mhurhangee/ep-ind-claims huggingface dataset:
A lead strip caster nozzle comprising: a first passage receiving molten lead, the first passage being defined by inside surfaces of the lead strip caster nozzle and extending therethrough from a first entrance to a first exit; a second passage receiving molten lead, the second passage being defined by inside surfaces of the lead strip caster nozzle and extending therethrough from a second entrance to a second exit; a first exterior working surface confronting a first roller outer surface, the first exterior working surface having a generally arcuate profile, wherein, at the first exit, the first passage terminates openly to the first exterior working surface; and a second exterior working surface confronting a second roller outer surface, the second exterior working surface having a generally arcuate profile, wherein, at the second exit, the second passage terminates openly to the second exterior working surface; wherein, during use of the lead strip caster nozzle, molten lead exiting the first passage is delivered to the first exterior working surface, and molten lead exiting the second passage is delivered to the second exterior working surface, and wherein molten lead delivered to the first exterior working surface and molten lead delivered to the second exterior working surface merge together downstream of an egress end of the lead strip caster nozzle. a first passage receiving molten lead, the first passage being defined by inside surfaces of the lead strip caster nozzle and extending therethrough from a first entrance to a first exit; a second passage receiving molten lead, the second passage being defined by inside surfaces of the lead strip caster nozzle and extending therethrough from a second entrance to a second exit; a first exterior working surface confronting a first roller outer surface, the first exterior working surface having a generally arcuate profile, wherein, at the first exit, the first passage terminates openly to the first exterior working surface; and a second exterior working surface confronting a second roller outer surface, the second exterior working surface having a generally arcuate profile, wherein, at the second exit, the second passage terminates openly to the second exterior working surface; wherein, during use of the lead strip caster nozzle, molten lead exiting the first passage is delivered to the first exterior working surface, and molten lead exiting the second passage is delivered to the second exterior working surface, and wherein molten lead delivered to the first exterior working surface and molten lead delivered to the second exterior working surface merge together downstream of an egress end of the lead strip caster nozzle.
Diverter valve positioned in a supply pipe, said diverter valve comprising a body between a first end and a second end, said first end is substantially planar wherein an inlet opening is positioned, the inlet opening is of circular shape and comprises an axis of revolution positioned in parallel with the longitudinal axis of the diverter valve, the second end is substantially planar, the valve being characterised in that the second end comprises a spherical cap whereon are positioned at least two outlet openings, each outlet opening is of circular shape, said diverter valve comprises a movable plug contained in the body of the diverter valve, said movable plug comprises a rigid through-channel capable of making the inlet opening communicate selectively with one of the outlet openings.
A method for treatment of a ballast track by means of track maintenance machine which comprises a lifting unit having gripping rollers for gripping a track grid formed of rails and sleepers and lifting drives for lifting the track grid, a control device for controlling the lifting unit and a measuring system for comparing to a target position of the track, wherein the lifting unit is set in vibration by means of a vibration exciter and the vibration is transmitted to the track grid, characterized in that by means of an adjustment device of the vibration exciter a setting of an impact force acting by the lifting unit on the track grid takes place and that the lifting unit is controlled by means of the control device in such a way that, during a lifting operation, the lifting unit is set in vibration, and the track grid is first lifted to above the target position and subsequently lowered to the target position.
An autonomously navigating vehicle, which comprises: a chassis; a cover displaceably attached to the chassis; a sensor configured to produce an output proportional to displacement between the chassis and the cover; and a control unit configured to receive output of the sensor; wherein the vehicle is configured to navigate autonomously on drive wheels attached to the chassis; wherein the control unit comprises; a sensor output determination unit configured to determine whether change of the sensor output per prescribed time period is equal to or greater than a threshold value; a time integration unit configured to count up time period during which change has been determined by the sensor output determination unit to be equal to or greater than the threshold value; and a discrimination unit configured to compare time period counted up by the time integration unit with prescribed time periods and discriminate whether the vehicle has contacted an obstacle or whether the cover has been lifted from the chassis based on the result of the comparison with the prescribed time periods; characterized in that: the sensor has one contact-lift sensor which is installed on either side of a vehicle axis lying parallel to running direction of the vehicle and which comprises a magnetic body installed near the cover and a detection unit having a magnetic sensitive element installed on the chassis. a chassis; a cover displaceably attached to the chassis; a sensor configured to produce an output proportional to displacement between the chassis and the cover; and a control unit configured to receive output of the sensor; wherein the vehicle is configured to navigate autonomously on drive wheels attached to the chassis; wherein the control unit comprises; a sensor output determination unit configured to determine whether change of the sensor output per prescribed time period is equal to or greater than a threshold value; a time integration unit configured to count up time period during which change has been determined by the sensor output determination unit to be equal to or greater than the threshold value; and a discrimination unit configured to compare time period counted up by the time integration unit with prescribed time periods and discriminate whether the vehicle has contacted an obstacle or whether the cover has been lifted from the chassis based on the result of the comparison with the prescribed time periods; characterized in that: the sensor has one contact-lift sensor which is installed on either side of a vehicle axis lying parallel to running direction of the vehicle and which comprises a magnetic body installed near the cover and a detection unit having a magnetic sensitive element installed on the chassis.
A rail brake including a rail brake enclosure housing at least one spring acting downwardly against a brake shoe mounted underneath the rail brake enclosure so as to urge the brake shoe against a rail when the rail brake is positioned over the rail, characterised in that the rail brake enclosure further includes a spring caging mechanism comprising: a caging frame depending downwardly from the rail brake enclosure so as to bracket the brake shoe which is linked to the at least one spring in the enclosure, wherein said caging frame includes a pair of substantially parallel walls defining a brake shoe channel therebetween, wherein said channel is sized so that the brake shoe is suspended snugly in said channel for vertical translation of the brake shoe in said channel between raised and lowered positions corresponding to a spring caging position and a rail engaging position respectively, wherein opposed facing inner walls of said parallel walls include a corresponding pair of opposed facing first grooves, and wherein an oppositely disposed pair of second grooves are formed in oppositely disposed outer surfaces of the brake shoe, and positioned so that, when the brake shoe is in said raised position, said first and second grooves (56, 58) are adjacent and aligned so as to form, collectively, a pair of key-receiving bores on opposite sides of the brake shoe when in its raised position, the spring caging mechanism further comprising a pair of elongate keys sized for snug sliding fitment into and along said pair of key-receiving bores, wherein when said keys are journalled in said bores the brake shoe is releasably locked in its raised position thereby caging the at least one spring in the rail brake enclosure.
An antibody or a pharmaceutically acceptable composition comprising the antibody and a pharmaceutically acceptable carrier or diluent for use in treating a ROR-1-expressing cancer, wherein the antibody binds the same epitope as an antibody comprised of heavy and light chain variable regions encoded by the nucleotide sequence of SEQ ID NO: 13 (heavy chain) the nucleotide sequence of SEQ ID NO: 15 (light chain).
The telescopic connecting steering rod, particularly for vehicle built-ins, consisting of mutually telescopically arranged main steering rod, middle adaptor and upper extension, where the lower end of the main steering rod is adapted to enable its mounting in the vehicle steering system and where the upper extension is fitted with a connecting element adopted to connect the steering rod to the tailgate part of the vehicle and to connect it to the control element of the vehicle steering mechanism, characterized by an above-open bushing being designed on the upper end of the main steering rod and a connecting element consisting of a head, the outline shape of which conforms to the inner hollow of the bushing, where both these mutually insertable parts are fitted with fittings to connect the main steering rod and the connecting element with zero lash, wherein the main steering rod and the middle adaptor are modified in their upper parts to hold the security elements built in in the lower parts of inner hollows of the middle adaptor and of the upper extension.
A method for recovering a fluorinated surfactant molecule from an aqueous or mixed aqueous organic solution, comprising the step of contacting said solution containing an fluorinated surfactant with a zeolite that has pores delineated by rings that comprise between 10 to 14 tetrahedrally coordinated framework atoms ('T'), and wherein said zeolite contains only Si 4+, Ge 4+, Ti 4+, Sn 4+, Zr 4+ or Hf 4+ as tetrahedrally coordinated framework atoms.
A filter medium comprising a reinforced nonwoven material, wherein the nonwoven material comprises at least one nonwoven layer (12, 14, 16) consisting of preoxidized polyacrylonitrile and at least one reinforcing layer, wherein the at least one reinforcing layer comprises a first side and a second side, wherein the at least one reinforcing layer is covered on the first side and/or the second side by the at least one nonwoven layer (12, 14, 16), and wherein a material of the at least one reinforcing layer is selected from the group consisting of metal fibers, metal wires, preoxidized PAN fibers, partially carbonized PAN fibers or carbon fibers.
A method comprising: displaying content on a display associated with a set top box; generating a content information request signal at a second screen device requesting data corresponding to the content; communicating the content information request signal to the set top box; communicating a content information signal to second screen device from the set top box comprising a content identifier; generating a request for related data signal corresponding to the content at the second screen device using the content identifier; communicating the request for related data signal from the second screen device through a network directly to a data services center; aggregating related content data corresponding to the content at the data services center to form an aggregated related content data signal from at least one social media source; communicating the aggregated related content data signal to the second screen device; and displaying the aggregated related content data at the second screen device. displaying content on a display associated with a set top box; generating a content information request signal at a second screen device requesting data corresponding to the content; communicating the content information request signal to the set top box; communicating a content information signal to second screen device from the set top box comprising a content identifier; generating a request for related data signal corresponding to the content at the second screen device using the content identifier; communicating the request for related data signal from the second screen device through a network directly to a data services center; aggregating related content data corresponding to the content at the data services center to form an aggregated related content data signal from at least one social media source; communicating the aggregated related content data signal to the second screen device; and displaying the aggregated related content data at the second screen device.
Flat element comprising the layer sequence front electrode, luminescent layer with a matrix with luminescent particles which luminesce on exposure to an automating-voltage electrical field, back electrode, and also optionally at least one dielectric layer, where the matrix and/or the dielectric layer comprise(s) a dielectric, characterized in that the front electrode is a flat, at least to some extent transparent, deep-drawable electrode which comprises a flat element with an electrically conductive material, where the elongation at break of the electrically conductive material of the element at room temperature (from 20 to 25°C) is from 1 to 70%, or else above 70%, and its tensile strength is from 5 to 2500 N/mm 2 and the flat element is a flat grid with at least one electrically conductive filament of the material, where the diameter of the filaments or wires is from 2 to 40 μm, the distance between the filaments or wires in the grid corresponds to a mesh width of from 1 to 500 μm or, if there is an organic, flexible and optionally conductive polymer composition present in the interstices of the grid, the mesh width is from 50 μm to 5000 μm, where a motif with embossment height C from 0.001 mm to 10 mm has been embossed into the flat element.
A method for producing 1,4-butanediol, comprising biologically producing 1,4-butanediol in a culture medium for fermentation of an organism capable of producing 1,4-butanediol, at least partially removing each of a bacterial cell, a salt content and water from said fermentation culture medium to obtain a refined raw material 1,4-butanediol-containing solution, obtaining therefrom a crude 1,4-butanediol-containing solution through at least the step (c) out of the following steps (a) to (c), wherein the refined raw material 1,4-butanediol-containing solution after passing through the following step (f) is introduced into said step (c), and refining said crude 1,4-butanediol-containing solution through the following step (d) to obtain refined 1,4-butanediol: Step (a): a step of distilling said refined raw material 1,4-butanediol-containing solution in a distillation column to remove components which are contained in said refined raw material 1,4-butanediol-containing solution and higher in the boiling point than 1,4-butanediol; Step (b): a step of distilling said refined raw material 1,4-butanediol-containing solution in a distillation column to remove components which are contained in said refined raw material 1,4-butanediol-containing solution and lighter in the boiling point than 1,4-butanediol; Step (c): a hydrogenation step of at least partially hydrogenating carbonyl compounds or unsaturated compounds contained in said refined raw material 1,4-butanediol-containing solution; Step (d): a step of distilling said crude 1,4-butanediol-containing solution in a distillation column and withdrawing refined 1,4-butanediol from a side stream; and Step (f): a step of bringing said refined raw material 1,4-butanediol-containing solution into contact with a base. Step (a): a step of distilling said refined raw material 1,4-butanediol-containing solution in a distillation column to remove components which are contained in said refined raw material 1,4-butanediol-containing solution and higher in the boiling point than 1,4-butanediol; Step (b): a step of distilling said refined raw material 1,4-butanediol-containing solution in a distillation column to remove components which are contained in said refined raw material 1,4-butanediol-containing solution and lighter in the boiling point than 1,4-butanediol; Step (c): a hydrogenation step of at least partially hydrogenating carbonyl compounds or unsaturated compounds contained in said refined raw material 1,4-butanediol-containing solution; Step (d): a step of distilling said crude 1,4-butanediol-containing solution in a distillation column and withdrawing refined 1,4-butanediol from a side stream; and Step (f): a step of bringing said refined raw material 1,4-butanediol-containing solution into contact with a base.
An illumination device comprising: • a number of light sources arranged in at least a first group of light sources and in a second group of light sources (205, 205a, 205b, 205c, 305, 305c, 305d), where said first group of light sources and said second group of light sources are individually controllable; • a number of light collecting means, said number of light collecting means collect light from said first group of light sources and convert said collected light into a number of source light beams; • at least one light guide (213, 313, 413, 513) comprising an input section (217, 317, 517) and an output section (219, 319, 417, 519), said light guide receives light generated by said second group of light sources at said input section and transfers said received light to said output section, said output section being adapted to emit said received light at an area between at least two of said source light beams; characterized in that said number of light sources further is arranged in a third group of light sources, and in that said illumination device further comprises at least one diffuser region arranged between at least two of said source light beams, said diffuser region receives and diffuses light generated by said third group of light sources. • a number of light sources arranged in at least a first group of light sources and in a second group of light sources (205, 205a, 205b, 205c, 305, 305c, 305d), where said first group of light sources and said second group of light sources are individually controllable; • a number of light collecting means, said number of light collecting means collect light from said first group of light sources and convert said collected light into a number of source light beams; • at least one light guide (213, 313, 413, 513) comprising an input section (217, 317, 517) and an output section (219, 319, 417, 519), said light guide receives light generated by said second group of light sources at said input section and transfers said received light to said output section, said output section being adapted to emit said received light at an area between at least two of said source light beams;
A compressor comprising: a cylinder (24,91) having a diametral axis; a valve plate covering said cylinder said valve plate having a suction port (32,82,128) and a discharge port (34,102,130); a valve (36,86) having a body with a first end coupled to said valve plate and a second end movable between a first position in contact with said suction port (32,82,128) and a second position, wherein said cylinder (24,91) includes a first relief formed on an edge of the cylinder (24,91) adjacent said first end, characterised in that the suction port (32,83,128) and the discharge port (34,102,130) are positioned on said diametral axis, said valve (36,86) is arranged at an angle to said diametral axis, and a chamfer is formed inside a recess at the edge of the cylinder (24,91), the chamfer being positioned to contact with the valve (36,86) second end when in the second position. a cylinder (24,91) having a diametral axis; a valve plate covering said cylinder said valve plate having a suction port (32,82,128) and a discharge port (34,102,130); a valve (36,86) having a body with a first end coupled to said valve plate and a second end movable between a first position in contact with said suction port (32,82,128) and a second position, wherein said cylinder (24,91) includes a first relief formed on an edge of the cylinder (24,91) adjacent said first end, characterised in that the suction port (32,83,128) and the discharge port (34,102,130) are positioned on said diametral axis, said valve (36,86) is arranged at an angle to said diametral axis, and a chamfer is formed inside a recess at the edge of the cylinder (24,91), the chamfer being positioned to contact with the valve (36,86) second end when in the second position.
A herbicidal composition comprising a synergistically herbicidal effective amount of (a) (±)-2-exo-(2-Methylbenzyloxy)-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane, any of its individual enantiomers or any non-racemic mixture thereof (herbicide A) and (b) imazamox, any of its individual isomers or an agriculturally acceptable salt, ester or amide thereof (herbicide B).