mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling, from a remote station, a camera on board a mobile station transmitting to the said remote station images including at least one target object to be located in a zone explored by the said camera, a method in which: - the remote station estimates the period of latency L between the despatch of a command from the mobile station and the execution of the said command by the said mobile station, - the mobile station transmits to the remote station a first image acquired by the said camera at an instant T-L, - the remote station transmits at a time T to the mobile station a position of the target object in the said first image, - the mobile station compares the position of the target object in the first image with the position of the said object in at least a second image acquired after the said first image at a time T+L, - if the compared positions are identical in the two images realigned in relation to one other the mobile station transmits the said position to the remote station for validation, - otherwise, the mobile station determines, in real time, independently, the trajectory of the target object in the said second image, and then controls the on-board camera in real time in order to accomplish the tracking of the target object over the predicted trajectory. - the remote station estimates the period of latency L between the despatch of a command from the mobile station and the execution of the said command by the said mobile station, - the mobile station transmits to the remote station a first image acquired by the said camera at an instant T-L, - the remote station transmits at a time T to the mobile station a position of the target object in the said first image, - the mobile station compares the position of the target object in the first image with the position of the said object in at least a second image acquired after the said first image at a time T+L, - if the compared positions are identical in the two images realigned in relation to one other the mobile station transmits the said position to the remote station for validation, - otherwise, the mobile station determines, in real time, independently, the trajectory of the target object in the said second image, and then controls the on-board camera in real time in order to accomplish the tracking of the target object over the predicted trajectory.
A bolus for administration of an active substance to an animal, the bolus including a housing, and a core inside the housing wherein the core is formed from a sequential arrangement of a plurality of tablets; the plurality of tablets comprising active-tablets containing an active substance and blank-tablets not containing an active substance, wherein the active-tablets are separated from each other within the housing by blank-tablets; the bolus characterised in that the tablet thickness in the direction of the sequential arrangement of the tablets, of each successive active-tablet increases relative to the preceding active-tablet such that the amount of active substance contained in each active-tablet is progressively more than the amount of active substance contained in the previous active-tablet.
A module for a conveyor belt, comprising: a central portion having a first end and an opposite second end defining the length of the central portion, a top side and an opposite bottom side defining the thickness of the central portion, and a first edge and an opposite second edge defining the width of the central portion; a first linking portion comprising at least one link extending from the first end of the central portion, each link comprising a rib and a transverse link end extending perpendicular to the rib, the transverse link end comprising a load-transferring surface on an inner surface thereof, the load transferring surface divided into an upper load-transferring surface and a lower load-transferring surface by a transverse channel; and a second linking portion comprising at least one link extending from the second end of the central portion, each link comprising a rib and a transverse linkend extending perpendicular to the rib, the transverse linkend comprising a load-transferring surface on an inner surface thereof, the load transferring surface divided into an upper load-transferring surface and a lower load-transferring surface by a transverse channel; wherein each link portion further comprises a hinge opening (182, 183) for receiving a hinge rod; and wherein the first and second linking portions are transversely offset from one another, characterized in that the hinge opening is kidney-shaped and forms an extension of the transverse channel (172, 173). a central portion having a first end and an opposite second end defining the length of the central portion, a top side and an opposite bottom side defining the thickness of the central portion, and a first edge and an opposite second edge defining the width of the central portion; a first linking portion comprising at least one link extending from the first end of the central portion, each link comprising a rib and a transverse link end extending perpendicular to the rib, the transverse link end comprising a load-transferring surface on an inner surface thereof, the load transferring surface divided into an upper load-transferring surface and a lower load-transferring surface by a transverse channel; and a second linking portion comprising at least one link extending from the second end of the central portion, each link comprising a rib and a transverse linkend extending perpendicular to the rib, the transverse linkend comprising a load-transferring surface on an inner surface thereof, the load transferring surface divided into an upper load-transferring surface and a lower load-transferring surface by a transverse channel; wherein each link portion further comprises a hinge opening (182, 183) for receiving a hinge rod; and wherein the first and second linking portions are transversely offset from one another, characterized in that the hinge opening is kidney-shaped and forms an extension of the transverse channel (172, 173).
A method for making a silica nanomembrane comprising: a) depositing onto a polymer film or core having an original size, a layer of silicon dioxide, wherein the silicon dioxide layer has a thickness of between 50 nm and 150 nm; and b) heating the composition of a) at a sufficient temperature and time to allow the polymer film or core to shrink in area by greater than 90%, and wherein the shrinking of the polymer film or core creates silica microstructures and/or nanostructures on the surface of the layer of silica on the silica nanomembrane; and wherein the silica microstructures and/or nanostructures on the surface of the layer of silica comprise silica microscale wrinkles overlaid with silica nanoscale flakes. a) depositing onto a polymer film or core having an original size, a layer of silicon dioxide, wherein the silicon dioxide layer has a thickness of between 50 nm and 150 nm; and b) heating the composition of a) at a sufficient temperature and time to allow the polymer film or core to shrink in area by greater than 90%, and wherein the shrinking of the polymer film or core creates silica microstructures and/or nanostructures on the surface of the layer of silica on the silica nanomembrane; and wherein the silica microstructures and/or nanostructures on the surface of the layer of silica comprise silica microscale wrinkles overlaid with silica nanoscale flakes.
Trailed tank for the spraying of plant protection and fertilizing products, comprising: - a base frame; - movement means, associated with said base frame and adapted to move said base frame on the ground; - a reservoir associated with said base frame and defining a first volume for containing a liquid; - a mixing assembly associated with said base frame and housed in a second volume, said mixing assembly being adapted to mix said liquid with at least one plant protection and/or fertilizing product to obtain a product to be sprinkled; - a spraying assembly of said product to be sprinkled which is associated with said base frame; - a hydraulic circuit, fluid-dynamically connected to said reservoir, to said mixing assembly and to said spraying assembly; characterized by the fact that it comprises an opening/closing element of said second volume, said opening/closing element being movable between an opening configuration, wherein said second volume is open for the access to said mixing assembly, and a closing configuration, wherein said second volume is closed; wherein said reservoir and said opening/closing element in said closure configuration define an overall upper surface of substantially convex conformation; and wherein said second volume extends upwards from said base frame to said overall upper surface. - a base frame; - movement means, associated with said base frame and adapted to move said base frame on the ground; - a reservoir associated with said base frame and defining a first volume for containing a liquid; - a mixing assembly associated with said base frame and housed in a second volume, said mixing assembly being adapted to mix said liquid with at least one plant protection and/or fertilizing product to obtain a product to be sprinkled; - a spraying assembly of said product to be sprinkled which is associated with said base frame; - a hydraulic circuit, fluid-dynamically connected to said reservoir, to said mixing assembly and to said spraying assembly; characterized by the fact that it comprises an opening/closing element of said second volume, said opening/closing element being movable between an opening configuration, wherein said second volume is open for the access to said mixing assembly, and a closing configuration, wherein said second volume is closed; wherein said reservoir and said opening/closing element in said closure configuration define an overall upper surface of substantially convex conformation; and wherein said second volume extends upwards from said base frame to said overall upper surface. characterized by the fact that it comprises an opening/closing element of said second volume, said opening/closing element being movable between an opening configuration, wherein said second volume is open for the access to said mixing assembly, and a closing configuration, wherein said second volume is closed; wherein said reservoir and said opening/closing element in said closure configuration define an overall upper surface of substantially convex conformation; and wherein said second volume extends upwards from said base frame to said overall upper surface.
An in vitro method of producing natural killer cells comprising one or more heterologous nucleic acids, comprising: culturing a population of isolated NK cells in the presence of 500 IU/ml interleukin-2 (IL-2) and in the absence of irradiated feeder cells for 2-3 days to produce a population of activated NK cells; transducing the population of activated NK cells with a viral vector comprising one or more heterologous nucleic acids to produce a population of transduced NK cells; and culturing the population of transduced NK cells in the presence of 500 IU/ml IL-2 and irradiated feeder cells for 14-28 days to produce an expanded population of transduced NK cells. culturing a population of isolated NK cells in the presence of 500 IU/ml interleukin-2 (IL-2) and in the absence of irradiated feeder cells for 2-3 days to produce a population of activated NK cells; transducing the population of activated NK cells with a viral vector comprising one or more heterologous nucleic acids to produce a population of transduced NK cells; and culturing the population of transduced NK cells in the presence of 500 IU/ml IL-2 and irradiated feeder cells for 14-28 days to produce an expanded population of transduced NK cells.
A compressor seal-ring assembly, comprising: a seal comprising a nickel, cobalt or iron-based superalloy; and a counterface positioned for sealing interaction with the seal; characterised by: a lubricant coating on the seal, the lubricant coating comprising a mixture of CoCrAlY and hBN. a seal comprising a nickel, cobalt or iron-based superalloy; and a counterface positioned for sealing interaction with the seal; characterised by: a lubricant coating on the seal, the lubricant coating comprising a mixture of CoCrAlY and hBN.
A composite vane comprising a composite vane body formed of a composite material of a thermosetting resin or a thermoplastic resin, and reinforced fibers, and a metal sheath that is bonded to a leading edge section of the composite vane body via a soft adhesive to cover the leading edge section, wherein an adhesive filling section in which the soft adhesive is filled, a leading edge side contact section that comes into contact with a curved section corresponding to a leading edge of the metal sheath, and a plurality of vane surface side contact sections that come into contact with a planar section corresponding to a vane surface of the metal sheath, with at least a same height as a thickness of a layer of a requisite amount of the soft adhesive filled in the adhesive filling section, are formed integrally in the leading edge section of the composite vane body.
A drill comprising: a chip discharge flute opened in a tip surface; and a cutting edge formed at an intersecting portion between an inner wall surface of the chip discharge flute on a side toward a drill rotation direction and a tip flank (32, 34) formed on the tip surface, the cutting edge being made up of a concavely-curved cutting edge portion formed on an inner circumferential side and a convexly-curved cutting edge portion formed on an outer circumferential side, wherein a cross section orthogonal to an axial center has a first convex curve corresponding to the convexly-curved cutting edge portion and a first concave curve corresponding to the concavely-curved cutting edge portion intersecting with each other, characterized in that a flank following the cutting edge on the tip surface has an orthogonal clearance angle β formed within an angular range of 9 to 20 degrees, and wherein a ridgeline of the cutting edge has a chamfer formed with a width CW within a range of 0.002D to 0.02D (where D is an outer diameter of the cutting edge 12).
An impact energy absorber for absorbing an impact energy on a vehicle, the impact energy absorber comprising: a first wedge shaped part having a first outer surface and a second outer surface; a second wedge shaped part having a third outer surface and a fourth outer surface, and the first wedge shaped part and the second wedge shaped part are adjoined to form a wedge shaped opening between the second surface and the third surface, which second outer surface and third outer surface are facing each other; wherein at least a first rib element is arranged in the wedge shaped opening, the first rib element extending parallel to an impact line from the second outer surface in the direction of the third outer surface along an impact line, and at least one second rib element extending from the third outer surface in the direction of the second outer surface such that the second rib element is in line with the first rib element and wherein, in an undeformed condition, the first rib element and the second rib element are having a distance therebetween. a first wedge shaped part having a first outer surface and a second outer surface; a second wedge shaped part having a third outer surface and a fourth outer surface, and the first wedge shaped part and the second wedge shaped part are adjoined to form a wedge shaped opening between the second surface and the third surface, which second outer surface and third outer surface are facing each other; wherein at least a first rib element is arranged in the wedge shaped opening, the first rib element extending parallel to an impact line from the second outer surface in the direction of the third outer surface along an impact line, and at least one second rib element extending from the third outer surface in the direction of the second outer surface such that the second rib element is in line with the first rib element and wherein, in an undeformed condition, the first rib element and the second rib element are having a distance therebetween.
A portable electronic device comprising one or more integrated temperature sensors for measuring an ambient temperature, a compensator (25,26) for reducing the difference between a sensor output (Ts) and the ambient temperature (Ta), wherein the compensator (25,26) is configured to switch depending on environmental and/or handling conditions between a plurality of compensation modes selected dependent on measurements of one or more other integrated and/or external sensors, wherein the compensator is a heat compensator compensating for internal heat flows to and from the temperature sensor and/or a dynamic compensator compensating for the response function of the temperature sensor.
Security barrier comprising - a front panel and; - a bottom panel; wherein, in installed state of the security barrier, the bottom panel is connected at an angle to the front panel wherein the security barrier comprises a reinforcement panel, which in installed state of the security barrier, covers at least part of the front panel, in order to double the said at least part of the front panel, characterized in that the security barrier comprises side panels which, in installed state of the security barrier, are connected at an angle to the front panel and are connected at an angle to the bottom panel, and wherein in the installed state of the security barrier, the security barrier comprises at least one container, confined on the bottom by the bottom panel, on its sides by two said side panels and on the front by the reinforcement panel, wherein the back of the container is open such that the container is accessible from the back. - a front panel and; - a bottom panel;
A composite panel comprising: a first laminate comprising a first composite material opaque to electromagnetic radiation, said first laminate further comprising an outer perimeter edge and an inner perimeter edge; a second laminate comprising a second composite material transparent to electromagnetic radiation, said second laminate being disposed within and physically joined with said first laminate along said inner perimeter edge; and an antenna that is coupled to, or disposed between layers of, the second laminate; wherein said first laminate comprises: at least one first fiber-reinforced polymer ply; at least one second fiber-reinforced polymer ply; and a first core interposed between said first fiber-reinforced polymer ply and said second fiber-reinforced polymer ply to form a first sandwich structure; and wherein said second laminate comprises: at least one third fiber-reinforced polymer ply; at least one fourth fiber-reinforced polymer ply; and a second core interposed between said third fiber-reinforced polymer ply and said fourth fiber-reinforced polymer ply to form a second sandwich structure; and wherein said first core and said second core are each formed from a material comprising one of a honeycomb structured material, a foam material or a syntactic foam material. a first laminate comprising a first composite material opaque to electromagnetic radiation, said first laminate further comprising an outer perimeter edge and an inner perimeter edge; a second laminate comprising a second composite material transparent to electromagnetic radiation, said second laminate being disposed within and physically joined with said first laminate along said inner perimeter edge; and an antenna that is coupled to, or disposed between layers of, the second laminate; wherein said first laminate comprises: at least one first fiber-reinforced polymer ply; at least one second fiber-reinforced polymer ply; and a first core interposed between said first fiber-reinforced polymer ply and said second fiber-reinforced polymer ply to form a first sandwich structure; and at least one first fiber-reinforced polymer ply; at least one second fiber-reinforced polymer ply; and a first core interposed between said first fiber-reinforced polymer ply and said second fiber-reinforced polymer ply to form a first sandwich structure; and wherein said second laminate comprises: at least one third fiber-reinforced polymer ply; at least one fourth fiber-reinforced polymer ply; and a second core interposed between said third fiber-reinforced polymer ply and said fourth fiber-reinforced polymer ply to form a second sandwich structure; and wherein at least one third fiber-reinforced polymer ply; at least one fourth fiber-reinforced polymer ply; and a second core interposed between said third fiber-reinforced polymer ply and said fourth fiber-reinforced polymer ply to form a second sandwich structure; and wherein said first core and said second core are each formed from a material comprising one of a honeycomb structured material, a foam material or a syntactic foam material.
A multilayer interference film (20, 30, 40), comprising: a first dielectric layer (16, 32); a first carbon layer (14, 34) on the first dielectric layer (16, 32); and a second dielectric layer (22, 36) on the first carbon layer (14, 34); characterized in that the interference film (20, 30, 40) is color shifting; wherein the first (16, 32) and second dielectric layers (22, 36) each have an optical thickness at a design wavelength between 400 nm and 700 nm that provides a color shift as the angle of incident light or viewing angle changes; wherein the first (16, 32) and second dielectric layers (22, 36) each have an optical thickness from 2 QWOT to 9 QWOT at the design wavelength; and wherein the first carbon layer (14, 34) comprises graphite or vitreous carbon. a first dielectric layer (16, 32); a first carbon layer (14, 34) on the first dielectric layer (16, 32); and a second dielectric layer (22, 36) on the first carbon layer (14, 34); characterized in that the interference film (20, 30, 40) is color shifting; wherein the first (16, 32) and second dielectric layers (22, 36) each have an optical thickness at a design wavelength between 400 nm and 700 nm that provides a color shift as the angle of incident light or viewing angle changes; wherein the first (16, 32) and second dielectric layers (22, 36) each have an optical thickness from 2 QWOT to 9 QWOT at the design wavelength; and wherein the first carbon layer (14, 34) comprises graphite or vitreous carbon.