mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for learning a function configured for reconstructing, for a class of real objects, wherein the class of real objects is a class of human bodies, a 3D modeled object that represents an instance of the class from a depth map of the instance, wherein the depth map of the instance is acquired by a depth sensor, the 3D modeled object modeling the 3D shape of the instance in the pose of the instance as represented by the depth map, the method comprising: - providing a parametric model of the class having shape and pose parameters; - creating a database, the creation of the database including: ▪ varying parameters of the parametric model to generate 3D modeled objects that each represent a respective instance of the class; ▪ synthesizing, for each generated 3D modeled object, a respective depth map of the respective instance represented by the generated 3D modeled object; ▪ associating each synthesized depth map to a corresponding generated 3D modeled object; and - learning the function based on the database; wherein synthesizing a respective depth map for each generated 3D modeled object includes: - providing a virtual viewpoint; and - determining a theoretic depth map that represents exact depth from the virtual viewpoint to the generated 3D modeled object; wherein synthesizing a respective depth map for each generated 3D modeled object further includes adding a perturbation to the theoretic depth map at least at locations that correspond to contours of the generated 3D modeled object; and wherein adding a perturbation includes adding a random noise to the depth map; the addition of the random noise corresponding mathematically to: I ij = I ij + ∇ I ij ∇ I max ∗ N ij where / ij is an i × j pixel location depth value in the depth image, ∇ I ij /∇ I max is a normalized depth image gradient value at the i × j pixel location, and N ij is a real number sampled from a Gaussian distribution with mean 0 and variance between 1 and 5 cm. - providing a parametric model of the class having shape and pose parameters; - creating a database, the creation of the database including: ▪ varying parameters of the parametric model to generate 3D modeled objects that each represent a respective instance of the class; ▪ synthesizing, for each generated 3D modeled object, a respective depth map of the respective instance represented by the generated 3D modeled object; ▪ associating each synthesized depth map to a corresponding generated 3D modeled object; and ▪ varying parameters of the parametric model to generate 3D modeled objects that each represent a respective instance of the class; ▪ synthesizing, for each generated 3D modeled object, a respective depth map of the respective instance represented by the generated 3D modeled object; ▪ associating each synthesized depth map to a corresponding generated 3D modeled object; and - learning the function based on the database; - providing a virtual viewpoint; and - determining a theoretic depth map that represents exact depth from the virtual viewpoint to the generated 3D modeled object;
A substrate processing apparatus that has an electrostatic chuck therein, the electrostatic chuck comprising: an electrode sheet including an attraction electrode; a metal base having the electrode sheet laminated on an upper surface side thereof; an internal power supply for obtaining power to be supplied to the attraction electrode; and a voltage boost circuit for boosting voltage of the power obtained by the internal power supply, wherein the internal power supply comprises a solar cell, which is disposed on the upper surface side of the metal base or on a substrate attracting surface side of the electrode sheet, the substrate processing apparatus being characterized in that it is configured for generating optical energy to process a substrate which is attracted and held by the electrostatic chuck, and in that the solar cell is configured to receive and convert the optical energy in the substrate processing apparatus into the power during the processing of the substrate, to thereby cause the electrode sheet to attract and hold the substrate. an electrode sheet including an attraction electrode; a metal base having the electrode sheet laminated on an upper surface side thereof; an internal power supply for obtaining power to be supplied to the attraction electrode; and a voltage boost circuit for boosting voltage of the power obtained by the internal power supply, wherein the internal power supply comprises a solar cell, which is disposed on the upper surface side of the metal base or on a substrate attracting surface side of the electrode sheet, the substrate processing apparatus being characterized in that it is configured for generating optical energy to process a substrate which is attracted and held by the electrostatic chuck, and in that the solar cell is configured to receive and convert the optical energy in the substrate processing apparatus into the power during the processing of the substrate, to thereby cause the electrode sheet to attract and hold the substrate.
A vacuum generator driven by compressed air flow and arranged to supply vacuum (VaC) to a vacuum gripper means, comprising a vacuum flow connection arranged to be brought in vacuum flow connection (VaC) with the vacuum gripper means in order to supply vacuum to the vacuum gripper means in result of the compressed air flow, wherein the vacuum flow connection in addition comprises a second connection arranged to supply a compressed air flow to the vacuum gripper means, and wherein the vacuum flow connection comprises a valve which is actuated by a spring force in an open first lower position and to open said vacuum flow connection to the vacuum gripper means and arranged to close the vacuum flow connection in result of an air pressure from the compressed air flow in the second connection in a closed second higher position, wherein the valve comprises a valve body movable in a seat, the valve body having a suction side against a vacuum side in the open first lower position of the valve, as well as a pressure side at least partly closing the second connection in the open first lower position of the valve, characterized in that the valve body in the region of its suction side carries an undercut running about the valve body, the undercut being dimensioned to seal against an inner side sealing surface of the seat in result of the compressed air flow, in the second closed higher position of the valve body.
Electric/electronic installation device with an insert to be housed in an installation box, wherein the insert provides connecting elements at the rear for connection to a building installation system and interacts retentively with a support fixed at the installation box via at least one catch spring installed at the back of the housing of the insert, and wherein the insert has a top piece at the front, characterized by the fact that at the rear of the housing of the insert there is at least one shaft to take up a retaining spring, and that on the one hand the retaining spring can be fastened in the shaft by at least one first support, and that on the other hand the retaining spring provides at least one second support protruding over the shaft, which, to avoid demounting, snaps into the support at the installation box.
An airfoil comprising: an airfoil body defining a first major surface of the airfoil; an internal cavity in the airfoil body, opposite the first major surface; a rib extending along the internal cavity; an inner cover bonded to the airfoil body over the internal cavity, the inner cover comprising a coupling element; and an outer cover bonded to the airfoil body over the inner cover, the outer cover defining a second major surface of the airfoil, wherein the coupling element comprises a side section extending transversely from the outer cover to a longitudinal section of the coupling element, the longitudinal section of the coupling element extending generally parallel to the outer cover, and characterised in that the coupling element extends along the internal cavity in cooperative engagement with the rib. an airfoil body defining a first major surface of the airfoil; an internal cavity in the airfoil body, opposite the first major surface; a rib extending along the internal cavity; an inner cover bonded to the airfoil body over the internal cavity, the inner cover comprising a coupling element; and an outer cover bonded to the airfoil body over the inner cover, the outer cover defining a second major surface of the airfoil, wherein the coupling element comprises a side section extending transversely from the outer cover to a longitudinal section of the coupling element, the longitudinal section of the coupling element extending generally parallel to the outer cover, and characterised in that the coupling element extends along the internal cavity in cooperative engagement with the rib.
A skin care composition comprising at least two oil phases dispersed in a continuous aqueous phase comprising a thickening agent, wherein a first oil phase of the oil phases is volatile and comprises at least 80% of a volatile oil by weight of the oil phase, and has different composition from the other oil phase, and wherein the composition contains no more than 1.0 wt % of an emulsifier.
Container guiding device (1a, 1b, 1c) comprising a railing with two guide elements (3a, 3b, 3c) which are mutually spaced and which extend in the transport direction of a container transport device, for guiding containers or packages, wherein at least guide element (3a, 3b, 3c) can be adjusted transversely to the transport direction relative to the other guide element (3a, 3b, 3c) by means of an adjusting device (4a, 4b, 4c), this device having a drive body (5a, 5b) which is of one piece or multiple pieces and can be rotated about a rotational axis, and a coupling element (6a, 6b, 6c) which is connected to the at least one guide element (3a, 3b, 3c), which is connected to the drive body (5a, 5b) in such a way that a rotation of the drive body (5a, 5b) produces an adjustment of the coupling element (6a, 6b, 6c) transversely to the transport direction, characterised in that the drive body (5a, 5b), which is of one piece or multiple pieces, has a control element (7a, 7b) which is in engagement with the coupling element (6a, 6b, 6c), which exhibits at least in sections a spiral-shaped path about the rotation axis of the drive body (5a, 5b), wherein the spiral-shaped path of the control element (7a, 7b) extends in a plane perpendicular to the rotational axis. the drive body (5a, 5b), which is of one piece or multiple pieces, has a control element (7a, 7b) which is in engagement with the coupling element (6a, 6b, 6c), which exhibits at least in sections a spiral-shaped path about the rotation axis of the drive body (5a, 5b), wherein the spiral-shaped path of the control element (7a, 7b) extends in a plane perpendicular to the rotational axis.
A resin composition comprising a resin component in an amount of 100 parts by weight, thermally expandable graphite in an amount of 3 to 300 parts by weight, an inorganic filler in an amount of 2 to 200 parts by weight, and a phosphorus compound selected from red phosphorus; metal salts of phosphoric acids such as sodium phosphate, potassium phosphate, and magnesium phosphate; ammonium polyphosphates; compounds represented by formula wherein in the formula, R 1 and R 3 represents hydrogen, a linear or branched alkyl group having 1 to 16 carbon atoms, or an aryl group having 6 to 16 carbon atoms. R 2 represents a hydroxyl group, a linear or branched alkyl group having 1 to 16 carbon atoms, a linear or branched alkoxyl group having 1 to 16 carbon atoms, an aryl group having 6 to 16 carbon atoms, or an aryloxy group having 6 to 16 carbon atoms, wherein the resin component includes EVA (ethylene-vinyl acetate copolymer resin), and the expansion starting temperature of the thermally expandable graphite is lower than the decomposition starting temperature of the resin component, and the expansion starting temperature of the thermally expandable graphite is 200°C or less, and the decomposition starting temperature of the resin component exceeds 200°C.
An unpacking station for a system for additive manufacturing of three-dimensional objects, the unpacking station comprising: a construction module configured to contain an additively manufactured three-dimensional object and unsolidified construction material surrounding the object; an unpacking device for unpacking the object from the unsolidified construction material after completion of an additive construction process, wherein the unpacking device comprises a robot having at least three robot axes (A1-A6); at least one unpacking tool arranged or formed on a robot axis, the unpacking tool provided for unpacking the object from the unsolidified construction material surrounding the object after completion of the additive construction process; and a movement device configured to provide movement of the robot relative to the object or movement of the robot relative to the construction module. a construction module configured to contain an additively manufactured three-dimensional object and unsolidified construction material surrounding the object; an unpacking device for unpacking the object from the unsolidified construction material after completion of an additive construction process, wherein the unpacking device comprises a robot having at least three robot axes (A1-A6); at least one unpacking tool arranged or formed on a robot axis, the unpacking tool provided for unpacking the object from the unsolidified construction material surrounding the object after completion of the additive construction process; and a movement device configured to provide movement of the robot relative to the object or movement of the robot relative to the construction module.
A method for producing sintered ore that obtains sintered ore by granulating compounded raw material for sintering including iron ore powder of multiple types of brands by a granulator and sintering obtained granulated raw material for sintering by a sintering machine, wherein not less than 80 mass% of moisture to be added during granulation is supplied at a mean droplet diameter of not less than 120 μm and not more than 2000 μm, characterized in that the moisture contains fine particles with a particle diameter of not more than 15 μm at a ratio of not less than 0.5 mass% and not more than 12 mass% relative to the compounded raw material for sintering, and wherein the mean droplet diameter is measured by performing an image analysis of not less than 100 droplets using a high-speed camera and calculating the arithmetic mean diameter. not less than 80 mass% of moisture to be added during granulation is supplied at a mean droplet diameter of not less than 120 μm and not more than 2000 μm, characterized in that the moisture contains fine particles with a particle diameter of not more than 15 μm at a ratio of not less than 0.5 mass% and not more than 12 mass% relative to the compounded raw material for sintering, and wherein the mean droplet diameter is measured by performing an image analysis of not less than 100 droplets using a high-speed camera and calculating the arithmetic mean diameter.
A rotary friction welding process including: providing a first tubular workpiece having a first weld surface at an end thereof, and a second tubular workpiece having a second weld surface at an end thereof, aligning the workpieces on a common axis with the weld surfaces facing each other, rotating one workpiece about the axis relative to the other workpiece, and engaging the first and second weld surfaces such that the rotation raises the temperature at the weld surfaces to create a weld interface, and ceasing the rotation and allowing the weld interface to cool to weld the workpieces together at the interface; characterized in that the first weld surface is an apex region of an annular projection at the end of the first workpiece, on a longitudinal section through the aligned workpieces the annular projection having a profile in which radially inner and outer side surfaces of the annular projection taper towards the apex region, and the angle of the side surfaces to the radial direction is in the range of from 1 degree to 40 degrees. providing a first tubular workpiece having a first weld surface at an end thereof, and a second tubular workpiece having a second weld surface at an end thereof, aligning the workpieces on a common axis with the weld surfaces facing each other, rotating one workpiece about the axis relative to the other workpiece, and engaging the first and second weld surfaces such that the rotation raises the temperature at the weld surfaces to create a weld interface, and ceasing the rotation and allowing the weld interface to cool to weld the workpieces together at the interface; characterized in that the first weld surface is an apex region of an annular projection at the end of the first workpiece, on a longitudinal section through the aligned workpieces the annular projection having a profile in which radially inner and outer side surfaces of the annular projection taper towards the apex region, and the angle of the side surfaces to the radial direction is in the range of from 1 degree to 40 degrees.
A method for preparing an alkylene glycol comprising hydrating with water an alkylene oxide in a hydrating reactor placed in a reaction zone, said alkylene oxide being in at least 5 wt% with respect to the total feed, characterized in that the product mixture of said hydrating reactor is subject to a dewatering flash process in a flasher, wherein said flasher is a flash separator drum and wherein the bottoms leaving the flasher are re-pressurized prior entry into the following hydrating reactor.
A retractable sheath for protecting a luminal surface of a blood vessel from the introduction of a medical device within the blood vessel, the retractable sheath comprising; a rigid collar having an inner surface defining an opening extending through the collar, the rigid collar having attached thereto a circumferentially retractable elongated sleeve having a proximal opening and a distal opening defining a luminal channel therebetween, the elongated sleeve being at least partially continuously tapered longitudinally and comprising two separate layers including a continuous elastomeric outer layer and an expandable inner layer discontinuous at least in part, wherein the rigid collar is attached to the circumferentially retractable elongated sleeve at the proximal opening of the sleeve, wherein the discontinuous part of the expandable inner layer comprises a single stiff polymeric sheet having outward annular resistance when forcibly coiled, the single stiff polymeric sheet being coiled, positioned longitudinally within a lumen formed by the continuous elastomeric outer layer and positioned substantially in contact with a circumference of a luminal surface of the continuous elastomeric outer layer, and characterized in that the discontinuous single stiff polymeric sheet portion is configured to coil in an overlapping arrangement in its relaxed state and to coil helically about the longitudinal axis of the elongated sleeve. a rigid collar having an inner surface defining an opening extending through the collar, the rigid collar having attached thereto a circumferentially retractable elongated sleeve having a proximal opening and a distal opening defining a luminal channel therebetween, the elongated sleeve being at least partially continuously tapered longitudinally and comprising two separate layers including a continuous elastomeric outer layer and an expandable inner layer discontinuous at least in part, wherein the rigid collar is attached to the circumferentially retractable elongated sleeve at the proximal opening of the sleeve,
Vehicle seat having a seat part and a backrest, wherein the vehicle seat can be adjusted from a use position, suitable for conveying a person, to a loading position with a lowered seat part and a backrest that is pivoted towards the seat part, wherein the seat part is articulated in an adjustable manner to a base by means of a linkage (8, 9, 10, E, F, G, H, I), and a force accumulator preloads the linkage (8, 9, 10, E, F, G, H, I) and therefore the seat part towards the loading position or towards the use position, and a flexurally weak tension means couples the linkage (8, 9, 10, E, F, G, H, I) or the seat part to the backrest, wherein the linkage (8, 9, 10, E, F, G, H, I) has a first link, and a front region of the seat part is articulated to the base by means of the first link, characterized in that the linkage (8, 9, 10, E, F, G, H, I) has a second link and a third link, and a rear region of the seat part is articulated to the base by means of the second link and the third link, wherein the third link is connected to the base, or to an adapter that can be connected to the base, such that it is able to rotate about an axis of rotation, and the third link is connected to the second link such that it is able to rotate about another axis of rotation, and the second link is connected to the seat part such that it is able to rotate about another axis of rotation.
A method performed by a device operable to attach to a first node (4,7) and a second node (4,7), wherein one of the first node (4,7) and the second node (4,7) operates within a WLAN and the other one of the first node (4,7) and the second node (4,7) operates within a 3rd Generation Partnership Project, 3GPP, network, the device comprising a memory including a log, the method comprising: causing an entry of information in the log when the device successfully attaches to the first node (4,7) via the WLAN or 3GPP network in which the first node (4,7) operates, said information comprising an identifier of the first node (4,7) and a timestamp indicating the time at which the device attached to the first node (4,7); and causing an entry of information in the log indicating whether an attempt by the device to leave the first node (4,7) in order to attach to the second node (4,7) via the WLAN or 3GPP network in which the second node (4,7) operates is successful or unsuccessful, and if the device successfully attaches to the second node (4,7), causing an entry of additional information in the log, said additional information comprising information relating to the duration the device was attached to the first node (4,7) and performance information relating to at least a part of the WLAN or 3GPP network the first node (4,7) operates in; and providing the node (4,7) operating within a WLAN with a copy of the log. causing an entry of information in the log when the device successfully attaches to the first node (4,7) via the WLAN or 3GPP network in which the first node (4,7) operates, said information comprising an identifier of the first node (4,7) and a timestamp indicating the time at which the device attached to the first node (4,7); and causing an entry of information in the log indicating whether an attempt by the device to leave the first node (4,7) in order to attach to the second node (4,7) via the WLAN or 3GPP network in which the second node (4,7) operates is successful or unsuccessful, and if the device successfully attaches to the second node (4,7), causing an entry of additional information in the log, said additional information comprising information relating to the duration the device was attached to the first node (4,7) and performance information relating to at least a part of the WLAN or 3GPP network the first node (4,7) operates in; and providing the node (4,7) operating within a WLAN with a copy of the log.