mhurhangee/ep-ind-claims huggingface dataset:
A method for control of a device (D 1, D 2) using a pointing device being aimed by a user in a direction of pointing at an object (O 1, O 2, O 3) associated with the device (D 1, D 2) to be controlled, upon which or in which object (O 1, O 2, O 3) a number of retroreflective marker elements (M 1, M 2, M 3,..., M 11) are positioned, wherein the pointing device comprises a camera and a source of invisible light, wherein the retroreflective marker elements (M 1, M 2, M 3,..., M 11) are adapted to reflect at least part of the invisible light emitted by the light source back to the pointing device, the method comprising the steps of: synchronising the light source and the camera so that a first image (I A) of a target area can be generated whereby the light source is inactive, and a second image (I B) of the target area can be generated, whereby, at least during part of an exposure time for generating the second image (I B), invisible light is emitted by the light source in the direction of pointing; generating said first image (I A) of a target area aimed at by the pointing device; generating said second image (I B) of the target area aimed at by the pointing device; processing the target area images (I A, I B) to determine the presence of retroreflective marker elements (M 1, M 2, M 3,..., M 11); and using information pertaining to the retroreflective marker elements (M 1, M 2, M 3,..., M 11) to determine a control signal (CS 1, CS 2) for the device (D 1, D 2) to be controlled; wherein the process step for determining the presence of the retroreflective marker elements (M 1, M 2, M 3,..., M 11) comprises a step of subtracting the first target area image (I A) from the second target area image (I B) to generate a target area marker image (I M). synchronising the light source and the camera so that a first image (I A) of a target area can be generated whereby the light source is inactive, and a second image (I B) of the target area can be generated, whereby, at least during part of an exposure time for generating the second image (I B), invisible light is emitted by the light source in the direction of pointing; generating said first image (I A) of a target area aimed at by the pointing device; generating said second image (I B) of the target area aimed at by the pointing device; processing the target area images (I A, I B) to determine the presence of retroreflective marker elements (M 1, M 2, M 3,..., M 11); and using information pertaining to the retroreflective marker elements (M 1, M 2, M 3,..., M 11) to determine a control signal (CS 1, CS 2) for the device (D 1, D 2) to be controlled; wherein the process step for determining the presence of the retroreflective marker elements (M 1, M 2, M 3,..., M 11) comprises a step of subtracting the first target area image (I A) from the second target area image (I B) to generate a target area marker image (I M).
A method for exhaust gas treatment of exhaust gases which are released during thermal processing of plastic, in which released exhaust gas flows by means of a vacuum generator from a working region via a line into at least one filter chamber (2.1, 2.2) through at least one first filter element (6.1, 6.2) arranged in the filter chamber (2.1, 2.2) and treated exhaust gas is discharged from the filter chamber (2.1, 2.2), wherein a dry powder mixture, in which at least 40% by mass of Ca 2 and/or CaO and the remainder of further oxides are contained, is added to the exhaust gas before entry into the filter chamber (2.1, 2.2), so that a filter cake is formed with the powder on the surface of the at least one first filter element (6.1, 6.2), and acid contained in the exhaust gas is first adsorbed with the powder mixture with the Ca 2 contained in the filter cake and then the acid reacts chemically with the Ca 2 and/or CaO and a salt of Ca is formed and after reaching a second predetermined pressure in the filter chamber (2.2, 2.2), before the at least one first filter element (6.1, 6.2) as a result of increasing layer thickness of the filter cake and/or reaching a second predetermined layer thickness of the filter cake, cleaning of the filter cake with at least one pressure surge of compressed gas which passes through the at least one first filter element (6.1, 6.2) in a direction opposite to the direction of flow of the exhaust gas, whereby parts of the filter cake are detached from the surface of the at least one first filter element (6.1, 6.2) and transferred to a collecting container. a dry powder mixture, in which at least 40% by mass of Ca 2 and/or CaO and the remainder of further oxides are contained, is added to the exhaust gas before entry into the filter chamber (2.1, 2.2), so that a filter cake is formed with the powder on the surface of the at least one first filter element (6.1, 6.2), and acid contained in the exhaust gas is first adsorbed with the powder mixture with the Ca 2 contained in the filter cake and then the acid reacts chemically with the Ca 2 and/or CaO and a salt of Ca is formed and after reaching a second predetermined pressure in the filter chamber (2.2, 2.2), before the at least one first filter element (6.1, 6.2) as a result of increasing layer thickness of the filter cake and/or reaching a second predetermined layer thickness of the filter cake, cleaning of the filter cake with at least one pressure surge of compressed gas which passes through the at least one first filter element (6.1, 6.2) in a direction opposite to the direction of flow of the exhaust gas, whereby parts of the filter cake are detached from the surface of the at least one first filter element (6.1, 6.2) and transferred to a collecting container.
A nanocomposite for the reverse storage of hydrogen in the form of a cylindrical spiral roll which is made from at least a single monolayer: sheet of polycrystalline or monocrystalline functionalized graphene with a preferably constant pitch i.e. separating spacing, wherein: - the cylindrical spiral roll is wound up onto a carbon core with a diameter in the range of 1 nm to 20 μm; - the cylindrical spiral roll is composed of at most 50 000 polycrystalline or monocrystalline functianalized graphene sheets; - the separating spacing of the cylindrical spiral roll is in the range of 0.2 to 2 nm; - the external diameter of the cylindrical spiral roll is in the range of 500 nm to 5 mm; - the width of the cylindrical spiral roll is in the range of 0.05 to 1000 mm; - the cylindrical spiral roll of functionalized graphene has grains with a minimum diameter of 50 nm; - the space between subsequent sheets contains particles of metal carbides and/or non-metal carbides which cover from 0.1% to 5% of the inner surface of the cylindrical spiral roll. - the cylindrical spiral roll is wound up onto a carbon core with a diameter in the range of 1 nm to 20 μm; - the cylindrical spiral roll is composed of at most 50 000 polycrystalline or monocrystalline functianalized graphene sheets; - the separating spacing of the cylindrical spiral roll is in the range of 0.2 to 2 nm; - the external diameter of the cylindrical spiral roll is in the range of 500 nm to 5 mm; - the width of the cylindrical spiral roll is in the range of 0.05 to 1000 mm; - the cylindrical spiral roll of functionalized graphene has grains with a minimum diameter of 50 nm; - the space between subsequent sheets contains particles of metal carbides and/or non-metal carbides which cover from 0.1% to 5% of the inner surface of the cylindrical spiral roll.
Spin-on filter for a treatment apparatus, in particular filter apparatus for treating, in particular filtering, in particular liquid fluids, in particular fuel, oil or water, in particular of an internal combustion engine, in particular of a motor vehicle, which features a housing with a housing pot, a housing cover, at least one inlet for the fluid to be treated and at least one outlet for the treated fluid, wherein the spin-on filter can be connected to a connecting head of the treatment apparatus using a releasable bayonet-type connecting means by executing a rotary/plug-in movement around a connecting axis of the treatment apparatus and the connecting means features at least one housing connecting part on the side of the housing, which can interact for connecting the connecting means to the at least one head connecting part on the side of the connecting head, wherein the at least one inlet is connectable to at least one inflow of the connecting head for the fluid to be treated and/or the at least one outlet is connectable to at least one outflow of the connecting head for the treating fluid, wherein the at least one housing connecting part features a functional surface (106, 108) in each case on axially opposite sides with respect to the connecting axis, wherein the spin-on filter features on the side of the housing cover at least one sealing means (92, 94, 96, 98) which can sealingly interact with a corresponding component, in particular a sealing surface, on the side of the connecting head towards the environment, wherein the at least one sealing means (92, 94, 96, 98) is disposed with respect to the connecting axis radially inside the at least one housing connecting part, characterized in that an edge of the housing pot on the side of the housing cover at least projects beyond the at least one housing connecting part and the at least one sealing means (92, 94, 96, 98) axially externally with respect to the connecting axis.
A polyurea or polyurethane capsule composition comprising a plurality of capsules and a capsule formation aid, wherein each of the capsules contains a polyurea or polyurethane wall and an oil core; the polyurea or polyurethane wall is formed of a reaction product of a polyisocyanate and a cross-linking agent in the presence of the capsule formation aid; the capsule formation aid is a mixture of carboxymethyl celluloses and polystyrene sulfonates, a mixture of carboxymethyl cellulose and polyvinylpyrrolidone, or a mixture of polyvinylpyrrolidone and a copolymer of vinyl pyrrolidone and quaternized dimethylaminoethyl methacrylate; the oil core contains an active material; the active material is a fragrance, a flavor, or a malodor counteracting agent; and the cross-linking agent is ethylenediamine, 1,3-diaminopropane, 1,4-diamino-butane, diethylenetriamine, pentaethylenehexamine, bis(3-aminopropyl)amine, bis(hexanethylene)triamine, tris(2-aminoethyl)amine, triethylene-tetramine, N,N'-bis(3-aminopropyl)-1,3-propanediamine, tetraethylenepentamine, penta-ethylenehexamine, branched polyethylenimine, chitosan, nisin, gelatin, 1,3-diamino-guanidine, 1,1-dimethylbiguanide, guanidine, arginine, lysine, ornithine, or a combination thereof. each of the capsules contains a polyurea or polyurethane wall and an oil core; the polyurea or polyurethane wall is formed of a reaction product of a polyisocyanate and a cross-linking agent in the presence of the capsule formation aid; the capsule formation aid is a mixture of carboxymethyl celluloses and polystyrene sulfonates, a mixture of carboxymethyl cellulose and polyvinylpyrrolidone, or a mixture of polyvinylpyrrolidone and a copolymer of vinyl pyrrolidone and quaternized dimethylaminoethyl methacrylate; the oil core contains an active material; the active material is a fragrance, a flavor, or a malodor counteracting agent; and the cross-linking agent is ethylenediamine, 1,3-diaminopropane, 1,4-diamino-butane, diethylenetriamine, pentaethylenehexamine, bis(3-aminopropyl)amine, bis(hexanethylene)triamine, tris(2-aminoethyl)amine, triethylene-tetramine, N,N'-bis(3-aminopropyl)-1,3-propanediamine, tetraethylenepentamine, penta-ethylenehexamine, branched polyethylenimine, chitosan, nisin, gelatin, 1,3-diamino-guanidine, 1,1-dimethylbiguanide, guanidine, arginine, lysine, ornithine, or a combination thereof.
A driverless transport system, having a monitoring device which is configured to monitor a protective field of the transport system (1, 12), characterized in that the transport system (1, 12) comprises, in addition to the monitoring device, a projection device which is configured to project protective field information to the surroundings of the transport system (1, 12), wherein the projection device is configured to generate a light projection onto the surroundings of the transport system (1, 12) in order to visibly project the protective field information, wherein the protective field information comprises information on a future protective field which is the basis for a future monitoring of the transport system (1, 12) at a later point in time. a monitoring device which is configured to monitor a protective field of the transport system (1, 12), characterized in that the transport system (1, 12) comprises, in addition to the monitoring device, a projection device which is configured to project protective field information to the surroundings of the transport system (1, 12), wherein the projection device is configured to generate a light projection onto the surroundings of the transport system (1, 12) in order to visibly project the protective field information, wherein the protective field information comprises information on a future protective field which is the basis for a future monitoring of the transport system (1, 12) at a later point in time.
A display device comprising: a display panel; a bottom chassis dimensioned and positioned to support to the display panel; a driving circuit board positioned below a back surface of the bottom chassis facing away from the display panel; a protection member positioned below the driving circuit board; and a guide member coupled to the bottom chassis and fastening the driving circuit board and the protection member to each other, wherein the guide member comprises: a support portion; a coupling portion; a first fastening portion extending from the support portion and fastening the driving circuit board to the guide member; and a second fastening portion fastening the protection member to the guide member; characterized in that the second fastening portion extends from the first fastening portion; and in that the coupling portion extends from a surface of the support portion facing the bottom chassis through the back surface of the bottom chassis opposite the display panel and fastening the support portion to the bottom chassis. a display panel; a bottom chassis dimensioned and positioned to support to the display panel; a driving circuit board positioned below a back surface of the bottom chassis facing away from the display panel; a protection member positioned below the driving circuit board; and a guide member coupled to the bottom chassis and fastening the driving circuit board and the protection member to each other, a support portion; a coupling portion; a first fastening portion extending from the support portion and fastening the driving circuit board to the guide member; and a second fastening portion fastening the protection member to the guide member; characterized in that the second fastening portion extends from the first fastening portion; and in that the coupling portion extends from a surface of the support portion facing the bottom chassis through the back surface of the bottom chassis opposite the display panel and fastening the support portion to the bottom chassis.
A method of using a C-arm imaging system for generating a volumetric set of imaging data of a region of interest of a subject, comprising the steps of: providing an X-ray imaging system having a source and a camera connected by a C-arm, said system imaging said region of interest of the subject disposed between said source and said camera; disposing a target having a series of X-ray opaque markers disposed in a three dimensional pattern, in a fixed position relative to the subject, and where at least part of said target will be imaged by said imaging system while obtaining images of said region of interest; applying a motion path to said C-arm; obtaining from said camera a sequence of video images of said region of interest of the subject while said C-arm performs said motion path; determining the pose of said C-arm relative to the subject for at least some of said sequence of video images by analyzing the image patterns of said target; selecting a number of images from said video sequence; and using said selected video images and their determined poses to reconstruct a three-dimensional volumetric set of imaging data of said region of interest of the subject; said method further comprising the step of processing said video images in an image sequence comparison module, which predicts features of a selected video image by analysis of at least some images preceding said selected image. providing an X-ray imaging system having a source and a camera connected by a C-arm, said system imaging said region of interest of the subject disposed between said source and said camera; disposing a target having a series of X-ray opaque markers disposed in a three dimensional pattern, in a fixed position relative to the subject, and where at least part of said target will be imaged by said imaging system while obtaining images of said region of interest; applying a motion path to said C-arm; obtaining from said camera a sequence of video images of said region of interest of the subject while said C-arm performs said motion path; determining the pose of said C-arm relative to the subject for at least some of said sequence of video images by analyzing the image patterns of said target; selecting a number of images from said video sequence; and using said selected video images and their determined poses to reconstruct a three-dimensional volumetric set of imaging data of said region of interest of the subject; said method further comprising the step of processing said video images in an image sequence comparison module, which predicts features of a selected video image by analysis of at least some images preceding said selected image.
A topical, ocular, suspension formulation, comprising: a. a first active agent of Formula II: or a pharmaceutically acceptable salt thereof; b. a second active agent, or a pharmaceutically acceptable salt thereof, wherein the second active agent is nicotinic acid, nicotinamide, or vitamin K, or a combination thereof; and c. a pharmaceutically acceptable excipient; wherein the first active agent or the pharmaceutically acceptable salt thereof is present in about 0.005% to about 5.0% w/v. a. a first active agent of Formula II: or a pharmaceutically acceptable salt thereof; b. a second active agent, or a pharmaceutically acceptable salt thereof, wherein the second active agent is nicotinic acid, nicotinamide, or vitamin K, or a combination thereof; and c. a pharmaceutically acceptable excipient;
A computer-implemented method for body position detection, comprising the steps of: a) receiving accelerometer data from an accelerometer mounted on a user, wherein the received accelerometer data comprises three acceleration components including a first acceleration component in a first axis direction, a second acceleration component in a second axis direction substantially perpendicular to the first axis direction, and a third acceleration component in a third axis direction substantially perpendicular to a plane formed by the first and second axes; and wherein the first axis direction is parallel to a frontal axis of the user, the second axis direction is parallel to a longitudinal axis of the user, and the third axis direction is parallel to a sagittal axis of the user; and b) determining, based on the received accelerometer data, at least one body position based on a comparison between an absolute value of a projection of a gravity vector on a plane formed by two of the first, second, and third axes and an absolute value of an acceleration component in a remaining axis direction. a) receiving accelerometer data from an accelerometer mounted on a user, wherein the received accelerometer data comprises three acceleration components including a first acceleration component in a first axis direction, a second acceleration component in a second axis direction substantially perpendicular to the first axis direction, and a third acceleration component in a third axis direction substantially perpendicular to a plane formed by the first and second axes; and wherein the first axis direction is parallel to a frontal axis of the user, the second axis direction is parallel to a longitudinal axis of the user, and the third axis direction is parallel to a sagittal axis of the user; and wherein the received accelerometer data comprises three acceleration components including a first acceleration component in a first axis direction, a second acceleration component in a second axis direction substantially perpendicular to the first axis direction, and a third acceleration component in a third axis direction substantially perpendicular to a plane formed by the first and second axes; and wherein the first axis direction is parallel to a frontal axis of the user, the second axis direction is parallel to a longitudinal axis of the user, and the third axis direction is parallel to a sagittal axis of the user; and b) determining, based on the received accelerometer data, at least one body position based on a comparison between an absolute value of a projection of a gravity vector on a plane formed by two of the first, second, and third axes and an absolute value of an acceleration component in a remaining axis direction.
A method of allocating network slices of a network infrastructure, the method comprising: receiving a network slice request for network resources of the network infrastructure in a form of a network slice, the network slice request including a service level agreement, SLA, and an associated payoff; determining whether to accept the network slice based on whether it is expected that a utility function will be better served in terms of maximizing the utility function by accepting the network slice request or waiting for a further network slice request; determining, prior to allocating the network slice, whether the SLA of the network slice request, while guaranteeing the SLAs for the already running network slices, would be fulfilled; allocating the network slice; and installing the network slice in the network infrastructure, characterized in that past information including previous payoffs and resource utilization based on other SLAs having requirements comparable to the SLA of the network slice request is considered to determine whether to accept the network slice request. receiving a network slice request for network resources of the network infrastructure in a form of a network slice, the network slice request including a service level agreement, SLA, and an associated payoff; determining whether to accept the network slice based on whether it is expected that a utility function will be better served in terms of maximizing the utility function by accepting the network slice request or waiting for a further network slice request; determining, prior to allocating the network slice, whether the SLA of the network slice request, while guaranteeing the SLAs for the already running network slices, would be fulfilled; allocating the network slice; and installing the network slice in the network infrastructure,