mhurhangee/ep-ind-claims huggingface dataset:
A reticle (300, 400, 500, 600, 700, 800, 900) for an optical sighting device, the reticle comprising; a horizontal stadia line (304, 704, 804, 904) and a vertical stadia line (302, 802); a plurality of elevation subtension markings connected to the vertical stadia line and having a thickness; a plurality of fine scale subtension markings (306, 806) positioned along the horizontal stadia line and having a thickness, wherein the plurality of fine scale subtension markings are connected to the horizontal stadia line, and wherein the plurality of fine scale subtension markings are located exclusively on a first side of the horizontal stadia line; and a plurality of coarse scale subtension markings (308, 708, 808, 908) positioned along the horizontal stadia line, wherein the plurality of coarse scale subtension markings have a thickness greater than the thickness of the fine scale subtension markings, and wherein the plurality of coarse scale subtension markings are located exclusively on a second side of the horizontal stadia line opposite the plurality of fine scale subtension markings. a horizontal stadia line (304, 704, 804, 904) and a vertical stadia line (302, 802); a plurality of elevation subtension markings connected to the vertical stadia line and having a thickness; a plurality of fine scale subtension markings (306, 806) positioned along the horizontal stadia line and having a thickness, wherein the plurality of fine scale subtension markings are connected to the horizontal stadia line, and wherein the plurality of fine scale subtension markings are located exclusively on a first side of the horizontal stadia line; and a plurality of coarse scale subtension markings (308, 708, 808, 908) positioned along the horizontal stadia line, wherein the plurality of coarse scale subtension markings have a thickness greater than the thickness of the fine scale subtension markings, and wherein the plurality of coarse scale subtension markings are located exclusively on a second side of the horizontal stadia line opposite the plurality of fine scale subtension markings.
A method for structuring a flat substrate composed of glass-type material in the following glass-type flat substrate in the course of a viscous flow process in which the glass-type flat substrate is joined to a surface of another flat substrate which has at least one depression bounded by a circumferential edge located in the surface and, in the course of a subsequent tempering process, is changed to a viscous free-flowing state in which at least proportions of the free-flowing glass-type material of the glass-type flat substrate flow over the circumferential edge into the depression in the other flat substrate, characterised by the following method-related steps: - providing the other flat substrate in such a way that in its at least one depression at least one wetting surface is present that is countersunk with respect to the surface of the other flat substrate and is at least partly bounded by a line-type edge which, at the same time, is an edge (3*) of a trench structure provided within the depression and countersunk with respect to the wetting surface; - carrying out the tempering process in such a way that the free-flowing glass-type material of the glass-type flat substrate is brought into contact with the wetting surface in such a way that a wetting front forms along the line-type edge, and - ending the tempering process after the formation of a surface of the glass-type material, which surface extends between the wetting front and the circumferential edge without contact with the other flat substrate and that encloses a cavity with a sub-region of the depression. - providing the other flat substrate in such a way that in its at least one depression at least one wetting surface is present that is countersunk with respect to the surface of the other flat substrate and is at least partly bounded by a line-type edge which, at the same time, is an edge (3*) of a trench structure provided within the depression and countersunk with respect to the wetting surface; - carrying out the tempering process in such a way that the free-flowing glass-type material of the glass-type flat substrate is brought into contact with the wetting surface in such a way that a wetting front forms along the line-type edge, and - ending the tempering process after the formation of a surface of the glass-type material, which surface extends between the wetting front and the circumferential edge without contact with the other flat substrate and that encloses a cavity with a sub-region of the depression.
A paint color specifying apparatus comprising: an image display configured to cause a display device to display a digital image such that a highlighted portion and a shaded portion of the digital image are able to be designated; a color information acquiring device configured to acquire color information of the designated highlighted portion and shaded portion; a texture information selection display configured to cause the display device to display texture information of paint colors such that texture information of a paint color is selectable; a texture information acquiring device configured to acquire the selected texture information; a paint color specifying device; and a color characteristic calculating device configured to use a correction coefficient corresponding to the acquired texture information in accordance with the acquired color information and to thereby calculate color characteristics of a paint color represented by change in brightness of reflected light according to a reflection angle with respect to incident light, wherein the paint color specifying device is configured to specify a paint color in accordance with the calculated color characteristics, and wherein the paint color specifying apparatus is characterized in that the color characteristic calculating device is configured to calculate color characteristics approximating a curve along which the brightness constantly decreases for increase in the reflection angle from the highlighted portion to the shaded portion. an image display configured to cause a display device to display a digital image such that a highlighted portion and a shaded portion of the digital image are able to be designated; a color information acquiring device configured to acquire color information of the designated highlighted portion and shaded portion; a texture information selection display configured to cause the display device to display texture information of paint colors such that texture information of a paint color is selectable; a texture information acquiring device configured to acquire the selected texture information; a paint color specifying device; and a color characteristic calculating device configured to use a correction coefficient corresponding to the acquired texture information in accordance with the acquired color information and to thereby calculate color characteristics of a paint color represented by change in brightness of reflected light according to a reflection angle with respect to incident light, wherein the paint color specifying device is configured to specify a paint color in accordance with the calculated color characteristics, and wherein the paint color specifying apparatus is characterized in that the color characteristic calculating device is configured to calculate color characteristics approximating a curve along which the brightness constantly decreases for increase in the reflection angle from the highlighted portion to the shaded portion.
A computer-implemented method for generating an image of a subsurface of the earth, the method comprising: generating an ensemble of realizations based on data related to the subsurface; calculating estimated data by a forward model using realization parameters ( m pr) as input, for each member ( m) of the ensemble of realizations; applying an objective function to estimate a mismatch between members ( m) of the ensemble of realizations and corresponding estimated data; calculating a plurality of sensitivity matrices associated with the objective function and the ensemble of realizations, based on a linearization of the forward model for different subset of samples, wherein a sample is related to one or more of the realization parameters of the forward model and to a value of the one or more realization parameters being restricted to a certain range, which is smaller than a full range of possible values of the one or more realization parameters; selecting a best sensitivity matrix from the plurality of sensitivity matrices, the best sensitivity matrix being selected based on a steepest gradient method or a current value of the objective function; updating realization parameters ( m pr) based on the best sensitivity matrix; and generating an image of the subsurface based on the data related to the subsurface of the earth and the forward model (f) with updated realization parameters ( m pr). generating an ensemble of realizations based on data related to the subsurface; calculating estimated data by a forward model using realization parameters ( m pr) as input, for each member ( m) of the ensemble of realizations; applying an objective function to estimate a mismatch between members ( m) of the ensemble of realizations and corresponding estimated data; calculating a plurality of sensitivity matrices associated with the objective function and the ensemble of realizations, based on a linearization of the forward model for different subset of samples, wherein a sample is related to one or more of the realization parameters of the forward model and to a value of the one or more realization parameters being restricted to a certain range, which is smaller than a full range of possible values of the one or more realization parameters; selecting a best sensitivity matrix from the plurality of sensitivity matrices, the best sensitivity matrix being selected based on a steepest gradient method or a current value of the objective function; updating realization parameters ( m pr) based on the best sensitivity matrix; and generating an image of the subsurface based on the data related to the subsurface of the earth and the forward model (f) with updated realization parameters ( m pr).
Post support arrangement for receiving and supporting a post (12, 13) for anchoring in a subsoil comprising: - a post support structure which is introduced into the subsoil and adapted thereto to receive the lower end of the post (12, 13), - an underground peg arrangement, which is connected to the post support structure, consisting of at least two support arms (8, 8a, b, c) which are spaced from one another and connected to the peg arrangement and extend at an angle to the axis of the post (12, 13), wherein in the support arm is arranged at least one access opening for at least one peg which is driven into the subsoil through the access opening at an angle to the axis of the support arm (8a, b, c), wherein the support arm is designed as a flat holding plate which has at least one access opening, characterised in that the support arm is designed as a flat holding plate (8, 8a, b, c) which has several access openings, in which respectively a movable spherical body is arranged, through which the peg is passed and in that the spherical body is clamped between an upper holding plate and the lower flat holding plate (8, 8a, b, c) to be secured in position. - a post support structure which is introduced into the subsoil and adapted thereto to receive the lower end of the post (12, 13), - an underground peg arrangement, which is connected to the post support structure, consisting of at least two support arms (8, 8a, b, c) which are spaced from one another and connected to the peg arrangement and extend at an angle to the axis of the post (12, 13), wherein in the support arm is arranged at least one access opening for at least one peg which is driven into the subsoil through the access opening at an angle to the axis of the support arm (8a, b, c), wherein the support arm is designed as a flat holding plate which has at least one access opening, characterised in that the support arm is designed as a flat holding plate (8, 8a, b, c) which has several access openings, in which respectively a movable spherical body is arranged, through which the peg is passed and in that the spherical body is clamped between an upper holding plate and the lower flat holding plate (8, 8a, b, c) to be secured in position.
An imaging apparatus, comprising: a coherent light source that irradiates an imaging object with coherent light; a first speckle imaging unit that captures a speckle image obtained from scattered light of the imaging object irradiated with the coherent light; a second speckle imaging unit that captures a speckle image obtained from scattered light of the imaging object irradiated with the coherent light; and an image combination unit that combines the first speckle image captured by the first speckle imaging unit and the second speckle image captured by the second speckle imaging unit, wherein the image combination unit corrects the luminance value of the speckle combined image on the basis of the luminance values of the first speckle image and the second speckle image such that the luminance distribution of the speckle combined image is uniform. a coherent light source that irradiates an imaging object with coherent light; a first speckle imaging unit that captures a speckle image obtained from scattered light of the imaging object irradiated with the coherent light; a second speckle imaging unit that captures a speckle image obtained from scattered light of the imaging object irradiated with the coherent light; and an image combination unit that combines the first speckle image captured by the first speckle imaging unit and the second speckle image captured by the second speckle imaging unit, wherein the image combination unit corrects the luminance value of the speckle combined image on the basis of the luminance values of the first speckle image and the second speckle image such that the luminance distribution of the speckle combined image is uniform.
A side glazing for a means of transport, particularly glazing for a train, said glazing being fixed multiple glazing, said glazing comprising: - an exterior substrate having an exterior face which faces an exterior space, an intermediate face on the opposite side to the exterior face, and a peripheral edge face, - an interior substrate having an interior face which faces an interior space, an intermediate face on the opposite side to the interior face, and a peripheral edge face, - a glazing frame structure which is situated at the periphery of the intermediate face of said exterior substrate and at the periphery of the intermediate face of said interior substrate and which holds the exterior substrate and the interior substrate together in such a way that the glazing separates said exterior space from said interior space with a glazing cavity situated between the exterior substrate and the interior substrate, said glazing frame structure comprising a peripheral spacing piece which is situated all around the periphery of the two substrates (10, 20), - and a lamination comprising, on the one hand, at least one main sheet of glass and, on the other hand, a main sheet of plastic, said main sheet of plastic being situated in contact between the intermediate face of said exterior substrate and the main sheet of glass, characterized in that it further comprises at least one connecting bridge which is separate from said glazing frame structure and makes a connection between a peripheral edge of said lamination and a surface, situated transversely opposite, on the other side of said glazing cavity, the glazing frame structure being more centrifugal than said connecting bridge. - an exterior substrate having an exterior face which faces an exterior space, an intermediate face on the opposite side to the exterior face, and a peripheral edge face, - an interior substrate having an interior face which faces an interior space, an intermediate face on the opposite side to the interior face, and a peripheral edge face, - a glazing frame structure which is situated at the periphery of the intermediate face of said exterior substrate and at the periphery of the intermediate face of said interior substrate and which holds the exterior substrate and the interior substrate together in such a way that the glazing separates said exterior space from said interior space with a glazing cavity situated between the exterior substrate and the interior substrate, said glazing frame structure comprising a peripheral spacing piece which is situated all around the periphery of the two substrates (10, 20), - and a lamination comprising, on the one hand, at least one main sheet of glass and, on the other hand, a main sheet of plastic, said main sheet of plastic being situated in contact between the intermediate face of said exterior substrate and the main sheet of glass,
Method for the heat treatment of erected and large-area tube wall regions or tube wall segments of the tube walls of a steam generator of a fossil-fired power plant in their state arranged and installed in the combustion chamber of the steam generator and welded to form the steam generator tube walls, in which they surround the combustion chamber of the steam generator of the fossil-fired power plant, wherein entire tube wall regions or tube wall segments for heat treatment, in their state installed in the steam generator and surrounding the combustion chamber, are subjected, by heating by means of a hot flowing heat transfer medium, over a large area to a stress-relief annealing treatment which acts over a large area and covers or acts on in each case large areas of the tube wall regions or tube wall segments for heat treatment.
A method, comprising: at a workflow server: receiving data associated with previous image acquisition procedures that have been performed, the image acquisition procedures having respective image orders, the image orders having respective contexts, each of the previous image acquisition procedures having used at least one sequence defining settings to capture an image; determining at least one metric associated with a use of a first one of the at least one sequence for a first one of the contexts; generating a rule indicative of whether the first sequence is to be included or excluded for a subsequent image acquisition procedure having the first context based on the at least one metric; receiving a subsequent image order corresponding to the subsequent image acquisition procedure, the subsequent image order having a subsequent context; determining whether the subsequent context corresponds to the first context; and when the subsequent context corresponds to the first context, determining an indication of whether the first sequence is to be included or excluded in the subsequent image acquisition procedure based on the rule; wherein the at least one metric comprises a percentage of image captures in the previous acquisition procedures for the first context in which the first sequence is used, a percentage of interpretations in the previous acquisition procedures for the first context in which the image captures are used, or a combination thereof; wherein the method further comprises automatically implementing the indication for the first sequence in the subsequent image acquisition procedure. receiving data associated with previous image acquisition procedures that have been performed, the image acquisition procedures having respective image orders, the image orders having respective contexts, each of the previous image acquisition procedures having used at least one sequence defining settings to capture an image; determining at least one metric associated with a use of a first one of the at least one sequence for a first one of the contexts; generating a rule indicative of whether the first sequence is to be included or excluded for a subsequent image acquisition procedure having the first context based on the at least one metric; receiving a subsequent image order corresponding to the subsequent image acquisition procedure, the subsequent image order having a subsequent context; determining whether the subsequent context corresponds to the first context; and when the subsequent context corresponds to the first context, determining an indication of whether the first sequence is to be included or excluded in the subsequent image acquisition procedure based on the rule; wherein the at least one metric comprises a percentage of image captures in the previous acquisition procedures for the first context in which the first sequence is used, a percentage of interpretations in the previous acquisition procedures for the first context in which the image captures are used, or a combination thereof; wherein the method further comprises automatically implementing the indication for the first sequence in the subsequent image acquisition procedure.
A feeder device configured for mounting on a shelf for feeding successive products arranged one after the other in a row on the shelf to a front of the shelf, the feeder device comprising: a sled which comprises a back support wall arranged to contact a rear portion of a rearmost product in the row; and a first spring connected to the sled, and arranged to urge the sled forwardly towards the front of the shelf; wherein the sled further comprises a pusher which is arranged to urge a lower portion of a product placed on the support bottom forwardly relative to the sled by means of an elastic member; wherein the sled comprises a support bottom which extends forwardly from the back support wall and is arranged to support the bottom of at least one product and characterized in that said elastic member is said first spring. a sled which comprises a back support wall arranged to contact a rear portion of a rearmost product in the row; and a first spring connected to the sled, and arranged to urge the sled forwardly towards the front of the shelf; wherein the sled further comprises a pusher which is arranged to urge a lower portion of a product placed on the support bottom forwardly relative to the sled by means of an elastic member; wherein the sled comprises a support bottom which extends forwardly from the back support wall and is arranged to support the bottom of at least one product and characterized in that said elastic member is said first spring.