mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by one or more processors of a robot, the method comprising: capturing a first infrared image that captures, from a first point of view, an infrared projection projected onto one or more objects in an environment of the robot, the infrared projection projected by an infrared projector of the robot; capturing a second infrared image that captures, from a second point of view, the infrared projection projected onto the one or more objects; generating an edge-depth image that includes first corresponding edge-depth values for only detected edges in the first infrared image and the second infrared image; generating a 3D point cloud for a given object of the one or more objects, wherein generating the 3D point cloud is based on the corresponding edge-depth values determined to correspond to the given object; generating a 3D bounding shape for the given object, wherein generating the 3D bounding shape comprises processing the 3D point cloud using a 3D bounding shape prediction model; and controlling one or more actuators of the robot based on the 3D bounding shape. capturing a first infrared image that captures, from a first point of view, an infrared projection projected onto one or more objects in an environment of the robot, the infrared projection projected by an infrared projector of the robot; capturing a second infrared image that captures, from a second point of view, the infrared projection projected onto the one or more objects; generating an edge-depth image that includes first corresponding edge-depth values for only detected edges in the first infrared image and the second infrared image; generating a 3D point cloud for a given object of the one or more objects, wherein generating the 3D point cloud is based on the corresponding edge-depth values determined to correspond to the given object; generating a 3D bounding shape for the given object, wherein generating the 3D bounding shape comprises processing the 3D point cloud using a 3D bounding shape prediction model; and controlling one or more actuators of the robot based on the 3D bounding shape.
A type 1 interferon receptor antagonist for use in a method of treating tuberculosis in a subject in which type 1 IFN signalling is detrimental to the subject or promotes disease progression, wherein the type 1 interferon receptor antagonist: (i) specifically binds IFNAR1 and inhibits signalling of type 1 IFNs; and (ii) is an anti-type 1 interferon receptor antibody or an antigen-binding fragment thereof.
A fuel supply pump comprising: - a pressurizing chamber formed in a pump housing; - a low-pressure fuel chamber that is formed in fluidly upstream side of the pressurizing chamber; - a damper that is stored in the low-pressure fuel chamber; and the low-pressure fuel chamber is formed in a bottomed tubular concave part, wherein: - a damper cover is provided that is mounted over the damper with an elastic damper holder sandwiched between the damper cover and the damper in a compressed state, the damper cover is arranged inside the bottomed tubular concave part of the low-pressure fuel chamber so that an outermost edge of the damper cover engages with an inner circumferential surface of the bottomed tubular concave part of the low-pressure fuel chamber, an outer circumferential part of the damper and an outer circumferential part of the damper holder are facing the inner circumferential surface of the bottomed tubular concave part, and the outermost edge of the damper cover is welded to the inner circumferential surface of the bottomed tubular concave part, wherein the outermost edge of the damper cover is provided in the bottomed tubular concave part, wherein an annular gap is formed by setting the diameter of the outer circumferential surface of the damper cover to be smaller than an inner circumferential surface of the bottomed tubular concave part at an open end, charaterised in that welding is performed on the interfacial part between the bottomed tubular concave part and the damper cover. - a pressurizing chamber formed in a pump housing; - a low-pressure fuel chamber that is formed in fluidly upstream side of the pressurizing chamber; - a damper that is stored in the low-pressure fuel chamber; and the low-pressure fuel chamber is formed in a bottomed tubular concave part, wherein: - a damper cover is provided that is mounted over the damper with an elastic damper holder sandwiched between the damper cover and the damper in a compressed state, the damper cover is arranged inside the bottomed tubular concave part of the low-pressure fuel chamber so that an outermost edge of the damper cover engages with an inner circumferential surface of the bottomed tubular concave part of the low-pressure fuel chamber, an outer circumferential part of the damper and an outer circumferential part of the damper holder are facing the inner circumferential surface of the bottomed tubular concave part, and the outermost edge of the damper cover is welded to the inner circumferential surface of the bottomed tubular concave part, wherein the outermost edge of the damper cover is provided in the bottomed tubular concave part, wherein an annular gap is formed by setting the diameter of the outer circumferential surface of the damper cover to be smaller than an inner circumferential surface of the bottomed tubular concave part at an open end, charaterised in that welding is performed on the interfacial part between the bottomed tubular concave part and the damper cover.
An electronic device comprising: a front plate (102; 320), at least a portion of which being transparent; a rear plate (380; 670) facing away the front plate (102; 320); a side member (310; 615) coupled to the front plate (102; 320) and the rear plate (380; 670) and comprising a metal portion forming a side surface of the electronic device, and a polymer portion (617; 650) coupled to the metal portion, and wherein a through hole is formed in the metal portion; a display (101; 330) arranged between the front plate (102; 320) and the rear plate (380; 670) to be viewable through the front plate (102; 320); wherein the side member comprises a first surface (615a; 617a) facing the rear plate and at least partially attached to the rear plate, and a trench formed on the first surface (615a; 617a) and opened toward the rear plate; wherein a portion of the polymer portion forms at least a portion of an inner wall of the trench; a mechanical button passing through the through hole and partially extending into the trench; and a waterproof tape disposed on a first area of the first surface (615a; 617a) of the side member and provided to attach the rear plate and the side member. a front plate (102; 320), at least a portion of which being transparent; a rear plate (380; 670) facing away the front plate (102; 320); a side member (310; 615) coupled to the front plate (102; 320) and the rear plate (380; 670) and comprising a metal portion forming a side surface of the electronic device, and a polymer portion (617; 650) coupled to the metal portion, and wherein a through hole is formed in the metal portion; a display (101; 330) arranged between the front plate (102; 320) and the rear plate (380; 670) to be viewable through the front plate (102; 320); wherein the side member comprises a first surface (615a; 617a) facing the rear plate and at least partially attached to the rear plate, and a trench formed on the first surface (615a; 617a) and opened toward the rear plate; wherein a portion of the polymer portion forms at least a portion of an inner wall of the trench; a mechanical button passing through the through hole and partially extending into the trench; and a waterproof tape disposed on a first area of the first surface (615a; 617a) of the side member and provided to attach the rear plate and the side member.
Method for processing optical workpieces, in particular lenses or spectacle lenses, wherein the workpieces are conveyed by means of a transport system to processing lines according to an assignment, characterised in that the assignment of already assigned workpieces is checked upon detection of a new workpiece or order to be processed and/or in each case before actual transfer of a workpiece from the transport system to the assigned processing line, and if a processing device of a processing line which is irreplaceable for the processing or a processing line in general or a corresponding transfer system, temporarily or permanently, has failed or is blocked or is occupied or overoccupied, for example by other workpieces, is replaced by a new assignment. wherein the workpieces are conveyed by means of a transport system to processing lines according to an assignment, characterised in that the assignment of already assigned workpieces is checked upon detection of a new workpiece or order to be processed and/or in each case before actual transfer of a workpiece from the transport system to the assigned processing line, and if a processing device of a processing line which is irreplaceable for the processing or a processing line in general or a corresponding transfer system, temporarily or permanently, has failed or is blocked or is occupied or overoccupied, for example by other workpieces, is replaced by a new assignment.
Wire erosion machine with open wire guidance having an upper wire guide head, a lower wire guide head and a threading device for threading wire electrodes from the upper wire guide head of the wire erosion machine through the working space of the wire erosion machine into the lower wire guide head of the wire erosion machine, the wire electrodes emerging obliquely from the upper wire guide head as a result of the arrangement of the upper wire guide relative to the upper power supply, characterized in that the threading device has an auxiliary guide that can be positioned between the upper and lower wire guide head (10, 20), wherein the auxiliary guide for the guidance of the wire electrode emerging obliquely from the upper wire guide head and to be threaded, or its wire electrode tip, has a guide channel that is configured so as to be open in the form of a groove.
A printing apparatus comprising: an ejection unit including a nozzle surface configured to eject a liquid droplet, the nozzle surface facing a printing surface of a medium; a transport unit configured to transport the medium in a transport direction; a steam application unit configured to apply steam to the printing surface, the steam application unit being provided upstream of the ejection unit in the transport direction; a medium compression unit configured to compress the medium, the medium compression unit being provided upstream of the ejection unit in the transport direction and downstream of the steam application unit in the transport direction; a carriage configured to accommodate the ejection unit and move in a scanning direction intersecting the transport direction; and a carriage shaft configured to support the carriage, wherein the steam application unit is coupled to the carriage, the steam application unit being on an opposite side of the carriage shaft to the carriage in the transport direction. an ejection unit including a nozzle surface configured to eject a liquid droplet, the nozzle surface facing a printing surface of a medium; a transport unit configured to transport the medium in a transport direction; a steam application unit configured to apply steam to the printing surface, the steam application unit being provided upstream of the ejection unit in the transport direction; a medium compression unit configured to compress the medium, the medium compression unit being provided upstream of the ejection unit in the transport direction and downstream of the steam application unit in the transport direction; a carriage configured to accommodate the ejection unit and move in a scanning direction intersecting the transport direction; and a carriage shaft configured to support the carriage, wherein the steam application unit is coupled to the carriage, the steam application unit being on an opposite side of the carriage shaft to the carriage in the transport direction.
A light-emitting element comprising: a first electrode (102, 302) and a second electrode (104, 304), a first layer (121, 321) including first and second organic compounds, the first layer (121, 321) being formed between the first electrode (102, 302) and the second electrode (104, 304) wherein the first organic compound is emitting a first light and the second organic compound has an electron transporting property, and a second layer (122, 322) including third and fourth organic compounds, the second layer (122, 322) being formed between the first layer (121, 321) and the second electrode (104, 304) wherein the third organic compound is capable of emitting a second light, wherein a difference between a peak value of an emission spectrum of the first light and a peak value of an emission spectrum of the second light is at most 30 nm and wherein the third organic compound has an electron trap property and the fourth organic compound has an electron transporting property, wherein the first layer (121, 321) is in contact with the second layer (122, 322); characterized in that a lowest unoccupied molecular orbital level of the third organic compound is lower than a lowest unoccupied molecular orbital level of the fourth organic compound by 0.3 eV or more. a first electrode (102, 302) and a second electrode (104, 304), a first layer (121, 321) including first and second organic compounds, the first layer (121, 321) being formed between the first electrode (102, 302) and the second electrode (104, 304) wherein the first organic compound is emitting a first light and the second organic compound has an electron transporting property, and a second layer (122, 322) including third and fourth organic compounds, the second layer (122, 322) being formed between the first layer (121, 321) and the second electrode (104, 304) wherein the third organic compound is capable of emitting a second light, wherein a difference between a peak value of an emission spectrum of the first light and a peak value of an emission spectrum of the second light is at most 30 nm and wherein the third organic compound has an electron trap property and the fourth organic compound has an electron transporting property, wherein the first layer (121, 321) is in contact with the second layer (122, 322);
Calibration rotor for a horizontal balancing machine, said rotor being designed for being driven by means for driving said balancing machine, and comprising at least: - a main barrel which has a longitudinal axis A and of which the periphery comprises points for attaching balance weights which are evenly distributed in an axial and angular manner around said axis A, and - means (18, 20) for rotatably guiding said main barrel, which means are arranged at each end (14, 16) of said main barrel, characterised in that the rotor is modular, and in that said guide means (18, 20) comprise adapters (40, 42) suitable for being attached to ends (14, 16) of the barrel, each adapter (40, 42) being of a first type for rotatably guiding the barrel on rollers (22, 24), or of a second type for rotatably guiding the barrel in a half-shell, and each type of adapter (40, 42) having the same predetermined moment of inertia and being able to be interchangeably attached to the barrel. - a main barrel which has a longitudinal axis A and of which the periphery comprises points for attaching balance weights which are evenly distributed in an axial and angular manner around said axis A, and - means (18, 20) for rotatably guiding said main barrel, which means are arranged at each end (14, 16) of said main barrel,
A flooring system comprising: a subfloor; and a flooring product positioned adjacent the subfloor, the flooring product comprising: a substrate comprising a core, the core comprising a melt-mixed mixture of: a binder comprising a polymer and a plasticizer, the polymer having a T g of from 32°C (90°F) to 66°C (150°F) and selected from polyethylene terephthalate; a vinyl chloride homo-polymer, a co-polymer or a terpolymer of vinyl chloride; acrylo-butadiene styrene; polypropylene; polyethylene; a polyester; an acrylate; and a combination of two or more thereof, and the plasticizer present in an amount ranging from 1 wt.% to 12 wt. % based on the total weight of the core; and a filler comprising a material selected from limestone, clay, talc, or a combination thereof; an underlayment between the substrate and the subfloor; wherein the binder and filler are present in a weight ratio of from 1:1 to 1:3. a subfloor; and a flooring product positioned adjacent the subfloor, the flooring product comprising: a substrate comprising a core, the core comprising a melt-mixed mixture of: a binder comprising a polymer and a plasticizer, the polymer having a T g of from 32°C (90°F) to 66°C (150°F) and selected from polyethylene terephthalate; a vinyl chloride homo-polymer, a co-polymer or a terpolymer of vinyl chloride; acrylo-butadiene styrene; polypropylene; polyethylene; a polyester; an acrylate; and a combination of two or more thereof, and the plasticizer present in an amount ranging from 1 wt.% to 12 wt. % based on the total weight of the core; and a filler comprising a material selected from limestone, clay, talc, or a combination thereof; an underlayment between the substrate and the subfloor; a binder comprising a polymer and a plasticizer, the polymer having a T g of from 32°C (90°F) to 66°C (150°F) and selected from polyethylene terephthalate; a vinyl chloride homo-polymer, a co-polymer or a terpolymer of vinyl chloride; acrylo-butadiene styrene; polypropylene; polyethylene; a polyester; an acrylate; and a combination of two or more thereof, and the plasticizer present in an amount ranging from 1 wt.% to 12 wt. % based on the total weight of the core; and a filler comprising a material selected from limestone, clay, talc, or a combination thereof; wherein the binder and filler are present in a weight ratio of from 1:1 to 1:3.
A battery apparatus comprising: a battery pack (110, 210) including a plurality of battery modules (211, 212, 213, 214) and a bus-bar (221, 222, 223) connecting two battery modules among the plurality of battery modules (211, 212, 213, 214); a switch (121, 122, 241, 242) configured to control current supply of the battery pack (110, 210); a wire (231, 232) connecting the battery pack (110, 210) and the switch (121, 122, 241, 242); a voltage measuring circuit configured to measure a voltage of the bus-bar (221, 222, 223), a voltage of the battery pack (110, 210), and voltages of the plurality of battery modules (211, 212, 213, 214); and a processor configured to diagnose a connection status of the bus-bar (221, 222, 223) and a connection status of the wire (231, 232) based on a current of the battery pack (110, 210), the voltage of the bus-bar (221, 222, 223), the voltage of the battery pack (110, 210), and the voltages of the plurality of battery modules (211, 212, 213, 214). a battery pack (110, 210) including a plurality of battery modules (211, 212, 213, 214) and a bus-bar (221, 222, 223) connecting two battery modules among the plurality of battery modules (211, 212, 213, 214); a switch (121, 122, 241, 242) configured to control current supply of the battery pack (110, 210); a wire (231, 232) connecting the battery pack (110, 210) and the switch (121, 122, 241, 242); a voltage measuring circuit configured to measure a voltage of the bus-bar (221, 222, 223), a voltage of the battery pack (110, 210), and voltages of the plurality of battery modules (211, 212, 213, 214); and a processor configured to diagnose a connection status of the bus-bar (221, 222, 223) and a connection status of the wire (231, 232) based on a current of the battery pack (110, 210), the voltage of the bus-bar (221, 222, 223), the voltage of the battery pack (110, 210), and the voltages of the plurality of battery modules (211, 212, 213, 214).
A tool collet for creating a lanyard attachment point on a hand tool, the tool collet comprising: a collet body having a first body side, a second body side, a peripheral body surface between the first body side and the second body side, a collet through opening with an opening surface, and an annular groove in one of the first body side, the second body side or the peripheral body surface of the collet body, the collet body being divided into a first body component and a second body component fixedly attached to the first body component and wherein the through opening is formed by the first body component and the second body component and sized to surround, capture and securely attach to an elongated body of a hand tool, wherein the tool collet is characterized by a lanyard ring having an annular end (84, 86) disposed and captured within the annular groove wherein the lanyard ring freely slides along the annular groove; and one or more fastening members that extends between the first body component and the second body component wherein the one or more fastening members are adapted to securely fix the first body component to the second body component. a collet body having a first body side, a second body side, a peripheral body surface between the first body side and the second body side, a collet through opening with an opening surface, and an annular groove in one of the first body side, the second body side or the peripheral body surface of the collet body, the collet body being divided into a first body component and a second body component fixedly attached to the first body component and wherein the through opening is formed by the first body component and the second body component and sized to surround, capture and securely attach to an elongated body of a hand tool, wherein the tool collet is characterized by a lanyard ring having an annular end (84, 86) disposed and captured within the annular groove wherein the lanyard ring freely slides along the annular groove; and one or more fastening members that extends between the first body component and the second body component wherein the one or more fastening members are adapted to securely fix the first body component to the second body component.
Method for surface modifying, in particular hydrophobing, of microstructured components having a polar surface, in particular for high-pressure applications, characterized in that a microstructured component comprising silicon is brought into contact, in particular treated, with a modification reagent, the surface properties of the substrate being modified by chemical and/or physical interaction between the component surface and the modification reagent, the modification reagent comprising at least one modifier, the modification reagent containing the modifier in concentrations of from 0.001 to 2 mol/l, based on the modification reagent, and wherein as the modifier a silane corresponding to the general formula I R 1 4-(n+m) SiR 2 m X n with R 1 = C 8 - to C 18 -alkyl; R 2 = C 1 - to C 3 -alkyl; X = halide; alkoxy; and n = 1 to 3 and m = 0 to 2, is used. R 1 = C 8 - to C 18 -alkyl; R 2 = C 1 - to C 3 -alkyl; X = halide; alkoxy; and n = 1 to 3 and m = 0 to 2,