mhurhangee/ep-ind-claims huggingface dataset:
An imaging apparatus for diagnosis which reconfigures a cross-sectional image of a blood vessel by having a wavelength swept light source emitting light toward a lumen surface of the blood vessel and having a photodiode detecting interference light between the reflected light and reference light, comprising: identification means for identifying a bifurcated portion of the blood vessel from the cross-sectional image; extraction means for extracting a stent strut from the cross-sectional image; characterized by area measurement means configured to measure an area of a division region (711, 712, 713, 714, 715) in the cross-sectional image, in which the bifurcated portion identified by the identification means is divided into regions (701, 702, 703, 704, 705) by the stent strut extracted by the extraction means; display means configured to display the cross-sectional image and information of the area (711, 712, 713, 714, 715) measured by the area measurement means; and wherein the display means is further configured to display a graphic indicating a size of a guide wire. identification means for identifying a bifurcated portion of the blood vessel from the cross-sectional image; extraction means for extracting a stent strut from the cross-sectional image; characterized by area measurement means configured to measure an area of a division region (711, 712, 713, 714, 715) in the cross-sectional image, in which the bifurcated portion identified by the identification means is divided into regions (701, 702, 703, 704, 705) by the stent strut extracted by the extraction means; display means configured to display the cross-sectional image and information of the area (711, 712, 713, 714, 715) measured by the area measurement means; and
A manufacturing method of a lens barrel in which a first lens holding section which can hold a planar surface section of a planar-convex lens and a second lens holding section which can suck a convex surface section of the planar-convex lens are used to insert the planar-convex lens in a hollow section provided in a barrel frame, the manufacturing method comprising: a first lens holding section protrusion step in which the first lens holding section is inserted from an opening section positioned at one end of the barrel frame to the hollow section to protrude the first lens holding section from an opening section positioned at the other end of the barrel frame; a second lens holding section suction step in which the convex surface section of the planar-convex lens is sucked with the second lens holding section; a first lens holding section contact step in which the planar surface section of the planar-convex lens is brought into contact with the first lens holding section after the first lens holding section protrusion step and the second lens holding section suction step; a lens holding switching step in which suction of the convex surface section of the convex-planar lens is released by the second lens holding section, and the planar surface section of the planar-convex lens is held by the first lens holding section after the first lens holding section contact step; and a barrel frame contact step in which the first lens holding section or the lens barrel is moved in an optical axis direction of the planar-convex lens so that a surrounding edge section of the planar surface section of the planar-convex lens is brought into contact with a lens receiving section provided in the hollow section of the barrel frame after the lens holding switching step. a first lens holding section protrusion step in which the first lens holding section is inserted from an opening section positioned at one end of the barrel frame to the hollow section to protrude the first lens holding section from an opening section positioned at the other end of the barrel frame; a second lens holding section suction step in which the convex surface section of the planar-convex lens is sucked with the second lens holding section; a first lens holding section contact step in which the planar surface section of the planar-convex lens is brought into contact with the first lens holding section after the first lens holding section protrusion step and the second lens holding section suction step; a lens holding switching step in which suction of the convex surface section of the convex-planar lens is released by the second lens holding section, and the planar surface section of the planar-convex lens is held by the first lens holding section after the first lens holding section contact step; and a barrel frame contact step in which the first lens holding section or the lens barrel is moved in an optical axis direction of the planar-convex lens so that a surrounding edge section of the planar surface section of the planar-convex lens is brought into contact with a lens receiving section provided in the hollow section of the barrel frame after the lens holding switching step.
A camera module, comprising: a housing; a lens assembly received in the housing, the lens assembly including at least one lens, the lens assembly being configured to move in an optical axis direction of the lens; an aperture module for adjusting an amount of external light incident on the at least one lens, the aperture module including: an aperture blade comprising a first aperture blade having a first opening formed therein and a second aperture blade having a second opening formed therein, the second opening having a size different from that of the first opening; and a rotary shaft formed on a side of the aperture blade and being coupled to the lens assembly, wherein the first aperture blade and the second aperture blade are rotatable about the rotary shaft and wherein the first aperture blade and the second aperture blade extend in different radial directions with respect to the rotary shaft; a magnet disposed adjacent to the rotary shaft to rotate together with the rotary shaft; a first coil disposed on a first surface of the housing so as to face the magnet; a control circuit configured to rotate the aperture using the first coil; and a lens driving unit configured to move the lens assembly in the optical axis direction of the lens. a housing; a lens assembly received in the housing, the lens assembly including at least one lens, the lens assembly being configured to move in an optical axis direction of the lens; an aperture module for adjusting an amount of external light incident on the at least one lens, the aperture module including: an aperture blade comprising a first aperture blade having a first opening formed therein and a second aperture blade having a second opening formed therein, the second opening having a size different from that of the first opening; and a rotary shaft formed on a side of the aperture blade and being coupled to the lens assembly, wherein the first aperture blade and the second aperture blade are rotatable about the rotary shaft and wherein the first aperture blade and the second aperture blade extend in different radial directions with respect to the rotary shaft; an aperture blade comprising a first aperture blade having a first opening formed therein and a second aperture blade having a second opening formed therein, the second opening having a size different from that of the first opening; and a rotary shaft formed on a side of the aperture blade and being coupled to the lens assembly, wherein the first aperture blade and the second aperture blade are rotatable about the rotary shaft and wherein the first aperture blade and the second aperture blade extend in different radial directions with respect to the rotary shaft; a magnet disposed adjacent to the rotary shaft to rotate together with the rotary shaft; a first coil disposed on a first surface of the housing so as to face the magnet; a control circuit configured to rotate the aperture using the first coil; and a lens driving unit configured to move the lens assembly in the optical axis direction of the lens.
A method for producing a molded article obtained by integrating a decoration layer onto a surface of a porous body including a reinforcing fiber, the porous body being air-permeable, and the compression strength of the porous body upon compression of 50%, measured in accordance with the method described in the description, being 1 MPa or more, the method comprising: a preheating process at which the decoration layer is preheated; and a shaping and integrating process at which the porous body is pressed to the decoration layer or the decoration layer is pressed to the porous body without using a frame to support the porous body to shape the decoration layer, and the porous body and the decoration layer are integrated to each other, wherein in a closed space having a space including the porous body and having a space not including the porous body, these spaces being separated by the decoration layer as a boundary between these spaces, pressures are made different between these two spaces to perform the shaping. a preheating process at which the decoration layer is preheated; and a shaping and integrating process at which the porous body is pressed to the decoration layer or the decoration layer is pressed to the porous body without using a frame to support the porous body to shape the decoration layer, and the porous body and the decoration layer are integrated to each other, wherein in a closed space having a space including the porous body and having a space not including the porous body, these spaces being separated by the decoration layer as a boundary between these spaces, pressures are made different between these two spaces to perform the shaping.
Bearing ring of a rolling bearing, which bearing ring has a running surface for rolling bodies and at least one flange, which transitions into a bearing ring shoulder, for supporting rolling bodies, which flange rises with a height over the running surface, wherein the bearing ring is designed as an inner ring of a tapered roller bearing, and the flange is a retaining flange, and the bearing ring shoulder and the running surface form an angle between 100 degrees and 150 degrees, characterized in that a clearance is formed between the bearing ring shoulder and the flange and is dimensioned in such a way that the flange is designed to be free-standing over its entire height.
An anticorrosive pigment comprising an aluminum polyphosphate, characterized in that it additionally comprises at least one cerium-based compound and/or one lanthanum-based compound and/or one praseodymium-based compound.
A coating device for sealant, comprising a sealant storage pipe, wherein the sealant storage pipe is provided with two end portions; one end portion is connected to a gas jet means and the other end portion is connected to a nozzle; wherein the sealant storage pipe comprises a pipe wall defining a storage space for a sealant, characterized in that the pipe wall is made from a flexible material; and the pipe wall can be subjected to recoverable inward deformation perpendicular to an axial line of the sealant storage pipe so that the sealant storage pipe is configured to have a recessed shape to improve a balancing degree of an airflow from the gas jet means during spraying, wherein the flexible material is a piezoelectric material, and the pipe wall is deformed when an electric field is applied and recovered when the electric field is removed. wherein the sealant storage pipe comprises a pipe wall defining a storage space for a sealant, characterized in that the pipe wall is made from a flexible material; and the pipe wall can be subjected to recoverable inward deformation perpendicular to an axial line of the sealant storage pipe so that the sealant storage pipe is configured to have a recessed shape to improve a balancing degree of an airflow from the gas jet means during spraying, wherein the flexible material is a piezoelectric material, and the pipe wall is deformed when an electric field is applied and recovered when the electric field is removed.
A sorting system comprising: a first number of insertion points configured to provide sorting goods; a second number of terminal points configured to receive the sorting goods; a third number of driverless sorting vehicles configured to transport the sorting goods between the first number of insertion points and the second number of terminal points; and a control device configured to control the driverless sorting vehicles between the first number of insertion points and the second number of terminal points; wherein at least one driverless sorting vehicle is configured to discharge the sorting good using kinetic energy of the sorting good provided by a travel motion of the driverless sorting vehicle, based on a change of a speed vector of the driverless sorting vehicle. a first number of insertion points configured to provide sorting goods; a second number of terminal points configured to receive the sorting goods; a third number of driverless sorting vehicles configured to transport the sorting goods between the first number of insertion points and the second number of terminal points; and a control device configured to control the driverless sorting vehicles between the first number of insertion points and the second number of terminal points; wherein at least one driverless sorting vehicle is configured to discharge the sorting good using kinetic energy of the sorting good provided by a travel motion of the driverless sorting vehicle, based on a change of a speed vector of the driverless sorting vehicle.
A method for wireless communication between a moving vehicle and a remote server through at least one external mobile network (4a-c), said at least one exterior mobile network providing at least two concurrently useable data links, comprising: providing at least one router in the moving vehicle for receiving and transmitting wireless data communication to and from a stationary communication server outside said moving vehicle through said at least one exterior mobile network (4a-c); characterized in that it further comprises: evaluating the quality of said data links on a host layer by repeatedly sending requests arranged to trigger a determinable automated response to said stationary communication server via said data links, and measure the time until the triggered automated responses are received; and assigning data streams to said data links at least partly based on said evaluated quality. providing at least one router in the moving vehicle for receiving and transmitting wireless data communication to and from a stationary communication server outside said moving vehicle through said at least one exterior mobile network (4a-c); characterized in that it further comprises: evaluating the quality of said data links on a host layer by repeatedly sending requests arranged to trigger a determinable automated response to said stationary communication server via said data links, and measure the time until the triggered automated responses are received; and assigning data streams to said data links at least partly based on said evaluated quality. evaluating the quality of said data links on a host layer by repeatedly sending requests arranged to trigger a determinable automated response to said stationary communication server via said data links, and measure the time until the triggered automated responses are received; and assigning data streams to said data links at least partly based on said evaluated quality.
An ophthalmic laser beam delivery system, comprising: a focusing objective including a plurality of lenses; a folding mirror disposed near an entrance of the focusing objective for reflecting a treatment laser beam into the focusing objective, wherein the focusing objective is configured to focus the treatment laser beam onto desired locations of the eye and to collect light from the eye, wherein the folding mirror reflects a part and transmits a part of the light incident on it; a prism disposed adjacent to a back surface of the folding mirror that faces away from the focusing objective, the prism having a first, a second and a third surface, the second surface being disposed adjacent to the back surface of the folding mirror such that the light transmitted through the folding mirror enters the prism from the second surface, the prism being configured such that the light that has entered the prism at the second surface is reflected sequentially by the first surface and by the second surface toward the third surface to exit the prism; a focusing lens module disposed adjacent to the third surface of the prism to focus light exit from the third surface of the prism; and an image sensor disposed to receive the light focused by the focusing lens module to form an image. a focusing objective including a plurality of lenses; a folding mirror disposed near an entrance of the focusing objective for reflecting a treatment laser beam into the focusing objective, wherein the focusing objective is configured to focus the treatment laser beam onto desired locations of the eye and to collect light from the eye, wherein the folding mirror reflects a part and transmits a part of the light incident on it; a prism disposed adjacent to a back surface of the folding mirror that faces away from the focusing objective, the prism having a first, a second and a third surface, the second surface being disposed adjacent to the back surface of the folding mirror such that the light transmitted through the folding mirror enters the prism from the second surface, the prism being configured such that the light that has entered the prism at the second surface is reflected sequentially by the first surface and by the second surface toward the third surface to exit the prism; a focusing lens module disposed adjacent to the third surface of the prism to focus light exit from the third surface of the prism; and an image sensor disposed to receive the light focused by the focusing lens module to form an image.
A copolymer for cosmetics comprising: 70 to 90 wt% of a constituent unit derived from a compound represented by formula (a) shown below; 2 to 25 wt% of a constituent unit derived from a compound represented by formula (b) shown below; 2 to 25 wit% of a constituent unit derived from a compound represented by formula (c) shown below; 0.1 to 10 wt% of a constituent unit derived from a compound represented by formula (d) shown below; and a residue of an OH group- or COOH group-containing chain transfer agent (e), CH 2 =CR 1 -COO-Q 1 -Rf (a) in formula (a), Q 1 is a single bond or a divalent linking group; R 1 is a hydrogen atom or a methyl group; and Rf is a polyfluoroalkyl group having 1 to 6 carbon atoms or a polyfluoroether group, CH 2 =CR 2 -Q 2 -COOH (b) Q 2 is a single bond or a divalent linking group; and R 2 is a hydrogen atom, a methyl group or a COOH group, CH 2 =CR 3 -COO-(R 4 O)n-R 5 (c) R 3 is a hydrogen atom or a methyl group; R 4 is an alkylene group having 2 to 4 carbon atoms in which a part or all of hydrogen atoms is optionally substituted with OH groups; n is from 1 to 300; R 5 is a hydrogen atom, an alkyl group having 1 to 4 carbon atoms or a group represented by formula (s) shown below: -CO-CR 6 =CH 2 (s); and R 6 is a hydrogen atom or a methyl group, provided that R 4 groups in a number of n in one molecule of the compound represented by formula (c) are identical or different, CH 2 =CR 7 -COO-Q 3 -P -R 8 (d) Q 3 is a single bond or a divalent linking group; R 7 is a hydrogen atom or a methyl group; R 8 is an OH group or a group represented by formula (t) shown below: -Q 4 -OCO-CR 9 =CH 2 (t); Q 4 is a single bond or a divalent linking group; and R 9 is a hydrogen atom or a methyl group. Q 1 is a single bond or a divalent linking group; R 1 is a hydrogen atom or a methyl group; and Rf is a polyfluoroalkyl group having 1 to 6 carbon atoms or a polyfluoroether group, CH 2 =CR 2 -Q 2 -COOH (b) Q 2 is a single bond or a divalent linking group; and R 2 is a hydrogen atom, a methyl group or a COOH group, CH 2 =CR 3 -COO-(R 4 O)n-R 5 (c) R 3 is a hydrogen atom or a methyl group; R 4 is an alkylene group having 2 to 4 carbon atoms in which a part or all of hydrogen atoms is optionally substituted with OH groups; n is from 1 to 300; R 5 is a hydrogen atom, an alkyl group having 1 to 4 carbon atoms or a group represented by formula (s) shown below: -CO-CR 6 =CH 2 (s); and R 6 is a hydrogen atom or a methyl group, provided that R 4 groups in a number of n in one molecule of the compound represented by formula (c) are identical or different, CH 2 =CR 7 -COO-Q 3 -P -R 8 (d) Q 3 is a single bond or a divalent linking group; R 7 is a hydrogen atom or a methyl group; R 8 is an OH group or a group represented by formula (t) shown below: -Q 4 -OCO-CR 9 =CH 2 (t); Q 4 is a single bond or a divalent linking group; and R 9 is a hydrogen atom or a methyl group.
A fuel filter system for filtering a media flow comprising water and fuel, having a separating device for water disposed in a filter system housing, and a cleaning module for absorptively and/or adsorptively receiving a fuel portion in the separated water, wherein the cleaning module comprises a housing having an inlet and an outlet (20, 21) and a replaceable filter element disposed in the housing, wherein the filter element features a material capable of absorption and/or adsorption for accommodating at least some of the fuel in the separated water, characterized in that the cleaning module is disposed beside the filter system housing, in that the housing comprises a lower first housing component and an upper second housing component, wherein the inlet is disposed on the first housing component, wherein the first and the second housing components (14, 16) are designed for being detachably interconnected in a media-tight manner, and wherein the filter element is disposed on the second housing component and forms a cartridge with it, and in that a flow direction of the media flow through the filter element in the installed state as intended is directed against the force of gravity.
Agricultural machine for conducting an agricultural working process with at least one working organ and with a driver assistance system, in particular for the control of the at least one working organ, wherein a sensor arrangement is assigned to the driver assistance system, which sensor arrangement comprises at least one radar sensor (9, 10), characterized in that the sensor arrangement comprises at least one ground penetrating radar sensor, which within a running agricultural working process obtains a ground information in a detection area (13, 14) below the surface of the ground and that the driver assistance system data-processes the obtained ground information for the running agricultural working process and/or for subsequent working processes.
A method for providing a user interface in a computing device with a touch screen, the method comprising: arranging a number of components in a plurality of layers; and choosing a desired feature by activating at least one of said components from at least one of the layers that are visible; characterized in that said layers are movable in relation to each other, and wherein said activating comprises moving the layer comprising said one component by a dragging gesture on the touch screen from said one component to a preconfigured activation area; and wherein said moving reveals a second layer corresponding to the functionality of the component to be activated. arranging a number of components in a plurality of layers; and choosing a desired feature by activating at least one of said components from at least one of the layers that are visible; characterized in that said layers are movable in relation to each other, and wherein said activating comprises moving the layer comprising said one component by a dragging gesture on the touch screen from said one component to a preconfigured activation area; and wherein said moving reveals a second layer corresponding to the functionality of the component to be activated.