mhurhangee/ep-ind-claims huggingface dataset:
A method (200, 300, 400) comprising: initiating (212, 302) a pick attempt of a media sheet from a media tray of a printing device by rotating a pick roller of the tray via a pick motor of the tray; in response to a pick sensor of the tray detecting the media sheet after the pick attempt has been initiated: rotating (220, 306) a turn roller of the tray via a turn motor of the tray to advance the media sheet to a print engine of the printing device; and characterised in that while rotating the turn roller, rotating (218, 308) the pick roller via the pick motor to assist advancement of the media sheet to the print engine. initiating (212, 302) a pick attempt of a media sheet from a media tray of a printing device by rotating a pick roller of the tray via a pick motor of the tray; in response to a pick sensor of the tray detecting the media sheet after the pick attempt has been initiated: rotating (220, 306) a turn roller of the tray via a turn motor of the tray to advance the media sheet to a print engine of the printing device; and characterised in that while rotating the turn roller, rotating (218, 308) the pick roller via the pick motor to assist advancement of the media sheet to the print engine. rotating (220, 306) a turn roller of the tray via a turn motor of the tray to advance the media sheet to a print engine of the printing device; and characterised in that while rotating the turn roller, rotating (218, 308) the pick roller via the pick motor to assist advancement of the media sheet to the print engine.
Method for material estimation in a sequence of images of a scene, acquired by means of an electronic camera, in a speed keeping up with the image sequence acquisition, characterised by the steps of: a. illuminating the surface of the scene imaged on the camera with measuring light from a non-visible spectral range, b. the measuring light being structured in such a way that at most the seventh part of the surface of the scene imaged on the camera is illuminated, c. detecting the proportion of the intensity of the measuring light radiated onto each pixel of the camera by imaging the scene, d. selecting a central pixel and its pixel environment with distance 1 as a continuous pixel arrangement, e. determining the maximum intensity measured value of the pixel arrangement and assigning this value as reflectivity magnitude to the central pixel, f. determining the maximum intensity measured value difference between two pixels of the pixel arrangement and assigning this value as contrast magnitude to the central pixel, g. comparing the reflectivity magnitude and the contrast magnitude with a previously known material catalogue and identifying a material, h. allocating the material to the partial area of the surface of the scene which is imaged on the central pixel, and i. repeating steps d to h for a predetermined list of central pixels, the structured illumination of steps a and b being designed for application of a depth determination method. a. illuminating the surface of the scene imaged on the camera with measuring light from a non-visible spectral range, b. the measuring light being structured in such a way that at most the seventh part of the surface of the scene imaged on the camera is illuminated, c. detecting the proportion of the intensity of the measuring light radiated onto each pixel of the camera by imaging the scene, d. selecting a central pixel and its pixel environment with distance 1 as a continuous pixel arrangement, e. determining the maximum intensity measured value of the pixel arrangement and assigning this value as reflectivity magnitude to the central pixel, f. determining the maximum intensity measured value difference between two pixels of the pixel arrangement and assigning this value as contrast magnitude to the central pixel, g. comparing the reflectivity magnitude and the contrast magnitude with a previously known material catalogue and identifying a material, h. allocating the material to the partial area of the surface of the scene which is imaged on the central pixel, and i. repeating steps d to h for a predetermined list of central pixels,
A window, door or the like, in particular residential roof window, comprising a blind frame and comprising a sash frame and comprising an entry section centring, wherein the entry section centring has frame entry elements (15,16) on the blind frame and sash entry elements (17,18) on the sash frame, and reference surfaces (20,21) of the frame entry elements (15,16) cooperate with reference surfaces (22,23) of the sash entry elements (17,18) for orienting the sash frame relative to the blind frame when the sash frame is in the closed position, characterised in that at least one frame entry element (15,16) is in each case arranged in a dimensionally embodied manner and/or is arranged to be positioned on at least two opposite sides of the blind frame in such a way that the reference surfaces (20,21) thereof have a defined first distance from one another, which is independent of tolerances, in particular production tolerances, of the blind frame, and at least one sash entry element (17,18) is in each case arranged in a dimensionally embodied manner and/or is arranged to be positioned on at least two opposite sides of the sash frame in such a way that the reference surfaces (22,23) thereof have a defined second distance from one another, which is independent of tolerances, in particular production tolerances, of the sash frame.
A drive, in particular for a watercraft, having at least one energy device, in particular an internal combustion engine or an electric machine that may be driven in motor mode or generator mode, and having at least one thrust device that generates propulsion or at least one thrust device with which it is possible to generate propulsion,which has at least one first rotary element by means of which an axial inflow that is allocated to said first rotary element is influenceable with swirl and deflectable as a first outflow in a first outflow direction, and has at least one second rotary element by means of which an axial inflow that is allocated to said second rotary element is influenceable with swirl and deflectable as said inflow as a second outflow in a second outflow direction, wherein multiple, in particular at least two, rotary elements (8,10) are allocated to the same at least one energy device or one rotary element (8,10) respectively is allocated to a dedicated energy device, wherein the first and second rotary element (8, 10) may be operated in opposite directions and in the case of the at least one thrust device at least one of the at least one first rotary element and at least one of the at least one second rotary element are spaced apart from one another with respect to their axes of rotation and wherein or so that when the first and second rotary elements are being operated in opposite directions additional propulsion may be recovered or is recovered from the alternating effect between the first swirling outflow and the second swirling outflow, characterized in that the first rotary element and the second rotary element convey into a common closed pressure chamber of the thrust device, and the medium is radiated outwards from said pressure chamber by means of a nozzle, wherein the first rotary element and the second rotary element have a common radiating surface, wherein the thrust device has an inlet upstream of the first rotary element and/or upstream of the second rotary element.
A delivery system having a preselected desired release profile of at least one active component and suitable for incorporation into an edible composition comprising at least one active component coated with at least one coating material, and said coated active component further coated with at least one encapsulating material and at least one tensile strength modifying agent to form said delivery system; wherein the coating material is less miscible with the encapsulating material relative to the miscibility of the active component with the encapsulating material, and, wherein the coating material provides a coating thickness of from 1 micron to 200 microns between the at least one active component and the encapsulating material; wherein the encapsulating material is present in an amount of from 30% to 99% by weight based on the total weight of the delivery system; wherein the tensile strength modifying agent is present in an amount of up to 40% by weight based on the total weight of the delivery system; wherein the delivery system provides a desired release profile of the at least one active component by the combination of adding a preselected amount of at least one tensile strength modifying agent in a range up to 40% by weight of the total weight of the delivery system and employing an encapsulating material having a preselected hydrophobicity thereby obtaining an overall tensile strength of the delivery system that corresponds to the preselected desired release profile of the at least one active component, and wherein the delivery system has a tensile strength of at least 68.95 MPa (10,000 psi) as measured according to ASTM-D638.
A facemask manufacturing process comprising: - providing a first and a second assembly of strips superposed one on the other, characterized in that the first assembly of strips comprises a first strip of filtering material, a second strip (22, 221) of filtering material and a first elastic strip interposed between the first strip of filtering material and the second strip (22, 221) of filtering material; the second assembly of strips comprising a third strip of filtering material, a fourth strip of filtering material and a second elastic strip interposed between the third strip of filtering material and the fourth strip of filtering material, the first strip of filtering material, the second strip (22, 221) of filtering material and the first elastic strip being superposed on the fourth strip of filtering material, the third strip of filtering material and the second elastic strip, respectively; then - fixing the first strip of filtering material to the fourth strip of filtering material along a first weld line; - fixing the second strip (22, 221) of filtering material to the third strip of filtering material along a second weld line; and then - a step of cutting the first and second assemblies of strips in order to form, in a top-to-tail position, a first facemask and a second facemask respectively having a median line corresponding to the first weld line and to the second weld line and orifices (65, 165, 166) intended for receiving the user's ears. - providing a first and a second assembly of strips superposed one on the other, characterized in that the first assembly of strips comprises a first strip of filtering material, a second strip (22, 221) of filtering material and a first elastic strip interposed between the first strip of filtering material and the second strip (22, 221) of filtering material; the second assembly of strips comprising a third strip of filtering material, a fourth strip of filtering material and a second elastic strip interposed between the third strip of filtering material and the fourth strip of filtering material, the first strip of filtering material, the second strip (22, 221) of filtering material and the first elastic strip being superposed on the fourth strip of filtering material, the third strip of filtering material and the second elastic strip, respectively; then - fixing the first strip of filtering material to the fourth strip of filtering material along a first weld line; - fixing the second strip (22, 221) of filtering material to the third strip of filtering material along a second weld line; and then - a step of cutting the first and second assemblies of strips in order to form, in a top-to-tail position, a first facemask and a second facemask respectively having a median line corresponding to the first weld line and to the second weld line and orifices (65, 165, 166) intended for receiving the user's ears.
An apparatus for delivery of a biopsy marker to a biopsy site, the apparatus comprising: (a) a grip (566, 866) and a cannula (562, 862) extending distally from the grip (566, 866), the cannula (562, 862) having a lumen extending at least partially therethrough and a marker exit opening in the cannula communicating with the lumen; (b) at least one biopsy marker disposed in the lumen for deployment through the marker exit opening; and (c) a sterile guide (600, 900) including a body (610, 910) defining a bore (612, 912) and being configured to slide along the cannula (562, 862), wherein the sterile guide (600, 900) further includes a radially extending grasping feature (620, 920) of unitary construction with the body (610, 910), characterized in that the grasping feature (620, 920) includes one or more arms projecting laterally from the body (610, 910), wherein the bore (612, 912) is configured to receive the cannula (562, 862) and at least a portion of the grip (566, 866), wherein the body (610, 910) is configured to selectively transition between a closed configuration and an open configuration, wherein the body (610, 910) is configured to fasten to the grip (566, 866) when in the closed configuration, wherein the body (610, 910) is configured to slide along the cannula (562, 862) when in the open configuration. (a) a grip (566, 866) and a cannula (562, 862) extending distally from the grip (566, 866), the cannula (562, 862) having a lumen extending at least partially therethrough and a marker exit opening in the cannula communicating with the lumen; (b) at least one biopsy marker disposed in the lumen for deployment through the marker exit opening; and (c) a sterile guide (600, 900) including a body (610, 910) defining a bore (612, 912) and being configured to slide along the cannula (562, 862), wherein the sterile guide (600, 900) further includes a radially extending grasping feature (620, 920) of unitary construction with the body (610, 910), characterized in that the grasping feature (620, 920) includes one or more arms projecting laterally from the body (610, 910), wherein the bore (612, 912) is configured to receive the cannula (562, 862) and at least a portion of the grip (566, 866), wherein the body (610, 910) is configured to selectively transition between a closed configuration and an open configuration, wherein the body (610, 910) is configured to fasten to the grip (566, 866) when in the closed configuration, wherein the body (610, 910) is configured to slide along the cannula (562, 862) when in the open configuration.
A method comprising: receiving a graphical image in a two-dimensional space (104, 502); presenting a user interface including the graphical image and a shape palette comprising a two-dimensional representation of a three-dimensional shape (106, 504) that stores geometric information in three dimensions; receiving user markup of the graphical image by a user providing a 2D primitive on the user interface; receiving user markup of the shape palette by the user drawing a corresponding primitive on the shape palette to extract a set of 3D geometric information; correlating the user markup of the graphical image with the user markup of the shape palette; and imparting characteristics of three-dimensionality to the graphical image based at least in part on the set of 3D geometric information to render a graphical image with three-dimensional characteristics, wherein the shape palette comprises a Lambertian-shaded image of a three-dimensional shape. receiving a graphical image in a two-dimensional space (104, 502); presenting a user interface including the graphical image and a shape palette comprising a two-dimensional representation of a three-dimensional shape (106, 504) that stores geometric information in three dimensions; receiving user markup of the graphical image by a user providing a 2D primitive on the user interface; receiving user markup of the shape palette by the user drawing a corresponding primitive on the shape palette to extract a set of 3D geometric information; correlating the user markup of the graphical image with the user markup of the shape palette; and imparting characteristics of three-dimensionality to the graphical image based at least in part on the set of 3D geometric information to render a graphical image with three-dimensional characteristics, wherein the shape palette comprises a Lambertian-shaded image of a three-dimensional shape.
A cement admixture, characterized in that the admixture comprises microfibrillar cellulose; and/or a derivative thereof, the diameter of the cellulose microfibril or microfibril bundles being less than 1 μm, preferably less than 200 nm, more preferably less than 100 nm; and/or labile chemically modified cellulose pulp which forms microfibrillar cellulose during the use of the admixture; at least one plasticizer and optionally at least one dispersing agent; and optionally water, wherein the microfibrillar cellulose is obtained from raw material comprising plant material or derived from bacterial fermentation processes.
A laser welding method for welding a material containing copper as a main component, the laser welding method comprising: heating the material by irradiation with a first laser light and welding the material by irradiation of a portion, which has been irradiated with the first laser light, of the material with a second laser light with which an energy absorption rate of the copper contained in the material increases by an increase in a temperature of the material, wherein a wavelength of the first laser light is 400 nm or more and 470 nm or less, the method being characterised in that: the first laser light and the second laser light are superimposed on each other, and in that: the second laser light is contained in the first laser light. heating the material by irradiation with a first laser light and welding the material by irradiation of a portion, which has been irradiated with the first laser light, of the material with a second laser light with which an energy absorption rate of the copper contained in the material increases by an increase in a temperature of the material, wherein a wavelength of the first laser light is 400 nm or more and 470 nm or less, the method being characterised in that: the first laser light and the second laser light are superimposed on each other, and in that: the second laser light is contained in the first laser light.
A radar level gauge system, comprising: an antenna system comprising an imaging phased array in an isolated antenna arrangement, the antenna system configured for monopulse processing for radar image resolution and mapping of a surface of a material; wherein the imaging phased array provides a narrow-beam with beam scanning/steering and emits at least one transmit beam that scans the surface of the material and forms the mapping of the surface, the mapping comprising a 3D volumetric model that includes an image of a surface profile of the surface based on signals returned from the surface, wherein the imaging phase array and the antenna system are protected from condensation and contamination from chemicals and viscous materials, and wherein the antenna system is configured to: measure, based on the monopulse processing and range processing, a position of at least one obstruction that interferes with the at least one transmit beam; optimize scan angles of the at least one transmit beam based on the position of the at least one obstruction; and calculate the 3D volumetric model based on multiple measurement points associated with the at least one transmit beam that is transmitted at the optimized scan angle. wherein the imaging phased array provides a narrow-beam with beam scanning/steering and emits at least one transmit beam that scans the surface of the material and forms the mapping of the surface, the mapping comprising a 3D volumetric model that includes an image of a surface profile of the surface based on signals returned from the surface, wherein the imaging phase array and the antenna system are protected from condensation and contamination from chemicals and viscous materials, and wherein the antenna system is configured to: measure, based on the monopulse processing and range processing, a position of at least one obstruction that interferes with the at least one transmit beam; optimize scan angles of the at least one transmit beam based on the position of the at least one obstruction; and calculate the 3D volumetric model based on multiple measurement points associated with the at least one transmit beam that is transmitted at the optimized scan angle. measure, based on the monopulse processing and range processing, a position of at least one obstruction that interferes with the at least one transmit beam; optimize scan angles of the at least one transmit beam based on the position of the at least one obstruction; and calculate the 3D volumetric model based on multiple measurement points associated with the at least one transmit beam that is transmitted at the optimized scan angle.
A process for hydrogenating a mixture comprising at least one colorless amine and at least one color-imparting component, where the at least one color-imparting component is selected from among cycloaliphatic carbonyl compounds, cycloaliphatic amines, cycloaliphatic imines and/or C6 ring aromatics, wherein the mixture is hydrogenated in the presence of a catalyst to give a mixture in which the at least one color-imparting component is at least partially or completely hydrogenated, the colorless amine present in the mixture is converted in at least one further step into a diphenylmethane derivative, and optionally, in at least one further step, the diphenylmethane derivative is converted into an aromatic isocyanate, with the colorless amine preferably being firstly converted into a diphenylmethane derivative and this subsequently being converted by phosgenation into an aromatic isocyanate.
A polycarbonate resin comprising a structural unit represented by general formula below: wherein R represents H, CH 3 or C 2 H 5, which comprises a mixture of: an isomer to which a -CH 2 O- group in general formula is bound at 6-position (isomer of 2,6-position); and an isomer to which the -CH 2 O- group in general formula is bound at 7-position (isomer of 2,7-position), wherein the isomer of 2,6-position and the isomer of 2,7-position are contained at a mass ratio of 1.0:99.0 to 99.0:1.0. which comprises a mixture of: an isomer to which a -CH 2 O- group in general formula is bound at 6-position (isomer of 2,6-position); and an isomer to which the -CH 2 O- group in general formula is bound at 7-position (isomer of 2,7-position), wherein the isomer of 2,6-position and the isomer of 2,7-position are contained at a mass ratio of 1.0:99.0 to 99.0:1.0.
A vaccine formulation comprising an adjuvant, a pharmaceutically acceptable carrier and a first polypeptide comprising: (a) an amino acid sequence of SEQ ID NO: 265 or 266; or (b) an amino acid sequence at least 97% identical to the amino acid sequence of SEQ ID NO: 265 or 266; or (c) an amino acid sequence of SEQ ID NO: 268, and a second polypeptide comprising: (a) an amino acid sequence of SEQ ID NO: 9 or 10; or (b) an amino acid sequence at least 97% identical to the amino acid sequence of SEQ ID NO: 9 or 10; or (c) an amino acid sequence of SEQ ID NO: 20 or 21.
A fabric layer for a tire, the fabric layer comprising a plurality of warp cords, each warp cord being a monofilament, and a plurality of weft cords extending transversely over and under the warp cords, each weft cord being a flat multifilament cord, wherein the flat weft cord has a ratio of the thickness of the weft cord as measured in a direction perpendicular to the fabric layer to the width of the weft cord as measured in a direction perpendicular to the length of the weft cord in a range of less than 0.5.
An optical glass comprising, in expression of atomic %: Ge + Ga; 6% to 30%; S + Se + Te; 50% to 85%; and Ti; 0.001% to 0.5%, wherein a wavelength (λ T10%) at a long-wavelength side end which infrared transmittance through a glass plate converted to a thickness of 1 mm based on the optical glass becomes 10% is 12 μm or more.