mhurhangee/ep-ind-claims huggingface dataset:
A polynucleotide that encodes a protein that provides a plant cell with tolerance to a herbicide selected from the group consisting of a phenoxy auxin herbicide and a pyridyloxy auxin herbicide, wherein said polynucleotide is operably linked to a promoter that is functional in said plant cell, and wherein the polynucleotide that encodes said protein hybridizes under stringent conditions with the full complement of a sequence selected from the group consisting of SEQ ID NO:3 and SEQ ID NO:5.
An apparatus for producing a tape-wound toroidal core, comprising • a winding device with two rotationally drivable winding mandrels arranged at a distance from each other for winding up the tape, wherein the winding mandrels are selectively rotationally drivable about in each case a first axis of rotation or about a common second axis of rotation, and wherein the winding mandrels are movable perpendicular to the axes of rotation (6, 7) for adjusting the distance between them, • two tape feeding devices, each having at least one tape coil for providing a soft-magnetic tape, • at least one separating device for cutting through the tape roll (8, 9) to form a plurality of tape sections, characterized by an insertion device having at least one manipulator for inserting separating plates into a tape roll (8, 9) being formed. • a winding device with two rotationally drivable winding mandrels arranged at a distance from each other for winding up the tape, wherein the winding mandrels are selectively rotationally drivable about in each case a first axis of rotation or about a common second axis of rotation, and wherein the winding mandrels are movable perpendicular to the axes of rotation (6, 7) for adjusting the distance between them, • two tape feeding devices, each having at least one tape coil for providing a soft-magnetic tape, • at least one separating device for cutting through the tape roll (8, 9) to form a plurality of tape sections,
Container for storing or receiving and/or dispensing rod-shaped products of the tobacco-processing industry, comprising a main body formed from two at least substantially parallel side walls (21, 22) arranged at a distance from one another and two end walls (23, 24) pointing in the conveying direction T or T R respectively, a rear wall and a front wall, and a bottom wall for forming a receiving space for the rod-shaped products, the container being at least partially, preferably substantially completely, formed from an electrically conductive material, the conductive material being a mixture of a base material, namely a plastic, and at least two, in particular exactly two, electrically conductive additives, characterised in that a first electrically conductive additive is an inorganic additive in fibrous form, in particular selected from at least one substance from the group consisting of carbon, stainless steel and non-ferrous metal, carbon fibres being particularly preferred, and a second electrically conductive additive is an intrinsically conductive polymer, in particular a doped intrinsically conductive polymer or an intrinsically dissipative polymer.
A radiation-emitting set (101, 401, 601), suitable for a 3D printing apparatus, wherein the radiation-emitting set comprises a plurality of radiation-emitting units (102, 201, 301, 402, 603) which are mounted on a holding means and wherein each radiation-emitting unit is mounted on the holding means at a defined angle of rotation alpha and the radiation-emitting units have different or the same defined angle(s) of rotation (302, 304) alpha or one or more radiation-emitting units have one defined angle of rotation alpha of group 1 and one or more radiation-emitting units have another defined angle of rotation alpha of group 2 and the radiation-emitting units are combined with one or more cooling means, and wherein the angle of rotation alpha in the peripheral area of the radiation-emitting set is different to the interior area of the radiation-emitting set and wherein the radiation intensity in the peripheral area of the radiation-emitting set(s) is set higher than in the interior area of the radiation-emitting set.
A lock plate for a bladed rotor arrangement, wherein the lock plate is hollow, the lock plate comprises a first planar wall, a second planar wall spaced from the first planar wall and a peripheral wall (47A, 47B, 47E, 47F) extending around the periphery of the lock plate from the periphery of the first planar wall to the periphery of the second planar wall, the lock plate comprises a plurality of walls arranged between and secured to the first planar wall and the second planar wall to stiffen the lock plate, the lock plate comprises a plurality of radially extending walls to stiffen the lock plate, the lock plate has a plurality of inlet openings in the second planar wall interconnecting with radially extending passages defined between the radially extending walls, characterised in that the lock plate having a plurality of outlet openings (55, 59) in the second planar wall interconnecting with the radially extending passages defined between the radially extending walls and the outlet openings (55, 59) in the second planar wall being spaced radially from the inlet openings.
Container treatment device, in particular filler, closer, or rinser, for containers such as, for example, bottles, cans, drums, kegs, etc., comprising a container feed, a container discharge, at least one feed line for at least one product, and a cleaning device for cleaning the outer surfaces by means of a cleaning fluid, wherein the cleaning device comprises a robot and a track, wherein the track is a rail or a rail system, and wherein the robot is arranged on or at said track and can be driven by means of a linear drive, characterised in that the track is provided at least in one angular region about the treatment device, and wherein at least a part or segment section of the track is configured as a hollow body, in which the cleaning fluid can be caused to flow to the robot.
A method of producing megakaryocyte progenitor cells comprising; (i) introducing a combination of transcription factors into a provided population of isolated human pluripotent stem cells (hPSCs), said combination comprising GATA1, FLI1 and TAL1, and (ii) culturing said population of cells, such that one or more cells in the population are programmed into megakaryocyte progenitor cells. (i) introducing a combination of transcription factors into a provided population of isolated human pluripotent stem cells (hPSCs), said combination comprising GATA1, FLI1 and TAL1, and (ii) culturing said population of cells, such that one or more cells in the population are programmed into megakaryocyte progenitor cells.
Process for preparing a tris[3-(alkoxysilyl)propyl] isocyanurate from the group of tris[3-(trialkoxysilyl)propyl] isocyanurate, tris[3-(alkyldialkoxysilyl)propyl] isocyanurate and tris[3-(dialkylalkoxysilyl)propyl] isocyanurate by hydrosilylation, by - in step A initially charging a mixture comprising 1,3,5-triallyl-1,3,5-triazine-2,4,6(1H,3H,5H)-trione as olefin component, at least one carboxylic acid and a Pt catalyst, heating the mixture to a temperature of 40 to 140°C, - in step B adding at least one hydroalkoxysilane from the group of hydrotrialkoxysilane, hydroalkyldialkoxysilane, hydrodialkylalkoxysilane [called H-silane(s) for short] to the mixture from step A while mixing, - in step C leaving the mixture from step B to react while mixing, with addition of at least a defined amount of alcohol to the mixture as further cocatalyst, and - in step D working up the product mixture thus obtained. - in step A initially charging a mixture comprising 1,3,5-triallyl-1,3,5-triazine-2,4,6(1H,3H,5H)-trione as olefin component, at least one carboxylic acid and a Pt catalyst, heating the mixture to a temperature of 40 to 140°C, - in step B adding at least one hydroalkoxysilane from the group of hydrotrialkoxysilane, hydroalkyldialkoxysilane, hydrodialkylalkoxysilane [called H-silane(s) for short] to the mixture from step A while mixing, - in step C leaving the mixture from step B to react while mixing, with addition of at least a defined amount of alcohol to the mixture as further cocatalyst, and - in step D working up the product mixture thus obtained.
A stator for a continuously variable transmission, CVT positioning a plurality of tiltable planet assemblies, each tiltable planet assembly including a planet and a planet axle, wherein tilting the planet axle changes a transmission ratio of the CVT, the stator comprising: a plurality of guide slots (31, 33), each guide slot configured for receiving an end of a planet axle having a diameter, each guide slot comprising: first and second surfaces (37, 38) for contact with the end of the planet axle, the first and second surfaces separated by a first width to form a desired clearance width based on the diameter of the planet axle; and a third surface located radially inward of the first and second surfaces for limiting the travel of the end of the planet axle, wherein the radial guide slot is formed having a second width at a radially outward opening, the second width being less than the diameter of the planet axle. first and second surfaces (37, 38) for contact with the end of the planet axle, the first and second surfaces separated by a first width to form a desired clearance width based on the diameter of the planet axle; and a third surface located radially inward of the first and second surfaces for limiting the travel of the end of the planet axle, wherein the radial guide slot is formed having a second width at a radially outward opening, the second width being less than the diameter of the planet axle.
A roller embossing method for flexible graphite polar plates of fuel cells, an embossing roller pair (1, 2, 5, 6) comprising an upper embossing roller (1, 5) and a lower embossing roller (2, 6) disposed in mirror symmetry and manufactured according to structural features of patterns (11, 21, 51, 61) of a polar plate to be formed, the embossing roller pair being mounted on a roller press to be applied to a continuous production line to produce the polar plate, and the method comprising: adjusting a clearance of the embossing roller pair of the roller press to a target thickness value of the polar plate to be produced; feeding, by a feed device, a flexible graphite slab in front of the embossing roller pair, and entangling the flexible graphite slab by means of opposite rotation of the embossing roller pair; after the flexible graphite slab is entangled, continuing to forward roll the slab for between 10 mm and 100 mm, and then reversely rolling the slab for between 5 mm and 90 mm by means of synchronous and opposite rotation of the embossing roller pair, wherein one time of forward rolling and one time of reverse rolling are referred to as reciprocal rolling; forming the polar plate after several times of reciprocal rolling, and separating the polar plate from the embossing rollers; and performing subsequent treatment on the rolled polar plate. adjusting a clearance of the embossing roller pair of the roller press to a target thickness value of the polar plate to be produced; feeding, by a feed device, a flexible graphite slab in front of the embossing roller pair, and entangling the flexible graphite slab by means of opposite rotation of the embossing roller pair; after the flexible graphite slab is entangled, continuing to forward roll the slab for between 10 mm and 100 mm, and then reversely rolling the slab for between 5 mm and 90 mm by means of synchronous and opposite rotation of the embossing roller pair, wherein one time of forward rolling and one time of reverse rolling are referred to as reciprocal rolling; forming the polar plate after several times of reciprocal rolling, and separating the polar plate from the embossing rollers; and performing subsequent treatment on the rolled polar plate.
A computer-implemented method to orchestrate services, the method comprising: receiving a first network packet comprising data, source code, and a destination identifier specifying a destination of a second network packet; wherein the source code comprises application code and orchestration code, wherein the orchestration code defines a first section of the application code to be executed on the data; executing the first section of the application code; in response to the execution, invoking a service associated with an application with the data; receiving a first response from the service; dynamically generating the second network packet, wherein the second network packet comprises the first response and one or more remaining sections of the application code; and sending the second network packet to the destination specified by the destination identifier. receiving a first network packet comprising data, source code, and a destination identifier specifying a destination of a second network packet; wherein the source code comprises application code and orchestration code, wherein the orchestration code defines a first section of the application code to be executed on the data; wherein the source code comprises application code and orchestration code, wherein the orchestration code defines a first section of the application code to be executed on the data; executing the first section of the application code; in response to the execution, invoking a service associated with an application with the data; receiving a first response from the service; dynamically generating the second network packet, wherein the second network packet comprises the first response and one or more remaining sections of the application code; and sending the second network packet to the destination specified by the destination identifier.
A last stage blade for a half speed nuclear steam turbine operating at 50Hz or 60Hz, the blade having a single piece steel blade body comprising: an airfoil having a tip, a base and an airfoil height extending between the tip and the base, wherein the airfoil height is in a range of 1850 mm to 2000 mm, and the base has a base diameter in a range of 2900 mm to 3050 mm, the airfoil having an airfoil mass for the defined airfoil height, wherein an airfoil mass to height ratio is in a range of 70 kg/m to 80 kg/m, wherein the airfoil height and the airfoil mass enable low centrifugal pull on a rotor; and a blade root, extending from the base, configured to be attachable mounted in a rotor groove of a rotor, characterised in that the blade root comprises a fir-tree root curved along a chord at the base of the airfoil, wherein the curvature of the curved fir-tree root has a radius (Rr) in a range of 400 to 500 mm. an airfoil having a tip, a base and an airfoil height extending between the tip and the base, wherein the airfoil height is in a range of 1850 mm to 2000 mm, and the base has a base diameter in a range of 2900 mm to 3050 mm, the airfoil having an airfoil mass for the defined airfoil height, wherein an airfoil mass to height ratio is in a range of 70 kg/m to 80 kg/m, wherein the airfoil height and the airfoil mass enable low centrifugal pull on a rotor; and a blade root, extending from the base, configured to be attachable mounted in a rotor groove of a rotor, characterised in that the blade root comprises a fir-tree root curved along a chord at the base of the airfoil, wherein the curvature of the curved fir-tree root has a radius (Rr) in a range of 400 to 500 mm.
A tool tracker comprising hardware, software, firmware and/or circuitry for executing a tracking technique to track a position of an interventional tool comprising at least one ultrasound transducer disposed on a distal tip of the interventional tool with an ultrasound probe, relative to an acoustic image plane corresponding to an ultrasound image of an anatomical region generated by the ultrasound probe, based on a time of flight and an amplitude of ultrasound signals corresponding to each of a plurality of beams communicated from the ultrasound probe to the at least one ultrasound transducer, wherein the tool tracker is configured to execute an algorithm that determines a projection of a 3D position of the at least one ultrasound transducer including an X-azimuth, a Z-depth and a Y-elevation of the at least one ultrasound transducer onto a 2D position in the acoustic image plane by performing the method steps of: determining the Z-depth coordinate by measuring the time of flight of the ultrasound signals from the ultrasound probe to the at least one ultrasound transducer; determining the X-azimuth position by searching for a maximum received amplitude across beams from the ultrasound probe received at the at least one ultrasound transducer; estimating the Y elevation comprising the distance of the at least one ultrasound transducer relative to the acoustic image plane by recording the received amplitude of the ultrasound signals at the at least one ultrasound transducer and comparing it to a past history of said ultrasound signals, wherein an increasing amplitude means that the at least one ultrasound transducer is approaching the acoustic image plane and a decreasing amplitude means that the at least one ultrasound transducer is going further away from the acoustic image plane. determining the Z-depth coordinate by measuring the time of flight of the ultrasound signals from the ultrasound probe to the at least one ultrasound transducer; determining the X-azimuth position by searching for a maximum received amplitude across beams from the ultrasound probe received at the at least one ultrasound transducer; estimating the Y elevation comprising the distance of the at least one ultrasound transducer relative to the acoustic image plane by recording the received amplitude of the ultrasound signals at the at least one ultrasound transducer and comparing it to a past history of said ultrasound signals, wherein an increasing amplitude means that the at least one ultrasound transducer is approaching the acoustic image plane and a decreasing amplitude means that the at least one ultrasound transducer is going further away from the acoustic image plane.
Warp knitting machine having a knitting needle bar carrying knitting needles, a guide bar arrangement which is moveable in a shog direction and a has a weft guide bar which lays a weft yarn, and a fabric take-off, wherein at least one guide plate (12, 13) projects through a space between two knitting needles, wherein weft guide bar guides a weft yarn over the guide plate (12, 13) during a movement between two knitting needles, wherein the guide plate (12, 13) is arranged at a guide plate bar, characterized in that the guide plate bar is unmoved during a stich formation process.
A method implemented in a wireless transmit/receive unit, WTRU, the method comprising: receiving, from a network element of a network including a non-terrestrial network, differential delay information and physical random access channel configuration information, wherein the physical random access channel configuration information indicates a set of preambles and a physical random access channel occasions configuration; characterized by: based on the differential delay information, determining a set of candidate physical random access channel occasions from among a plurality of physical random access channel occasions of the physical random access channel occasion configuration; selecting a preamble from a group of preambles of the set of preambles, wherein the group of preambles is allocated to one candidate physical random access channel occasion of the set of candidate physical random access channel occasions; and transmitting the selected preamble using a physical random access channel resource corresponding to the one candidate physical random access channel occasion. receiving, from a network element of a network including a non-terrestrial network, differential delay information and physical random access channel configuration information, wherein the physical random access channel configuration information indicates a set of preambles and a physical random access channel occasions configuration; characterized by: based on the differential delay information, determining a set of candidate physical random access channel occasions from among a plurality of physical random access channel occasions of the physical random access channel occasion configuration; selecting a preamble from a group of preambles of the set of preambles, wherein the group of preambles is allocated to one candidate physical random access channel occasion of the set of candidate physical random access channel occasions; and transmitting the selected preamble using a physical random access channel resource corresponding to the one candidate physical random access channel occasion.
A method of manufacturing a substrate with a patterned layer of deposited material, the patterned layer being deposited from a processing head, the method comprising - applying bearing gas from the processing head to keep the processing head hovering over the substrate on a gas bearing; - moving the substrate and the hovering processing head relative to each other; - applying a primer material for selective deposition of a deposition material to the substrate, the primer material being applied from a first area (128a, 30a) of a surface of the processing head that faces the substrate, and spatially patterning the primer on the substrate after or during application; - applying the deposition material to the substrate from a second area (128c, 30c) of the surface of the processing head that faces the substrate, the second area (128c, 30c lying downstream of the first area in a direction of the movement of the substrate relative to the processing head. - applying bearing gas from the processing head to keep the processing head hovering over the substrate on a gas bearing; - moving the substrate and the hovering processing head relative to each other; - applying a primer material for selective deposition of a deposition material to the substrate, the primer material being applied from a first area (128a, 30a) of a surface of the processing head that faces the substrate, and spatially patterning the primer on the substrate after or during application; - applying the deposition material to the substrate from a second area (128c, 30c) of the surface of the processing head that faces the substrate, the second area (128c, 30c lying downstream of the first area in a direction of the movement of the substrate relative to the processing head.
A method for promoting creep deformation of shale surrounding a well casing characterized in that the method comprises the step of introducing a lithium-based product into an annulus between said shale and said well casing, whereby said lithium-based product promotes the creep deformation of the shale.