mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for retrieving phase information from electron diffraction data, the method comprising: - receiving electron diffraction data produced by scanning a specimen with an electron microscope, wherein said electron diffraction data comprises at least four-dimensional data composed of a plurality of two-dimensional diffraction images corresponding to different electron beam positions and/or orientations in at least a two-dimensional scanning raster, characterised by the steps of - providing a proper subset of said electron diffraction data and/or image features determined from said subset to a trained machine learning model and obtaining, as output, at least one image indicative of an outgoing electron wave phase at a reference point and/or a partial object image, indicative of an outgoing electron wave phase, of a local neighborhood around said reference point, wherein said subset comprises or consists of the diffraction patterns from said received data that correspond to at least three of said electron beam positions including said reference point and at least two neighboring beam positions thereof in the scanning raster, and - repeating, for different subsets, the step of providing the subset of the electron diffraction data to the trained machine learning model to obtain said output for different reference points of said scanning raster. - receiving electron diffraction data produced by scanning a specimen with an electron microscope, wherein said electron diffraction data comprises at least four-dimensional data composed of a plurality of two-dimensional diffraction images corresponding to different electron beam positions and/or orientations in at least a two-dimensional scanning raster, characterised by the steps of - providing a proper subset of said electron diffraction data and/or image features determined from said subset to a trained machine learning model and obtaining, as output, at least one image indicative of an outgoing electron wave phase at a reference point and/or a partial object image, indicative of an outgoing electron wave phase, of a local neighborhood around said reference point, wherein said subset comprises or consists of the diffraction patterns from said received data that correspond to at least three of said electron beam positions including said reference point and at least two neighboring beam positions thereof in the scanning raster, and - repeating, for different subsets, the step of providing the subset of the electron diffraction data to the trained machine learning model to obtain said output for different reference points of said scanning raster.
A method of monitoring a conveyance apparatus within a conveyance system, the method comprising: detecting, using a sensing apparatus, at a first conveyance apparatus location at least one of an acceleration of the conveyance apparatus, temperature data of the conveyance system, and pressure data proximate the conveyance apparatus; determining a health level (710, 710a, 710b) of the conveyance system at the first conveyance apparatus location in response to at least one of the acceleration of the conveyance apparatus, the temperature data of the conveyance system, and the pressure data proximate the conveyance apparatus; displaying the health level for the conveyance system at the first conveyance apparatus location on a display device; and characterized by further comprising determining a current location of an individual within the conveyance system; and displaying the location of the individual within the conveyance system on the display device. detecting, using a sensing apparatus, at a first conveyance apparatus location at least one of an acceleration of the conveyance apparatus, temperature data of the conveyance system, and pressure data proximate the conveyance apparatus; determining a health level (710, 710a, 710b) of the conveyance system at the first conveyance apparatus location in response to at least one of the acceleration of the conveyance apparatus, the temperature data of the conveyance system, and the pressure data proximate the conveyance apparatus; displaying the health level for the conveyance system at the first conveyance apparatus location on a display device; and characterized by further comprising determining a current location of an individual within the conveyance system; and displaying the location of the individual within the conveyance system on the display device.
A header (10, 110, 210) for an agricultural harvester, the header comprising an apparatus for controlling a distance between a front end of the header (10, 110, 210) and a ground surface, the apparatus comprising: an emitter (150, 250a, 250b) that emits a light beam (154, 254) adjacent to a skid plate (34, 134, 234) mounted on the header (10, 110, 210) chassis (12, 112) and disposed adjacent to a cutter bar assembly carried by the header (10, 110, 210) chassis (12, 112), the skid plate (34, 134, 234) extending in a widthwise direction of the header (10, 110, 210) chassis (12, 112) defining a longitudinal axis and moveable between a first position and a second position relative to the header (10, 110, 210) chassis (12, 112); a sensor guide (260, 260a) in connection to the skid plate (34, 134, 234), the sensor guide (260, 260a) having an aperture that allows passage of the light beam (154, 254) through the aperture when the skid plate (34, 134, 234) is in the first position and a body that blocks the passage of the light beam (154, 254) when the skid plate (34, 134, 234) is in the second position; a receiver (152, 252) that receives the light beam (154, 254) passing through the aperture of the sensor guide (260, 260a); and a controller (156, 256) in communication with the sensor guide (260, 260a) and configured to adjust the elevation of the header (10, 110, 210) relative to the ground surface based upon a response received from the receiver (152, 252), characterized in that the emitter (150, 250a, 250b) emits the light beam (154, 254) adjacent to the skid plate (34, 134, 234) substantially perpendicular to the longitudinal axis. an emitter (150, 250a, 250b) that emits a light beam (154, 254) adjacent to a skid plate (34, 134, 234) mounted on the header (10, 110, 210) chassis (12, 112) and disposed adjacent to a cutter bar assembly carried by the header (10, 110, 210) chassis (12, 112), the skid plate (34, 134, 234) extending in a widthwise direction of the header (10, 110, 210) chassis (12, 112) defining a longitudinal axis and moveable between a first position and a second position relative to the header (10, 110, 210) chassis (12, 112); a sensor guide (260, 260a) in connection to the skid plate (34, 134, 234), the sensor guide (260, 260a) having an aperture that allows passage of the light beam (154, 254) through the aperture when the skid plate (34, 134, 234) is in the first position and a body that blocks the passage of the light beam (154, 254) when the skid plate (34, 134, 234) is in the second position; a receiver (152, 252) that receives the light beam (154, 254) passing through the aperture of the sensor guide (260, 260a); and a controller (156, 256) in communication with the sensor guide (260, 260a) and configured to adjust the elevation of the header (10, 110, 210) relative to the ground surface based upon a response received from the receiver (152, 252), characterized in that the emitter (150, 250a, 250b) emits the light beam (154, 254) adjacent to the skid plate (34, 134, 234) substantially perpendicular to the longitudinal axis.
A method for varying magnetization values in different regions of a magnetic component, comprising: disposing a coating comprising a nitrogen stop-off material on at least one portion of the magnetic component to form a mask; and heat-treating the magnetic component in a nitrogen-rich atmosphere at a temperature greater than 700 °C to form a first region and a second region, wherein the first region and the second region are defined by a nitrogen content that is different from each other; and at least one of the first and second region has a nitrogen content in a range from 0.1 weight % to 0.4 weight % of that region, has a nitrogen content and saturation magnetization that is substantially constant across the volume within that region, and has from 10 volume % to 99 volume % of that region being magnetic with a relative permeability greater than 1; characterized in that: the difference in nitrogen content of the first region and the second region is achieved by one or both of: disposing the coating with a variable thickness; and selectively removing portions of the coating before the step of heat-treating. disposing a coating comprising a nitrogen stop-off material on at least one portion of the magnetic component to form a mask; and heat-treating the magnetic component in a nitrogen-rich atmosphere at a temperature greater than 700 °C to form a first region and a second region, wherein the first region and the second region are defined by a nitrogen content that is different from each other; and at least one of the first and second region has a nitrogen content in a range from 0.1 weight % to 0.4 weight % of that region, has a nitrogen content and saturation magnetization that is substantially constant across the volume within that region, and has from 10 volume % to 99 volume % of that region being magnetic with a relative permeability greater than 1; characterized in that: the difference in nitrogen content of the first region and the second region is achieved by one or both of: disposing the coating with a variable thickness; and selectively removing portions of the coating before the step of heat-treating. disposing the coating with a variable thickness; and selectively removing portions of the coating before the step of heat-treating.
Method for controlling at least one mobile terminal with a touch-sensitive display device, comprising: representation of at least two graphic elements (3, 4, 5, 6, 7, 8, 9, 10, 11), more particularly images or icons, on the display device and of at least two display regions (12, 13, 14, 15) delimited on the display device, detection of at least one touch on the touch-sensitive display device, dragging and dropping at least two graphic elements (3, 4, 5, 6) on the delimited display areas (12, 13, 14, 15) according to the detected contact on the display device, characterized in that the method additionally comprises: transmission of data to at least one application server, wherein the application server records therefrom at least on which of the display areas (12, 13, 14, 15) graphic elements (3, 4, 5, 6) have been dropped, and synchronization of at least the representations of graphic elements (3, 13, 14, 15) in the delimited display areas (12, 13, 14, 15) of at least one terminal with data dependent on the protocols of the application server for changing the display on the display device of the terminal after synchronization. representation of at least two graphic elements (3, 4, 5, 6, 7, 8, 9, 10, 11), more particularly images or icons, on the display device and of at least two display regions (12, 13, 14, 15) delimited on the display device, detection of at least one touch on the touch-sensitive display device, dragging and dropping at least two graphic elements (3, 4, 5, 6) on the delimited display areas (12, 13, 14, 15) according to the detected contact on the display device, characterized in that the method additionally comprises: transmission of data to at least one application server, wherein the application server records therefrom at least on which of the display areas (12, 13, 14, 15) graphic elements (3, 4, 5, 6) have been dropped, and synchronization of at least the representations of graphic elements (3, 13, 14, 15) in the delimited display areas (12, 13, 14, 15) of at least one terminal with data dependent on the protocols of the application server for changing the display on the display device of the terminal after synchronization.
Deformable mirror device comprising - a mirror sheet comprising a reflective layer for reflecting electromagnetic radiation, - an actuator for deforming the reflective layer essentially perpendicular to its surface, - a base for supporting the actuator, and - a first and second electrode (11, 12), the first electrode being the reflective layer or being coupled to the reflective layer, the second electrode being coupled to the actuator, the first and second electrodes (11, 12) being electrically isolated arranged relative to each other, - an electrically isolating layer situated between the reflective layer and the second electrode; characterized in that the mirror sheet is a removable mirror sheet, fixed to the actuator by clamping due to an electrostatic force between the first and second electrode. - a mirror sheet comprising a reflective layer for reflecting electromagnetic radiation, - an actuator for deforming the reflective layer essentially perpendicular to its surface, - a base for supporting the actuator, and - a first and second electrode (11, 12), the first electrode being the reflective layer or being coupled to the reflective layer, the second electrode being coupled to the actuator, the first and second electrodes (11, 12) being electrically isolated arranged relative to each other, - an electrically isolating layer situated between the reflective layer and the second electrode;
A method of controlling a grinding mill process in a grinding circuit, which said grinding circuit comprises at least a grinding mill having a shaft in a grinding chamber, said grinding circuit further comprises a cyclone for receiving circuit feed material and for feeding said circuit feed material further in the grinding circuit, and monitoring devices, in which the grinding mill process comprises at least following steps: pumping circuit feed material from a feed tank to the cyclone upstream of the mill, and pumping the circuit feed material forming slurry into the grinding mill for grinding the slurry into finer particles, characterized in that the method comprises the following steps: - measuring particle fineness and/or feed quantity coming from cyclone in the grinding circuit; - comparing the measurements to target values; and - adjusting shaft speed based on the measurements. - measuring particle fineness and/or feed quantity coming from cyclone in the grinding circuit; - comparing the measurements to target values; and - adjusting shaft speed based on the measurements.
A method of providing an object with a safety device for a personal fall protection to be connected to an exposed surface of the object, in particular a building, said safety device comprising an anchoring means, for securing a personal fall protection means, and fastening means for a firm and durable connection of said safety device to said surface, wherein the fastening means comprise a flexible fastening flap of a flexible wall-covering material, characterized by the following steps of: (a) first providing an assembly of the flexible fastening flap and a substantially form-retaining, at least substantially flange-like body that comprises the anchoring means, wherein the flexible fastening flap extends at least substantially all around from said flange-like body and is firmly connected to said flange-like body, (b) placing the assembly on said surface of the object, and (c) thereafter connecting said assembly to said object by gluing, welding or otherwise adhering said flexible fastening flap to said surface of said object to bring about said firm and durable connection. (a) first providing an assembly of the flexible fastening flap and a substantially form-retaining, at least substantially flange-like body that comprises the anchoring means, wherein the flexible fastening flap extends at least substantially all around from said flange-like body and is firmly connected to said flange-like body, (b) placing the assembly on said surface of the object, and (c) thereafter connecting said assembly to said object by gluing, welding or otherwise adhering said flexible fastening flap to said surface of said object to bring about said firm and durable connection.
An oil-in-water type one-part hair dye composition, comprising components,, and: a direct dye; a hydrocarbon oil; a polyoxyalkylene-modified dimethylpolysiloxane with an HLB of 7 or higher; and an aromatic alcohol; wherein the content ratio by mass of the component to the component, / is 0.05 to 10. a direct dye; a hydrocarbon oil; a polyoxyalkylene-modified dimethylpolysiloxane with an HLB of 7 or higher; and an aromatic alcohol; wherein the content ratio by mass of the component to the component, / is 0.05 to 10.
Molding device (10; 110; 210) comprising mold shells (11, 12; 111, 112; 211, 212) and a gasket (13; 113; 213; 313) for manufacturing by molding an ophthalmic lens configured to be worn by a wearer, said mold shells (11, 12; 111, 112; 211, 212) each having a molding face (14, 17) and a peripheral side (16, 19) and said gasket (13; 113; 213; 313) comprising a closed loop portion (20; 120; 220) sandwiched between said molding faces (14, 17) and remotely to said peripheral sides (16, 19) of said mold shells (11, 12; 111, 112; 211, 212), thereby forming a molding cavity of said ophthalmic lens inside said closed loop portion of said gasket (13; 113; 213; 313), characterized in that said gasket (13; 113; 213; 313) comprises a plurality of elongated positioning members (21, 22, 23) each projecting externally from said closed loop portion (20; 120; 220) and each being fastened on a said peripheral side (16, 19) of at least one of said mold shells (11, 12; 111, 112; 211, 212), said plurality of elongated positioning members (21, 22, 23) each having a respective length which is determined in function of an optical axis characteristic of said wearer of said ophthalmic lens.
An animal type determination device comprising: an imaging unit configured to be mounted in a vehicle and to capture an image of the surroundings of the vehicle; an animal type determination unit configured to perform pattern recognition, using an animal image pattern set in advance for each type of animal, on an image captured by the imaging unit and to determine the type of an animal in the image; a sign recognition unit configured to recognize, based on the image captured by the imaging unit, the type of a caution target animal indicated by an animal warning sign in the image; and a determination priority updating unit configured to raise a determination priority of the animal image pattern corresponding to the type of the caution target animal when the type of the caution target animal is recognized by the sign recognition unit, wherein the animal type determination unit is configured to perform the pattern recognition of the animal image pattern in the order of the determination priority so as to determine the type of the animal in the image. an imaging unit configured to be mounted in a vehicle and to capture an image of the surroundings of the vehicle; an animal type determination unit configured to perform pattern recognition, using an animal image pattern set in advance for each type of animal, on an image captured by the imaging unit and to determine the type of an animal in the image; a sign recognition unit configured to recognize, based on the image captured by the imaging unit, the type of a caution target animal indicated by an animal warning sign in the image; and a determination priority updating unit configured to raise a determination priority of the animal image pattern corresponding to the type of the caution target animal when the type of the caution target animal is recognized by the sign recognition unit, wherein the animal type determination unit is configured to perform the pattern recognition of the animal image pattern in the order of the determination priority so as to determine the type of the animal in the image.
Tyre having at least one carcass reinforcement comprising reinforcers, surmounted radially on the outside by a crown reinforcement comprising two axial ends S, itself radially on the inside of a tread, said crown reinforcement being made up of at least one layer of reinforcement elements, said tread being connected to two beads by way of two sidewalls, said beads being intended to come into contact with a rim flange having a rim flange top C, each bead having at least one circumferential reinforcement element known as a bead wire, said carcass reinforcement comprising an end at each bead, the end of the carcass reinforcement being turned up once in an outward radial direction of the tyre and about said bead wire, so as to form a turnup, then being folded in the radially outward direction so as to form a fold of the carcass ply, said fold forming a radially external end and three adjacent parts along an axial axis made up of a central part, of an axially internal lateral part, and of an axially external lateral part, the fold being executed in an outward axial direction with respect to the centre of the tyre, characterized in that a decoupling elastomer composition having a secant modulus at 10% extension of greater than or equal to 10 MPa and preferably greater than or equal to 30 MPa and less than or equal to 60 MPa is present • between the axially internal lateral part and the central part of said turnup, and • at the radially external end of said turnup, • said elastomer composition being present along a radial length comprised between the radially external end of the turnup and a radially internal point F with respect to the end of said turnup, said point being situated on the sidewall and at a distance from said radially external end by a length greater than 10 mm, and in that • the radially external end of the turnup is disposed between the rim flange top C and a point D, said points C and D being situated at the surface of the sidewall and disposed on either side of a point E situated on the sidewall corresponding to the nominal section width, • said point D being disposed at a maximum radial length equal to 85% of the length present between the axial end S of the crown reinforcement and the rim flange top C. • between the axially internal lateral part and the central part of said turnup, and • at the radially external end of said turnup, • said elastomer composition being present along a radial length comprised between the radially external end of the turnup and a radially internal point F with respect to the end of said turnup, said point being situated on the sidewall and at a distance from said radially external end by a length greater than 10 mm, and in that • the radially external end of the turnup is disposed between the rim flange top C and a point D, said points C and D being situated at the surface of the sidewall and disposed on either side of a point E situated on the sidewall corresponding to the nominal section width, • said point D being disposed at a maximum radial length equal to 85% of the length present between the axial end S of the crown reinforcement and the rim flange top C.