that, during winding, is in contact with the core; a core-change assembly for expelling from the machine a core on which the ply has been wound, or log, formed at the end of a winding cycle and inserting a new core on which the ply is to be wound; means for interrupting the continuity of the ply at the end of a winding cycle; and means for winding a flap for drawing the ply onto the new core at start of a new winding cycle,
A rotary shaft device for a vertical shaft fluid power generator, the rotary shaft device comprising: a shaft body; and a support body configured to rotatably support the shaft body via a bearing; wherein, as the bearing, double row angular bearings (35, 36) are installed, wherein the shaft body has double row ball rolling grooves formed in an outer circumferential surface thereof, in which rolling elements of the angular bearings (35, 36) roll, corresponding to the angular bearings (35, 36), and wherein each of the ball rolling grooves is formed in a Gothic arch shape having a first groove surface formed at one side in an axial direction of the shaft body with reference to a groove center, and a second groove surface formed at the other side in the axial direction. a shaft body; and a support body configured to rotatably support the shaft body via a bearing; wherein, as the bearing, double row angular bearings (35, 36) are installed, wherein the shaft body has double row ball rolling grooves formed in an outer circumferential surface thereof, in which rolling elements of the angular bearings (35, 36) roll, corresponding to the angular bearings (35, 36), and wherein each of the ball rolling grooves is formed in a Gothic arch shape having a first groove surface formed at one side in an axial direction of the shaft body with reference to a groove center, and a second groove surface formed at the other side in the axial direction.
An abnormal power supply voltage detection device (F1-1) comprising: a plurality of core power supply areas (F1-8-1,.., F1-8-4) connected by a first power supply voltage line (F1-9-A, F1-9-B) and a second power supply voltage line (F1-10) and an abnormal voltage output unit (F1-3) wherein at least one of the plurality of core power supply areas has an abnormal voltage detection unit (F1-2-1,..,F1-2-3), characterised in that the abnormal voltage detection unit is configured to monitor the voltage in the other core power supply areas through the first power supply voltage line (F1-9-A, F1-9-B), and upon detection of an abnormal voltage to transmit an abnormal voltage detection signal to the abnormal voltage output unit (F1-3) through the second power supply voltage line (F1-10). a plurality of core power supply areas (F1-8-1,.., F1-8-4) connected by a first power supply voltage line (F1-9-A, F1-9-B) and a second power supply voltage line (F1-10) and an abnormal voltage output unit (F1-3) wherein at least one of the plurality of core power supply areas has an abnormal voltage detection unit (F1-2-1,..,F1-2-3), characterised in that the abnormal voltage detection unit is configured to monitor the voltage in the other core power supply areas through the first power supply voltage line (F1-9-A, F1-9-B), and upon detection of an abnormal voltage to transmit an abnormal voltage detection signal to the abnormal voltage output unit (F1-3) through the second power supply voltage line (F1-10).
Method for printing a substrate using an aerosol jet comprising metallic nanoparticles, the method comprising implementation of the following successive steps: a) a step to prepare a solution comprising said metallic nanoparticles, using a solution comprising at least one metallic precursor of said metallic nanoparticles, and at least one reducing agent of the precursor(s), b) a step to generate an aerosol containing metallic nanoparticles, by continuous feed of an aerosol generation device with the solution obtained in step a), c) a step to print the substrate using a print head continuously supplied with the aerosol obtained in step b). a) a step to prepare a solution comprising said metallic nanoparticles, using a solution comprising at least one metallic precursor of said metallic nanoparticles, and at least one reducing agent of the precursor(s), b) a step to generate an aerosol containing metallic nanoparticles, by continuous feed of an aerosol generation device with the solution obtained in step a), c) a step to print the substrate using a print head continuously supplied with the aerosol obtained in step b).
A computer-implemented method for generating a digital document on a receiving device comprising: receiving initial instructional data that contains at least a first short code; forwarding the first short code as a key to a short code translation server to obtain expanded data as a first longer character sequence; forwarding a second short code that may be embedded in the expanded data to the short code translation server to obtain additional data as a second longer character sequence; processing the expanded data and any resulting additional data to obtain presentation data, and to obtain locator data that may be embedded therein; wherein the presentation data embedded in the expanded data and any resulting additional data contains presentation attribute data that defines at least one one or more of layout, style or additional content of the digital document; from the presentation data, determining selecting a pre-defined template form for the digital document; when a component of the document template is a web element of a web source, retrieving the web element using the locator data; generating the digital document by combining (a) any result of retrieving the web element using the locator data, (b) the presentation data that was obtained from the expanded data and any additional data and (c) the pre-defined template form, with the pre-defined template form providing further structure to the digital document; and presenting the digital document on the receiving device. receiving initial instructional data that contains at least a first short code; forwarding the first short code as a key to a short code translation server to obtain expanded data as a first longer character sequence; forwarding a second short code that may be embedded in the expanded data to the short code translation server to obtain additional data as a second longer character sequence; processing the expanded data and any resulting additional data to obtain presentation data, and to obtain locator data that may be embedded therein; wherein the presentation data embedded in the expanded data and any resulting additional data contains presentation attribute data that defines at least one one or more of layout, style or additional content of the digital document; from the presentation data, determining selecting a pre-defined template form for the digital document; when a component of the document template is a web element of a web source, retrieving the web element using the locator data; generating the digital document by combining (a) any result of retrieving the web element using the locator data, (b) the presentation data that was obtained from the expanded data and any additional data and (c) the pre-defined template form, with the pre-defined template form providing further structure to the digital document; and presenting the digital document on the receiving device.
Compounds of general formula: wherein: n is an integer ranging from 2 to 100; R 1 and R 2 are hydrogen or straight or branched, saturated or unsaturated C 1 -C 18 alkyl groups or aromatic groups; A is a C 1 -C 20 alkylene or C 3 -C 10 cycloalkylene group optionally containing one or more unsaturations, or an aromatic group; and B is a group of formula: wherein: D is an optionally unsaturated C 1 -C 6 alkylene or isoalkylene group; R 3, R 4, which can be the same or different, are hydrogen or C 1 -C 8 alkyl; R 5, R 6, which can be the same or different, are hydrogen or straight or branched C 1 -C 4 alkyl or an -OG group wherein G is hydrogen or straight or branched, saturated or unsaturated C 1 -C 10 alkyl. n is an integer ranging from 2 to 100; R 1 and R 2 are hydrogen or straight or branched, saturated or unsaturated C 1 -C 18 alkyl groups or aromatic groups; A is a C 1 -C 20 alkylene or C 3 -C 10 cycloalkylene group optionally containing one or more unsaturations, or an aromatic group; and B is a group of formula: wherein: D is an optionally unsaturated C 1 -C 6 alkylene or isoalkylene group; R 3, R 4, which can be the same or different, are hydrogen or C 1 -C 8 alkyl; R 5, R 6, which can be the same or different, are hydrogen or straight or branched C 1 -C 4 alkyl or an -OG group wherein G is hydrogen or straight or branched, saturated or unsaturated C 1 -C 10 alkyl. D is an optionally unsaturated C 1 -C 6 alkylene or isoalkylene group; R 3, R 4, which can be the same or different, are hydrogen or C 1 -C 8 alkyl; R 5, R 6, which can be the same or different, are hydrogen or straight or branched C 1 -C 4 alkyl or an -OG group wherein G is hydrogen or straight or branched, saturated or unsaturated C 1 -C 10 alkyl.
A container for holding a cutting tool of a food processing device, the container comprising: a shell defining a chamber sized to receive one of at least a first cutting tool (16, 18, 20) and a second cutting tool (16, 18, 20), the shell comprising: a first outer surface, a second outer surface positioned opposite the first outer surface, and a side wall extending between the first outer surface and the second outer surface, wherein the shell has (i) a first slot defined in the first outer surface, the first slot receiving a stem (32, 46, 60) of the first cutting tool (16, 18, 20) when the first cutting tool (16, 18, 20) is positioned in the chamber, (ii) a second slot defined in the second outer surface that is aligned with the first slot, the second slot receiving a stem (32, 46, 60) of the second cutting tool (16, 18, 20) when the second cutting tool (16, 18, 20) is positioned in the chamber, characterized in that the shell has (iii) a plurality of openings defined in the first outer surface, each opening being arranged circumferentially around the first slot and being sized to permit fluid to pass into the chamber. a shell defining a chamber sized to receive one of at least a first cutting tool (16, 18, 20) and a second cutting tool (16, 18, 20), the shell comprising: a first outer surface, a second outer surface positioned opposite the first outer surface, and a side wall extending between the first outer surface and the second outer surface, a first outer surface, a second outer surface positioned opposite the first outer surface, and a side wall extending between the first outer surface and the second outer surface, wherein the shell has (i) a first slot defined in the first outer surface, the first slot receiving a stem (32, 46, 60) of the first cutting tool (16, 18, 20) when the first cutting tool (16, 18, 20) is positioned in the chamber, (ii) a second slot defined in the second outer surface that is aligned with the first slot, the second slot receiving a stem (32, 46, 60) of the second cutting tool (16, 18, 20) when the second cutting tool (16, 18, 20) is positioned in the chamber, (iii) a plurality of openings defined in the first outer surface, each opening being arranged circumferentially around the first slot and being sized to permit fluid to pass into the chamber.
A method comprising: obtaining a beamforming signal using respective signals from a first microphone and a second microphone; reducing the data size of the beamforming signal by grouping the beamforming signal into frequency bands and obtaining a data value for each of the frequency bands; and forming a bit stream comprising at least the reduced size beamforming signal and the signal from the first microphone, wherein the bit stream enables a beamed audio channel to be rendered. obtaining a beamforming signal using respective signals from a first microphone and a second microphone; reducing the data size of the beamforming signal by grouping the beamforming signal into frequency bands and obtaining a data value for each of the frequency bands; and forming a bit stream comprising at least the reduced size beamforming signal and the signal from the first microphone, wherein the bit stream enables a beamed audio channel to be rendered.
An implantable microdevice comprising a cylindrical support structure having on the surface thereof a plurality of microwells formed on or within the support structure, wherein the microwells contain one or more active agents, wherein a microwell locally delivers a microdose amount of an active agent to a discrete area of a target tissue located proximally to the microwell after implantation, allowing the testing of patients for response to a large range of regimens, the device having dimensions that permit implantation into a tissue using a catheter, cannula, or biopsy needle, and optionally comprising a guidewire attached to an end of the device, and/or optionally comprising one or more sensors integrated within the device or microwells and fiber optic or other addressible or interactive means for remote interrogation of the device.
A method for producing mesenchymal stromal cells, comprising cryopreserving a mixture of mesenchymal stromal cells contained in a mesenchymal stromal cell composition and a solution containing dimethylsulfoxide at a content of 5% to 10% by mass, hydroxyethyl starch at a content of 5% to 10% by mass and human albumin at a content of more than 0% by mass but not more than 5% by mass; wherein the mesenchymal stromal cell composition comprises CD324- and CD326-positive epithelial cells at a content of 20% or less and CD90-positive mesenchymal stromal cells at a content of 75% or more; wherein the viable cell rate in the mesenchymal stromal cell composition is 80% or more.
A mold apparatus comprising: a male mold half; a female mold half; and a cavity, wherein contact of the male mold half and the female mold half forms the cavity; whereby (a) the female mold half further comprises a first half and a second half held together by a removable fastener, wherein a gap is formed by grooves in at least one of the first half or the second half when the first half and the second half are in contact; or (b) the male mold half further comprises a first half and a second half held together by a removable fastener, wherein a gap is formed by grooves in at least one of the first half or the second half when the first half and the second half are in contact; wherein the gap is configured such that it allows escape of vapor or steam from the cavity while at the same time does not allow escape of any significant amount of a mixture from the cavity. a male mold half; a female mold half; and a cavity, wherein contact of the male mold half and the female mold half forms the cavity; whereby (a) the female mold half further comprises a first half and a second half held together by a removable fastener, wherein a gap is formed by grooves in at least one of the first half or the second half when the first half and the second half are in contact; or (b) the male mold half further comprises a first half and a second half held together by a removable fastener, wherein a gap is formed by grooves in at least one of the first half or the second half when the first half and the second half are in contact; wherein the gap is configured such that it allows escape of vapor or steam from the cavity while at the same time does not allow escape of any significant amount of a mixture from the cavity. (a) the female mold half further comprises a first half and a second half held together by a removable fastener, wherein a gap is formed by grooves in at least one of the first half or the second half when the first half and the second half are in contact; or (b) the male mold half further comprises a first half and a second half held together by a removable fastener, wherein a gap is formed by grooves in at least one of the first half or the second half when the first half and the second half are in contact;
Process for the purification of a gas flow (1,3,5) containing NO and/or NO 2, carbon dioxide and nitrogen, in which: i) the gas flow is purified by adsorption in order to produce a flow enriched in carbon dioxide and in NOx and depleted in nitrogen and a fluid depleted in carbon dioxide and in NOx and enriched in nitrogen, ii) the flow enriched in carbon dioxide and in NOx and depleted in nitrogen is treated in a treatment unit (E1, K) in order to form a fluid enriched in NO 2 with respect to the treated flow, iii) the fluid enriched in NO 2 is sent to a catalytic conversion unit which makes possible the conversion of at least a portion of the NO 2, in the presence of oxygen and also of ammonia or of urea, to give nitrogen and to give water in order to produce a gas depleted in NO 2 with respect to the fluid enriched in NO 2, the catalytic conversion unit also being fed with a fluid having nitrogen as main component consisting of: • at least a portion of the fluid depleted in carbon dioxide and in NO 2 and enriched in nitrogen of stage i) and/or • a fluid at a pressure greater than the pressure of the fluid at the inlet of the catalytic conversion unit, obtained by treating at least a portion of the gas stream, or • a fluid originating from an air separation unit or from a network. i) the gas flow is purified by adsorption in order to produce a flow enriched in carbon dioxide and in NOx and depleted in nitrogen and a fluid depleted in carbon dioxide and in NOx and enriched in nitrogen, ii) the flow enriched in carbon dioxide and in NOx and depleted in nitrogen is treated in a treatment unit (E1, K) in order to form a fluid enriched in NO 2 with respect to the treated flow, iii) the fluid enriched in NO 2 is sent to a catalytic conversion unit which makes possible the conversion of at least a portion of the NO 2, in the presence of oxygen and also of ammonia or of urea, to give nitrogen and to give water in order to produce a gas depleted in NO 2 with respect to the fluid enriched in NO 2, the catalytic conversion unit also being fed with a fluid having nitrogen as main component consisting of: • at least a portion of the fluid depleted in carbon dioxide and in NO 2 and enriched in nitrogen of stage i) and/or • a fluid at a pressure greater than the pressure of the fluid at the inlet of the catalytic conversion unit, obtained by treating at least a portion of the gas stream, or • a fluid originating from an air separation unit or from a network. • at least a portion of the fluid depleted in carbon dioxide and in NO 2 and enriched in nitrogen of stage i) and/or • a fluid at a pressure greater than the pressure of the fluid at the inlet of the catalytic conversion unit, obtained by treating at least a portion of the gas stream, or • a fluid originating from an air separation unit or from a network.