mhurhangee/ep-ind-claims huggingface dataset:
A connector for a coaxial cable, the coaxial cable comprising an outer conductor, an inner conductor and an insulating medium located between the outer and inner conductors, wherein the connector comprises a hollow shell, a coupling nut mounted on the shell, and a connector inner conductor, a flare ring, a slot finger and a lock nut which are arranged together in the shell, the flare ring at one end resting against a shoulder in the shell, the slot finger mounted on the flare ring, and the lock nut mounted on the slot finger and engaging an inner surface of the shell; wherein the flare ring is provided with adjacent first incline and first plane, and the slot finger is provided with adjacent second incline and second plane, wherein the first incline is configured to be inserted between the outer conductor and the insulating medium of the coaxial cable, wherein the first incline and the second incline cooperate to compress the outer conductor of the coaxial cable along a direction perpendicular to the two inclines (54, 67), characterized in that: said outer conductor is a threaded outer conductor and in that the first plane and the second plane cooperate to compress the outer conductor of the coaxial cable along an axial direction of said connector, so that the first incline will flare the threaded outer conductor of the coaxial cable and the first plane and the second plane will cooperate to crush the threaded outer conductor of the coaxial cable. wherein the connector comprises a hollow shell, a coupling nut mounted on the shell, and a connector inner conductor, a flare ring, a slot finger and a lock nut which are arranged together in the shell, the flare ring at one end resting against a shoulder in the shell, the slot finger mounted on the flare ring, and the lock nut mounted on the slot finger and engaging an inner surface of the shell; wherein the flare ring is provided with adjacent first incline and first plane, and the slot finger is provided with adjacent second incline and second plane, wherein the first incline is configured to be inserted between the outer conductor and the insulating medium of the coaxial cable, wherein the first incline and the second incline cooperate to compress the outer conductor of the coaxial cable along a direction perpendicular to the two inclines (54, 67), characterized in that: said outer conductor is a threaded outer conductor and in that the first plane and the second plane cooperate to compress the outer conductor of the coaxial cable along an axial direction of said connector, so that the first incline will flare the threaded outer conductor of the coaxial cable and the first plane and the second plane will cooperate to crush the threaded outer conductor of the coaxial cable.
Device for removing long fibres from a fibrous material suspension by using at least one rotor with rotor blades, in which a jet of the fibrous material suspension is aimed at the rotor blades of the rotor, the jet direction forms an angle of less than 45° with the axis of rotation of the rotor, the rotor blades have a blade edge pointing in the direction of rotation, and collecting chambers for the longer fibres thrown off the rotor blades are arranged in the centrifugal area of the rotor blades characterized in that, over at least 50% of the radial extent of the rotor blades, the spacing between the rotor blades is from 5 to 10 times greater than the width of the rotor blades in the plane of rotation.
An optical sensor comprising: pixels including: photoreceptors for detecting received light, analog comparators for comparing signals from the photoreceptors to a ramp voltage; current memories for storing current counts that are related to the ramp voltage; old memories for storing previous counts; and one or more digital comparators for comparing a difference between the current counts and the previous counts to at least one event threshold. pixels including: photoreceptors for detecting received light, analog comparators for comparing signals from the photoreceptors to a ramp voltage; current memories for storing current counts that are related to the ramp voltage; old memories for storing previous counts; and one or more digital comparators for comparing a difference between the current counts and the previous counts to at least one event threshold.
A joined product with a cemented carbide sintered compact serving as a first material to be joined and a cBN sintered compact serving as a second material to be joined, wherein: said first material to be joined and said second material to be joined are joined together via a joining material disposed therebetween and containing titanium (Ti); and a titanium nitride (TiN) compound layer having a thickness of 10-300 nm is at an interface between said second material to be joined and said joining material.
A directional backlight (400, 500, 700, 800, 900, 1100), comprising: a plurality of light sources (405a-h, 505-515, 705-715, 805-815, 905-915, 1110-1120) to generate a plurality of input planar lightbeams (420a-h); and a directional backplane (425,535, 735, 835, 935, 1105) comprising a slab of transparent material having a plurality of directional pixels (430, 540-550, 740, 840, 940), the plurality of directional pixels configured to scatter each of the plurality of input planar lightbeams into a plurality of directional lightbeams, wherein the plurality of directional lightbeams represents multiple image views that when combined form a 3D image, wherein only one directional lightbeam of the plurality of directional lightbeams emerges from each directional pixel, each directional pixel of the plurality of directional pixels comprising a patterned grating comprising a plurality of substantially parallel and slanted grooves, and configured to scatter an input planar lightbeam of the plurality of input planar lightbeams into said one directional lightbeam of the plurality of directional lightbeams, said directional lightbeam having a direction and an angular spread controlled by characteristics of the patterned grating. a plurality of light sources (405a-h, 505-515, 705-715, 805-815, 905-915, 1110-1120) to generate a plurality of input planar lightbeams (420a-h); and a directional backplane (425,535, 735, 835, 935, 1105) comprising a slab of transparent material having a plurality of directional pixels (430, 540-550, 740, 840, 940), the plurality of directional pixels configured to scatter each of the plurality of input planar lightbeams into a plurality of directional lightbeams, wherein the plurality of directional lightbeams represents multiple image views that when combined form a 3D image, wherein only one directional lightbeam of the plurality of directional lightbeams emerges from each directional pixel, each directional pixel of the plurality of directional pixels comprising a patterned grating comprising a plurality of substantially parallel and slanted grooves, and configured to scatter an input planar lightbeam of the plurality of input planar lightbeams into said one directional lightbeam of the plurality of directional lightbeams, said directional lightbeam having a direction and an angular spread controlled by characteristics of the patterned grating.
A liquid application apparatus (3800; 7000) for applying liquid to soil during a planting operation, comprising: a ground-engaging component (3820; 7070) mounted to a planter row unit, the planter row unit comprising an opening system for opening a planting trench in the soil as the planter row unit travels in a forward direction of travel, and a seed meter for depositing seeds in the planting trench, the ground-engaging component (3820;7070) disposed at least partially within said planting trench; and a first liquid outlet mounted to said ground-engaging component (3820; 7070); a second liquid outlet mounted to said ground-engaging component (3820; 7070); and, a third liquid outlet (3846;7740) mounted to said ground-engaging component (3820; 7070) and disposed to deposit liquid into a center of said planting trench, characterized in that the ground-engaging component comprises a first wing (3838-1; 7062-1) disposed to open a first side trench the extends transversely from said planting trench, wherein said first liquid outlet is disposed to deposit liquid into said first side trench; and a second wing (3838-1; 7062-2) disposed to open a second side trench extending transversely from said planting trench, wherein said second liquid outlet is disposed to deposit liquid into said second side trench. a ground-engaging component (3820; 7070) mounted to a planter row unit, the planter row unit comprising an opening system for opening a planting trench in the soil as the planter row unit travels in a forward direction of travel, and a seed meter for depositing seeds in the planting trench, the ground-engaging component (3820;7070) disposed at least partially within said planting trench; and a first liquid outlet mounted to said ground-engaging component (3820; 7070); a second liquid outlet mounted to said ground-engaging component (3820; 7070); and, a third liquid outlet (3846;7740) mounted to said ground-engaging component (3820; 7070) and disposed to deposit liquid into a center of said planting trench, characterized in that the ground-engaging component comprises a first wing (3838-1; 7062-1) disposed to open a first side trench the extends transversely from said planting trench, wherein said first liquid outlet is disposed to deposit liquid into said first side trench; and a second wing (3838-1; 7062-2) disposed to open a second side trench extending transversely from said planting trench, wherein said second liquid outlet is disposed to deposit liquid into said second side trench.
A heat transfer panel comprising a body (i) of structural support material having a surface formed with an array of interconnecting channels into which a flexible fluid-conducting pipe can be inserted, and in which a heat-conducting layer (20; 21) is applied to said surface spanning the channels prior to use, said layer being provided with fissure lines (12; 13) extending along the channels whereby the layer can be divided to allow insertion of a pipe into selected channels, wherein the fissure lines follow a meandering path along the channels, varying in distance from the margins (5; 6) of the underlying channel.
A method, comprising: transmitting a first signal by a first transducer based on a first electrical current value; receiving the first signal transmitted into a reservoir from a production installation in a formation at a wellsite at a second transducer and a third transducer; measuring the first signal at the second transducer to determine a second electrical current value and at the third transducer to determine a third electrical current value; determining an apparent resistance of the reservoir based on the first signal by multiplying a difference between the second and third electrical current values by a mean of fourth and fifth electrical current values, the fourth electrical current value measured at the second transducer and the fifth electrical current value measured at the third transducer when a fourth transducer transmits a second signal into the reservoir; and determining a distance between a fluid extraction tool and a water front based on the apparent resistance. transmitting a first signal by a first transducer based on a first electrical current value; receiving the first signal transmitted into a reservoir from a production installation in a formation at a wellsite at a second transducer and a third transducer; measuring the first signal at the second transducer to determine a second electrical current value and at the third transducer to determine a third electrical current value; determining an apparent resistance of the reservoir based on the first signal by multiplying a difference between the second and third electrical current values by a mean of fourth and fifth electrical current values, the fourth electrical current value measured at the second transducer and the fifth electrical current value measured at the third transducer when a fourth transducer transmits a second signal into the reservoir; and determining a distance between a fluid extraction tool and a water front based on the apparent resistance.
Method for determining the electrical conductivity of a solid or liquid material, wherein the sample of the material, at which the electrical conductivity is measured, is contacted at a first point or at a first region in an electrically conductive manner with at least one measuring electrode, and is brought into contact with a plasma at a second region, so that the sample is electrically charged in a defined manner by the plasma, and the electrical charge of the sample is discharged via the at least one measuring electrode, the current being measured at the at least one measuring electrode, and the measurement voltage being determined by calculating the existing voltage drop across the sample from the source voltage of the plasma.
A coating comprising: a first region having a first thickness, the first region comprising a manganese oxide, a chromium-manganese oxide, or a combination thereof; a second region having a second thickness, the second region comprising Ni, Fe, W, Cr, Co, Mn, Ti, Mo, V, Nb, Zr, Si, C, or a combination thereof; and an alkaline earth metal, an alkaline earth oxide, an alkaline earth carbonate, an alkaline earth silicate, molybdenum, a molybdenum oxide, a molybdenum carbide, a mixed-metal perovskite, a mixed metal inorganic oxide, or a combination thereof, wherein the first thickness is from 0.1 microns to 20 microns, wherein the second thickness is from 50 microns to 1,200 microns, and wherein the coating is deposited on a substrate, the first region is the outermost region of the coating with respect to the substrate and is exposed to the processing atmosphere; and the second region is underlying the first region and immediately adjacent to the substrate. a first region having a first thickness, the first region comprising a manganese oxide, a chromium-manganese oxide, or a combination thereof; a second region having a second thickness, the second region comprising Ni, Fe, W, Cr, Co, Mn, Ti, Mo, V, Nb, Zr, Si, C, or a combination thereof; and an alkaline earth metal, an alkaline earth oxide, an alkaline earth carbonate, an alkaline earth silicate, molybdenum, a molybdenum oxide, a molybdenum carbide, a mixed-metal perovskite, a mixed metal inorganic oxide, or a combination thereof, wherein the first thickness is from 0.1 microns to 20 microns, wherein the second thickness is from 50 microns to 1,200 microns, and wherein the coating is deposited on a substrate, the first region is the outermost region of the coating with respect to the substrate and is exposed to the processing atmosphere; and the second region is underlying the first region and immediately adjacent to the substrate.
Stretch-blow molding machine with at least one blow molding station in which at least one split blow mold, an adjustable blow nozzle with a clock-controlled valve section, an adjustable stretching rod with one of several different clock-controlled stretching rod drive systems, and with an electronic control unit at least for controlling the stretching rod drive system are provided, wherein the stretching rod drive system comprises at least one combination of an electric servo drive and a pneumatic drive, or only an electric servo drive, characterized in that the electronic control unit arranged in the blow molding station is equipped with hardware and software technology for selectively operating the blow molding station with the respective stretching rod drive system, and that a servomotor of the stretching rod drive system designed as linear motor with a runner has a tubular design with respect to its runner and forms with the runner a coaxial or essentially coaxial direct drive of the stretching rod.
A method of position determination using an image capturing device comprised in user equipment, wherein the user equipment comprises a position sensor and an orientation sensor, the method comprising: receiving position measurements from said position sensor; receiving a selection of one or more anchors based on said position measurements wherein the selection includes the position of each anchor; receiving orientation measurements from said orientation sensor; determining whether any of said one or more anchors is visible to said image capturing device based on said position and orientation measurements; activating said image capturing device to capture an image including one or more selected anchors when any of the selected one or more anchors is visible to said image capturing device; and analyzing the image to determine the position of the image capturing device relative to the one or more anchors. receiving position measurements from said position sensor; receiving a selection of one or more anchors based on said position measurements wherein the selection includes the position of each anchor; receiving orientation measurements from said orientation sensor; determining whether any of said one or more anchors is visible to said image capturing device based on said position and orientation measurements; activating said image capturing device to capture an image including one or more selected anchors when any of the selected one or more anchors is visible to said image capturing device; and analyzing the image to determine the position of the image capturing device relative to the one or more anchors.
A method for use in a wireless transmit/receive unit, WTRU, the method comprising: receiving a first sidelink control information, SCI, from a second WTRU within a WTRU group; receiving from the second WTRU a first resource control information, RCI, within a first set of resources scheduled by the first SCI, wherein the first RCI comprises information about which WTRU in the WTRU group is scheduled to use a second set of resources; determining, based on the first RCI, that one or more subresources within the second set of resources are available; and transmitting data in the one or more subresources. receiving a first sidelink control information, SCI, from a second WTRU within a WTRU group; receiving from the second WTRU a first resource control information, RCI, within a first set of resources scheduled by the first SCI, wherein the first RCI comprises information about which WTRU in the WTRU group is scheduled to use a second set of resources; determining, based on the first RCI, that one or more subresources within the second set of resources are available; and transmitting data in the one or more subresources.
A tissue-removing catheter for removing tissue in a body lumen, the tissue-removing catheter comprising: a drive assembly including a gear rotatable about an axis, a gear extension coupled to the gear and extending axially outward from the gear, and a lock received in and coupled to the gear extension, wherein a distal portion of the gear extension comprises a pair of snap-fit cantilever arms spaced apart and generally opposing one another, wherein each cantilever arm defines a snap opening configured to receive a detent of the lock, wherein the gear extension is configured to be rotatably driven by the gear, and the lock is configured to be rotatably driven by the gear extension; and an elongate drive member received in and coupled to the lock, wherein the drive member is configured to be rotatably driven by the lock, whereby rotation of the gear imparts rotation to the drive member. a drive assembly including a gear rotatable about an axis, a gear extension coupled to the gear and extending axially outward from the gear, and a lock received in and coupled to the gear extension, wherein a distal portion of the gear extension comprises a pair of snap-fit cantilever arms spaced apart and generally opposing one another, wherein each cantilever arm defines a snap opening configured to receive a detent of the lock, wherein the gear extension is configured to be rotatably driven by the gear, and the lock is configured to be rotatably driven by the gear extension; and an elongate drive member received in and coupled to the lock, wherein the drive member is configured to be rotatably driven by the lock, whereby rotation of the gear imparts rotation to the drive member.
A winterized oil based slurry composition including a base oil, an organophillic clay, a polar activator, a wetting agent and a winterizing composition, the winterizing composition comprising: a polyol monoester, a polyol diester, or a mixtures or combinations thereof, wherein the polyol monoesters or polyol diesters are compounds selected from the group consisting of sorbitan monooleate, sorbitan sesquioleate, sorbitan monostearate, sorbitan sesquistearate, sorbitan monolinoleate, sorbitan sesquilinoleate, sorbitan monomyristoleate, sorbitan sesquimyristoleate, sorbitan monopalmitoleate, sorbitan sesquipalmitoleate, or mixtures and combinations thereof, where the winterizing composition reduces the pour point temperature of the oil based slurry composition. a polyol monoester, a polyol diester, or a mixtures or combinations thereof, wherein the polyol monoesters or polyol diesters are compounds selected from the group consisting of sorbitan monooleate, sorbitan sesquioleate, sorbitan monostearate, sorbitan sesquistearate, sorbitan monolinoleate, sorbitan sesquilinoleate, sorbitan monomyristoleate, sorbitan sesquimyristoleate, sorbitan monopalmitoleate, sorbitan sesquipalmitoleate, or mixtures and combinations thereof, where the winterizing composition reduces the pour point temperature of the oil based slurry composition.