mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying circulating melanoma cells (CMCs) in a biological sample comprising: (a) contacting a biological sample of non-enriched blood with one or more detectable agents, wherein at least one of said one or more detectable agents is specific for a biomarker of CMCs, wherein the non-enriched sample is a sample not enriched for any specific population or subpopulation of nucleated cells; (b) determining the presence or absence of said one or more detectable agents in or on nucleated cells in the sample; and (c) assessing the morphology of the nucleated cells having said one or more detectable agents, wherein the CMCs are identified based on a combination of the presence or absence of said one or more detectable agents and morphological characteristics of the nucleated cells. (a) contacting a biological sample of non-enriched blood with one or more detectable agents, wherein at least one of said one or more detectable agents is specific for a biomarker of CMCs, wherein the non-enriched sample is a sample not enriched for any specific population or subpopulation of nucleated cells; (b) determining the presence or absence of said one or more detectable agents in or on nucleated cells in the sample; and (c) assessing the morphology of the nucleated cells having said one or more detectable agents,
An assembly for a motor vehicle, the assembly comprising: an engine assembly; a first engine catch hook coupled to the engine assembly, wherein the first engine catch hook comprises a hook portion configured to engage a subframe of the motor vehicle during a collision and transfer load from the engine assembly to the subframe; and characterised by: a second engine catch hook coupled to the engine assembly, wherein the second engine catch hook comprises a hook portion vertically spaced apart from the hook portion of the first engine catch hook and configured to engage a catch structure during the collision and transfer load from the engine into the catch structure, wherein the catch structure is at an upper end of a bulkhead structure between an engine bay and an interior of the vehicle. an engine assembly; a first engine catch hook coupled to the engine assembly, wherein the first engine catch hook comprises a hook portion configured to engage a subframe of the motor vehicle during a collision and transfer load from the engine assembly to the subframe; and characterised by: a second engine catch hook coupled to the engine assembly, wherein the second engine catch hook comprises a hook portion vertically spaced apart from the hook portion of the first engine catch hook and configured to engage a catch structure during the collision and transfer load from the engine into the catch structure, wherein the catch structure is at an upper end of a bulkhead structure between an engine bay and an interior of the vehicle.
A vehicle comprising: a vehicle body; a thruster nozzle including a wall having a plurality of circumferentially-disposed features; and a brace attached with the vehicle body and disposed at least partially around the thruster nozzle, the brace having brace features corresponding with the features of the thruster nozzle; characterised in that: each brace feature includes spaced apart walls (38a,38b) that define a groove therebetween that has a groove bottom; and each thruster nozzle feature includes a tongue that has a tip and extends into a corresponding one of the grooves to form a respective tongue-and-groove joint that includes a thermal expansion gap between the tip and the groove bottom and is configured to permit relative axial movement between the thruster nozzle and the brace and stop relative off-axial movement between the thruster nozzle and the brace. a vehicle body; a thruster nozzle including a wall having a plurality of circumferentially-disposed features; and a brace attached with the vehicle body and disposed at least partially around the thruster nozzle, the brace having brace features corresponding with the features of the thruster nozzle; characterised in that: each brace feature includes spaced apart walls (38a,38b) that define a groove therebetween that has a groove bottom; and each thruster nozzle feature includes a tongue that has a tip and extends into a corresponding one of the grooves to form a respective tongue-and-groove joint that includes a thermal expansion gap between the tip and the groove bottom and is configured to permit relative axial movement between the thruster nozzle and the brace and stop relative off-axial movement between the thruster nozzle and the brace. each brace feature includes spaced apart walls (38a,38b) that define a groove therebetween that has a groove bottom; and each thruster nozzle feature includes a tongue that has a tip and extends into a corresponding one of the grooves to form a respective tongue-and-groove joint that includes a thermal expansion gap between the tip and the groove bottom and is configured to permit relative axial movement between the thruster nozzle and the brace and stop relative off-axial movement between the thruster nozzle and the brace.
A method of identifying and detecting sand inflow into a wellbore, the method comprising: obtaining a sample data set, wherein the sample data set is a sample of an acoustic signal originating within a wellbore comprising a fluid; detecting a broadband signal within the sample data set, wherein the broadband signal at least includes a portion of the sample data set at frequencies above 0.5 kHz, determining frequency domain features of the broadband signal, wherein the frequency domain features are indicative of the acoustic signal across a frequency spectrum; comparing the frequency domain features with an acoustic signature, wherein the acoustic signature comprises thresholds or ranges for the frequency domain features; determining that the frequency domain features meet or exceed the thresholds or ranges of the acoustic signature; and determining the presence of sand inflow into the wellbore based on determining that the frequency domain features meet or exceed the thresholds or ranges of the acoustic signature. obtaining a sample data set, wherein the sample data set is a sample of an acoustic signal originating within a wellbore comprising a fluid; detecting a broadband signal within the sample data set, wherein the broadband signal at least includes a portion of the sample data set at frequencies above 0.5 kHz, determining frequency domain features of the broadband signal, wherein the frequency domain features are indicative of the acoustic signal across a frequency spectrum; comparing the frequency domain features with an acoustic signature, wherein the acoustic signature comprises thresholds or ranges for the frequency domain features; determining that the frequency domain features meet or exceed the thresholds or ranges of the acoustic signature; and determining the presence of sand inflow into the wellbore based on determining that the frequency domain features meet or exceed the thresholds or ranges of the acoustic signature.
A composition for an electrochemical device electrode comprising: a conductive material; a particulate polymer including a polar group-containing monomer unit; a water-soluble polymer; and water, wherein the polar group-containing monomer unit is at least one selected from the group consisting of a hydrophilic group-containing monomer unit and a nitrile group-containing monomer unit, wherein the hydrophilic group-containing monomer unit is selected from the group consisting of a carboxylic acid group-containing monomer unit, a hydroxyl group-containing monomer unit, a sulfonate group-containing monomer unit, and a phosphate group-containing monomer unit; characterized in that the composition is a conductive material paste for an electrochemical device electrode which does not contain an electrode active material. a conductive material; a particulate polymer including a polar group-containing monomer unit; a water-soluble polymer; and water, wherein the polar group-containing monomer unit is at least one selected from the group consisting of a hydrophilic group-containing monomer unit and a nitrile group-containing monomer unit, wherein the hydrophilic group-containing monomer unit is selected from the group consisting of a carboxylic acid group-containing monomer unit, a hydroxyl group-containing monomer unit, a sulfonate group-containing monomer unit, and a phosphate group-containing monomer unit; characterized in that the composition is a conductive material paste for an electrochemical device electrode which does not contain an electrode active material.
Fluid treatment apparatus for conducting a physical or chemical reaction in which a slurry and a gas are contacted such that the slurry and at least a component of the gas partake in the physical or chemical reaction, the fluid treatment apparatus comprising at least two chambers (32, 36, 41, 44, 63, 52, 54, 63, 68, 69) being first (32, 68) and second (36, 63, 69) chambers through which a fluid can flow, the two chambers being separated by at least one choke nozzle (1, 22, 23, 34, 47, 51, 66, 67) which has an entrance in the first chamber and an exit (7, 28) in the second chamber, wherein the choke nozzle comprises a converging section (3, 11) at its entrance, a throat section (4, 12, 30), a backward-facing step (5, 13) immediately after the throat section, and an exit section at its exit which opens into the second chamber wherein the choke nozzle (1, 22, 23, 34, 47, 51, 66, 67) is configured to promote cavitation resulting from choked flow the apparatus being characterized in that the second chamber includes one or more gas inlets (26, 27, 29, 48, 53, 65) having their axes extending transversely in a generally tangential direction relative to slurry flow so that a swirling action of diffusing gas in the slurry results, and in that the exit section diverges with a cone angle of from 1 to 8 degrees.
A thrombolytic agent for use in the treatment of thromboembolism, wherein the treatment comprises administering the thrombolytic agent directly to the thromboembolism in the presence of ultrasound, wherein the total dose of thrombolytic agent administered is between 1 and 12 mg and the time over which the total dose is delivered is between 1 and 6 hours.
A semiconductor device, comprising: a semiconductor substrate; first and second metallization layers (128a, 128b), the second metallization layer being spaced apart from the semiconductor substrate with the first metallization layer therebetween, wherein the second metallization layer includes a first portion and a second portion extending laterally from the first portion; a dielectric between the first and second metallization layers, the dielectric having a first surface in direct contact with the first metallization layer, a second surface in direct contact with the second portion of the second metallization layer, and a conductive via directly between the first metallization layer and the second portion of the second metallization layer; and a conductive interconnect extending at least partially through the semiconductor substrate and including a first end and a second end, the first end of the conductive interconnect being in direct contact with the first portion of the second metallization layer, the second end being opposite the first end, wherein the first metallization layer is in electrical contact with the conductive interconnect via the second metallization layer. a semiconductor substrate; first and second metallization layers (128a, 128b), the second metallization layer being spaced apart from the semiconductor substrate with the first metallization layer therebetween, wherein the second metallization layer includes a first portion and a second portion extending laterally from the first portion; a dielectric between the first and second metallization layers, the dielectric having a first surface in direct contact with the first metallization layer, a second surface in direct contact with the second portion of the second metallization layer, and a conductive via directly between the first metallization layer and the second portion of the second metallization layer; and a conductive interconnect extending at least partially through the semiconductor substrate and including a first end and a second end, the first end of the conductive interconnect being in direct contact with the first portion of the second metallization layer, the second end being opposite the first end, wherein the first metallization layer is in electrical contact with the conductive interconnect via the second metallization layer.
Sealing cap for a container for holding a medical liquid, comprising - a cap body, which delimits an interior space and comprises at least one opening (321, 421), and - at least one connecting device (3, 4) which is arranged on the cap body and to which is connectible a conveying device (5, 6) for delivering a medical liquid into the container or for removing a medical liquid from the container, wherein the connecting device (3, 4) comprises a sealing element (31, 41) which is arranged on the cap body and which is arranged at the opening (321, 421) in order to close it in a sealing manner and which comprises an outer side (311, 411), which faces away from the interior space and to which is attachable the conveying device (5, 6), in order to connect the conveying device (5, 6) in an attachment direction, - wherein the sealing element (31, 41) is designed to be convex on the outer side (311, 411), - wherein the at least one connecting device (3, 4) comprises a break-off piece (30, 40), which is firmly connected in an initial state to the cap body and covers the outer side (311, 411) of the sealing element (31, 41) toward the outside and - the break-off piece (30, 40) is connected via a predetermined breaking point (300, 400) to the cap body such that the break-off piece (30, 40) is detachable from the cap body along the predetermined breaking point (300, 400), characterised in that the sealing element (31, 41) with its outer side (311, 411) protrudes beyond a top side of the cap body toward the outside and/or that a sealing head (310, 410) of the sealing element (31, 41) extends through the opening (321, 421) and forms the outer side (311, 411) protruding beyond a top side of the cap body toward the outside. - a cap body, which delimits an interior space and comprises at least one opening (321, 421), and - at least one connecting device (3, 4) which is arranged on the cap body and to which is connectible a conveying device (5, 6) for delivering a medical liquid into the container or for removing a medical liquid from the container, wherein the connecting device (3, 4) comprises a sealing element (31, 41) which is arranged on the cap body and which is arranged at the opening (321, 421) in order to close it in a sealing manner and which comprises an outer side (311, 411), which faces away from the interior space and to which is attachable the conveying device (5, 6), in order to connect the conveying device (5, 6) in an attachment direction, - wherein the sealing element (31, 41) is designed to be convex on the outer side (311, 411), - wherein the at least one connecting device (3, 4) comprises a break-off piece (30, 40), which is firmly connected in an initial state to the cap body and covers the outer side (311, 411) of the sealing element (31, 41) toward the outside and - the break-off piece (30, 40) is connected via a predetermined breaking point (300, 400) to the cap body such that the break-off piece (30, 40) is detachable from the cap body along the predetermined breaking point (300, 400),
A method for controlling the movement of a machine tool system to machine a part, the method comprising the steps of: receiving a machine configuration corresponding to the machine tool system, the machine configuration identifying a plurality of moveable axes (150, 152, 154, 156, 158) of the machine tool system and a plurality of interdependencies therebetween; configuring with a software controller a virtual kinematics machine based on the machine configuration and a generalized kinematics library, the virtual kinematics machine includes a plurality of virtual axes (250, 252, 254, 256, 258), the plurality of virtual axes (250, 252, 254, 256, 258) having a one-to-one correspondence to the plurality of moveable axes (150, 152, 154, 156, 158) of the machine tool system, the plurality of virtual axes (250, 252, 254, 256, 258) being interrelated based on the plurality of interdependencies identified in the machine configuration; and receiving input data corresponding to a shape of the part; wherein the virtual kinematics machine generates positions for the plurality of moveable axes (150, 152, 154, 156, 158) of the machine tool system based on the input data. receiving a machine configuration corresponding to the machine tool system, the machine configuration identifying a plurality of moveable axes (150, 152, 154, 156, 158) of the machine tool system and a plurality of interdependencies therebetween; configuring with a software controller a virtual kinematics machine based on the machine configuration and a generalized kinematics library, the virtual kinematics machine includes a plurality of virtual axes (250, 252, 254, 256, 258), the plurality of virtual axes (250, 252, 254, 256, 258) having a one-to-one correspondence to the plurality of moveable axes (150, 152, 154, 156, 158) of the machine tool system, the plurality of virtual axes (250, 252, 254, 256, 258) being interrelated based on the plurality of interdependencies identified in the machine configuration; and receiving input data corresponding to a shape of the part; wherein the virtual kinematics machine generates positions for the plurality of moveable axes (150, 152, 154, 156, 158) of the machine tool system based on the input data.
A grease composition, comprising: a base oil; a metal soap thickener selected from the group consisting of lithium hydroxystearate, lithium stearate, calcium stearate, magnesium stearate and aluminum stearate; and nanoparticles formed of single crystal diamond and have an average primary particle size of 5 nm or smaller, wherein the average primary particle size is measured by drying the nanoparticles in powder form and observing the resulting nanoparticle powder with a transmission electron microscope, wherein the amount of the nanoparticles is 0.001 to 0.2 mass% based on the total amount of the grease composition, and wherein the amount of the metal soap thickener is 2 to 35 mass% based on the total amount of the grease composition. a base oil; a metal soap thickener selected from the group consisting of lithium hydroxystearate, lithium stearate, calcium stearate, magnesium stearate and aluminum stearate; and nanoparticles formed of single crystal diamond and have an average primary particle size of 5 nm or smaller, wherein the average primary particle size is measured by drying the nanoparticles in powder form and observing the resulting nanoparticle powder with a transmission electron microscope, wherein the amount of the nanoparticles is 0.001 to 0.2 mass% based on the total amount of the grease composition, and wherein the amount of the metal soap thickener is 2 to 35 mass% based on the total amount of the grease composition.
A healing abutment configured to be mounted in an implant prior to placing a prosthetic tooth, the healing abutment comprising a foot and a head which are aligned along an axis Z and connected by a clamping screw extending along the axis Z, the foot comprising a lower foot part configured to cooperate with the implant and an upper foot part, the head comprising a lower head part configured to cooperate with the upper foot part, so as to mount the head onto the foot, and an upper head part having a determined shape, said healing abutment comprising at least one reference member defining an oriented reference frame (X, Y, Z) in at least two dimensions and configured to cooperate with the foot in order to define a plurality of elemental positions of the oriented reference frame (X, Y, Z) with respect to said foot along the axis Z, said reference member being movably mounted as an insert on the upper head part in order to allow the selection of at least one optimal elemental position among the plurality of elemental positions according to the determined shape of said upper head part.
A spiral tube comprising, a tube body in which a strip is connected in a spiral shape and welded at a front end thereof; and a stiffener provided on an inner surface of the tube body, wherein the stiffener has a flat plate shape having a width and a thickness, characterized in that the stiffener is joined with its width extending in a direction, orthogonal to or obliquely to the inner surface of the tube body.
A housing, comprising: a substrate made of metal; at least one slot penetrating through the substrate in a thickness direction of the substrate; and a filling layer received in the at least one slot and comprising an insulating sub-layer and a printed sub-layer located on the insulating sub-layer, characterised in that: the printed sub-layer is formed of a transparent polymer film subjected to a printing process, wherein the transparent polymer film is formed of polyethylene terephthalate, PET, having a high gloss surface and a matte surface, wherein the high gloss surface is subjected to the printing process and is in contact with the insulating sub-layer. and wherein the matte surface is exposed outside. a substrate made of metal; at least one slot penetrating through the substrate in a thickness direction of the substrate; and a filling layer received in the at least one slot and comprising an insulating sub-layer and a printed sub-layer located on the insulating sub-layer, characterised in that: the printed sub-layer is formed of a transparent polymer film subjected to a printing process, wherein the transparent polymer film is formed of polyethylene terephthalate, PET, having a high gloss surface and a matte surface, wherein the high gloss surface is subjected to the printing process and is in contact with the insulating sub-layer. and wherein the matte surface is exposed outside.
Tool for machining a workpiece, having - a longitudinal axis, wherein - the tool has a first machining region and a second machining region, wherein - the first machining region is spaced along the longitudinal axis apart from the second machining region, characterised in that - a chip protection barrier is arranged between the first machining region and the second machining region, which is adapted to prevent chips removed from a workpiece from passing from one machining region (5, 7), selected from the first machining region and the second machining region, into the other machining region (7, 5), selected from the second machining region and the first machining region. - a longitudinal axis, wherein - the tool has a first machining region and a second machining region, wherein - the first machining region is spaced along the longitudinal axis apart from the second machining region, - a chip protection barrier is arranged between the first machining region and the second machining region, which is adapted to prevent chips removed from a workpiece from passing from one machining region (5, 7), selected from the first machining region and the second machining region, into the other machining region (7, 5), selected from the second machining region and the first machining region.