mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method (200, 300) for interactively ranking image search results using color layouts extracted by performing an off-line color layout extraction for each of a plurality of images crawled from an internet, wherein text metadata is attached to the images, wherein for each image, a plurality of dominant colors in the image are found, and wherein for each color of said plurality of dominant colors, a color layout is computed as a binary vector having entries, each entry indicating for a given two-dimensional grid position in the image whether the respective color is equal to one of the plurality of dominant colors at the respective grid position, the method (200, 300) comprising: receiving a text query for an image search; returning image search results in response to the received text query (110, 204); receiving from the user a user-specified color layout (118, 208), wherein the user selects at least one color from a palette selected among a plurality of color selection palettes, and wherein the user specifies the color layout using at least one specification scheme; evaluating a similarity (206, 210, 212) between the user-specified color layout (118, 208) and the color layouts of each image in the image search results (120, 204, 218), wherein the similarity is based on a color similarity and a layout component-wise similarity; reordering (206, 210, 212) the image search results (120, 204, 218) based on said evaluated similarities between the color layouts of the images in the image search results and the user-specified color layout (118, 208); and presenting the ranked image search results in a structured presentation. receiving a text query for an image search; returning image search results in response to the received text query (110, 204); receiving from the user a user-specified color layout (118, 208), wherein the user selects at least one color from a palette selected among a plurality of color selection palettes, and wherein the user specifies the color layout using at least one specification scheme; evaluating a similarity (206, 210, 212) between the user-specified color layout (118, 208) and the color layouts of each image in the image search results (120, 204, 218), wherein the similarity is based on a color similarity and a layout component-wise similarity; reordering (206, 210, 212) the image search results (120, 204, 218) based on said evaluated similarities between the color layouts of the images in the image search results and the user-specified color layout (118, 208); and presenting the ranked image search results in a structured presentation.
A method executed by one or more processors, comprising: receiving an image of a scene in real world, the image comprising a plurality of distances to points in the real world; using the plurality of distances, to identify a set of surfaces in the scene; selecting an element of information to project onto the scene, the element of information being selected from multiple elements that are independent of one another and can be projected on different surfaces; comparing an area of a rectangle to display the selected element to a total number of pixels in a region of the image corresponding to a surface in the set of surfaces; selecting the surface from the set of surfaces, on which the element of information can be projected, the surface being found by the comparing to have a number of pixels greater or equal to the area of the rectangle to accommodate the element of information; identifying a transfer function to use the selected surface,; applying the transfer function to the element of information; and storing a transformed element resulting from the applying in a frame buffer in a memory for projection onto the surface. receiving an image of a scene in real world, the image comprising a plurality of distances to points in the real world; using the plurality of distances, to identify a set of surfaces in the scene; selecting an element of information to project onto the scene, the element of information being selected from multiple elements that are independent of one another and can be projected on different surfaces; comparing an area of a rectangle to display the selected element to a total number of pixels in a region of the image corresponding to a surface in the set of surfaces; selecting the surface from the set of surfaces, on which the element of information can be projected, the surface being found by the comparing to have a number of pixels greater or equal to the area of the rectangle to accommodate the element of information; identifying a transfer function to use the selected surface,; applying the transfer function to the element of information; and storing a transformed element resulting from the applying in a frame buffer in a memory for projection onto the surface.
An ink composition comprising a (meth) acrylic resin and a drying oil, the (meth)acrylic resin: containing at least 60% by weight or more of a structural unit derived from (meth)acryl monomer having a cyclic alkyl group having 4 or more carbon atoms; having a glass transition temperature of 63°C to 180°C; and having a weight-average molecular weight of 1000 to 80,000, wherein the (meth)acryl monomer is selected from the group consisting of tert-butylcyclohexyl methacrylate, cyclohexyl methacrylate, isobornyl methacrylate, adamantyl methacrylate, dicyclopentenyl methacrylate, dicyclopentanyl methacrylate, isobornyl acrylate, dicyclopentenyl acrylate, dicyclopentanyl acrylate, and adamantyl acrylate. containing at least 60% by weight or more of a structural unit derived from (meth)acryl monomer having a cyclic alkyl group having 4 or more carbon atoms; having a glass transition temperature of 63°C to 180°C; and having a weight-average molecular weight of 1000 to 80,000,
An energy absorber configured for use in an opening of a wall of a building, the opening defined by a perimeter surface, the wall supporting a closure substantially filling the opening, said closure having respective edges which are substantially parallel to said perimeter surface of the opening; the energy absorber having a planar elongated wall connecting portion having a first mounting aperture for mounting said wall connecting portion to the wall, a planar elongated closure connecting portion having a second mounting aperture for mounting said closure connecting portion to the closure, and a plastically deformable deforming surface therebetween, said elongated connecting portions being substantially parallel to one another, said mounting apertures being configured at a distance from each other along an axis, the energy absorber being characterized in said deforming surface further comprising at least one first slot formed therealong traversing said axis and having a length exceeding said distance between the mounting apertures, whereby the energy absorber is configured for being mounted such that said at least one first slot extends parallel to the perimeter surface and to the respective edge, allowing thereby said deforming surface to absorb, by plastic deformation, a force applied to the closure.
A hot melt adhesive comprising: (a) 5 to 40 wt% of a polypropylene-polyethylene (co) polymer having (i) a propylene content of 70 to 95 wt% of the (co)polymer, (ii) a polydispersity (Mw/Mn) index of less than 3.0, (iii) a melt flow rate of 20 to 300 g/10 min measured at 230°C/2.16 kg in accordance with ASTM D1238, (iv) a melting point of less than 90°C, measured in accordance with ASTM 3418, and (v) a heat of fusion value of less than 35 J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12; (b) 30 to 70 wt% of a tackifier; and (c) optionally up to 30 wt% of a wax or a plasticizer; wherein the adhesive has (i) a tan(δ) value of greater than 30 at 140°C, 10 rad/s and (ii) a melt viscosity of 2,000 to 11,000 mPa·s (cps) at 150°C, measured in accordance with ASTM 3236-88. (a) 5 to 40 wt% of a polypropylene-polyethylene (co) polymer having (i) a propylene content of 70 to 95 wt% of the (co)polymer, (ii) a polydispersity (Mw/Mn) index of less than 3.0, (iii) a melt flow rate of 20 to 300 g/10 min measured at 230°C/2.16 kg in accordance with ASTM D1238, (iv) a melting point of less than 90°C, measured in accordance with ASTM 3418, and (v) a heat of fusion value of less than 35 J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12; (b) 30 to 70 wt% of a tackifier; and (c) optionally up to 30 wt% of a wax or a plasticizer; wherein the adhesive has (i) a tan(δ) value of greater than 30 at 140°C, 10 rad/s and (ii) a melt viscosity of 2,000 to 11,000 mPa·s (cps) at 150°C, measured in accordance with ASTM 3236-88.
Holder for fastening a component, in particular a fuel distributor, to an internal combustion engine via a holding element, wherein the holder has at least one decoupling element (8, 9), a fastening body, and a fastening means, wherein the fastening body is able to be fastened to the internal combustion engine by means of the fastening means, and wherein the holding element is able to be fastened to the fastening body via the decoupling element (8, 9), and wherein a preload element is provided, wherein the preload element is able to be connected to the fastening body, and wherein preloading of the decoupling element (8, 9) is able to be set by way of a predefinable arrangement of the preload element relative to the fastening body, in which arrangement the connection of the preload element to the fastening body is realized, wherein the connection of the preload element to the fastening body is realized in said predefined arrangement or position of the preload element relative to the fastening body, and wherein a support element is provided such that the decoupling element (8, 9) is able to be preloaded at least indirectly against the support element by the preload element, characterized in that the preload element and the support element are arranged spaced apart from one another, and are passed through by the fastening body to which they are each connected, such that mutual abutment of the preload element and the support element is excluded, wherein the preload element has an inner bearing surface by way of which the preload element bears against an outer surface of the fastening body, and in that the fastening body has at least one depression on the outer surface of the fastening body, in that the preload element has a deformable shoulder, and in that the deformable shoulder and the depression of the fastening body are formed such that the preload element is able to be connected to the fastening body by way of flanging, or in that the preload element is connected to the fastening body by way of welding, or in that the preload element is screwed by way of an inner thread of the preload element onto an outer thread of the fastening body, or in that the inner bearing surface of the preload element and the outer surface of the fastening body are formed such that the preload element is able to be connected to the fastening body by way of an interference fit formed between the inner bearing surface of the preload element and the outer surface of the fastening body.
A machine for automatically pulling out the cut-off plant branches (64, 65; 233) of plants (63; 237), in particular vine plants, substantially arranged in a row extending along at least one tying wire, the branches clinging by tendrils on the tying wire, wherein the machine comprises a combination of means capable to extract the cut-off plant branches downwards, characterized in that the combination of means comprises a pressing device and a pulling device, that the pressing device is arranged to press the branches by a pressing force on a downwardly moving surface of the pulling device, and that the pressing device and the pulling device are positioned on opposite sides with respect to the plant row, so that the cut-off branches are dragged along by the downwards moving surface.
Dual-fuel fuel injector, having: - a multiplicity of gas nozzle needles which are controllable in terms of their stroke and which, on the dual-fuel fuel injector, are received in axially displaceable fashion in respective receptacles and are distributed in a circumferential direction of the dual-fuel fuel injector; - a nozzle chamber provided for the multiplicity of gas nozzle needles, characterized in that - the nozzle chamber has radially outer bulges, within the respective cross section of which there is defined in each case one inlet cross section of a flow path, which can be selectively shut off by means of the respective gas nozzle needle, to at least one nozzle opening. - a multiplicity of gas nozzle needles which are controllable in terms of their stroke and which, on the dual-fuel fuel injector, are received in axially displaceable fashion in respective receptacles and are distributed in a circumferential direction of the dual-fuel fuel injector; - a nozzle chamber provided for the multiplicity of gas nozzle needles, characterized in that - the nozzle chamber has radially outer bulges, within the respective cross section of which there is defined in each case one inlet cross section of a flow path, which can be selectively shut off by means of the respective gas nozzle needle, to at least one nozzle opening. - the nozzle chamber has radially outer bulges, within the respective cross section of which there is defined in each case one inlet cross section of a flow path, which can be selectively shut off by means of the respective gas nozzle needle, to at least one nozzle opening.
A relay along which a current flows in response to a contact between a fixed contact and a movable contact, wherein the relay comprises: a housing; a cylinder coupled to an inner side of the housing; the fixed contact coupled to the housing; the movable contact movably located within the housing and contactable with or separated from the fixed contact; a coil assembly disposed in the housing and configured to generate a magnetic field when a current is applied; a movable shaft coupled with the movable contact at an upper portion thereof; a fixed core inserted into the cylinder and surrounding the movable shaft; a movable core fixed to the movable shaft and configured to move the movable shaft in a pressing manner by the magnetic field generated in the coil assembly; a wipe spring configured to supply elastic force to the movable shaft such that the movable contact moves to be brought into contact with the fixed contact; and a return spring surrounding the movable shaft and located between the fixed core and the movable core, characterized in that, the movable core comprises a cylindrical protrusion formed on a upper end thereof, and extending toward the fixed core, wherein the fixed core comprises an accommodating portion configured to accommodate therein the protrusion, wherein an inner circumferential surface of the cylindrical protrusion contacts the movable shaft and an outer circumferential surface of the cylindrical protrusion contacts an inner circumferential surface of the fixed core. a housing; a cylinder coupled to an inner side of the housing; the fixed contact coupled to the housing; the movable contact movably located within the housing and contactable with or separated from the fixed contact; a coil assembly disposed in the housing and configured to generate a magnetic field when a current is applied; a movable shaft coupled with the movable contact at an upper portion thereof; a fixed core inserted into the cylinder and surrounding the movable shaft; a movable core fixed to the movable shaft and configured to move the movable shaft in a pressing manner by the magnetic field generated in the coil assembly; a wipe spring configured to supply elastic force to the movable shaft such that the movable contact moves to be brought into contact with the fixed contact; and a return spring surrounding the movable shaft and located between the fixed core and the movable core, characterized in that, the movable core comprises a cylindrical protrusion formed on a upper end thereof, and extending toward the fixed core, wherein the fixed core comprises an accommodating portion configured to accommodate therein the protrusion, wherein an inner circumferential surface of the cylindrical protrusion contacts the movable shaft and an outer circumferential surface of the cylindrical protrusion contacts an inner circumferential surface of the fixed core.
Method of operating a motor vehicle with the stages: - recording of a gesture of a vehicle occupant directed at an object (32, 36) by means of a gesture recognition unit; - interpretation of the gesture and identification of the object (32, 36) by means of a data processing unit; - generation of a corresponding control command as a function of the interpreted gesture and the identified object (32, 36) and activation of an assistance system of the motor vehicle in accordance with the control command by means of the data processing unit; - recording of a spoken command by the vehicle occupant, expressed before, during or after the recording of the gesture, by means of a speech recognition unit; - combined interpretation of the gesture, the identified object (32, 36) and the spoken command as well as generation of the control command as a function of the combined interpretation by means of the data processing unit; characterised in that - both in the case of a gesture directed at an object located outside the vehicle and in the case of a gesture directed at an object located inside the vehicle this is recorded and interpreted as well as the object (32, 36) being identified; - a movement of a finger by the vehicle occupant by means of which the object (32, 36) is being pointed to is recorded as a gesture. - recording of a gesture of a vehicle occupant directed at an object (32, 36) by means of a gesture recognition unit; - interpretation of the gesture and identification of the object (32, 36) by means of a data processing unit; - generation of a corresponding control command as a function of the interpreted gesture and the identified object (32, 36) and activation of an assistance system of the motor vehicle in accordance with the control command by means of the data processing unit; - recording of a spoken command by the vehicle occupant, expressed before, during or after the recording of the gesture, by means of a speech recognition unit; - combined interpretation of the gesture, the identified object (32, 36) and the spoken command as well as generation of the control command as a function of the combined interpretation by means of the data processing unit; - both in the case of a gesture directed at an object located outside the vehicle and in the case of a gesture directed at an object located inside the vehicle this is recorded and interpreted as well as the object (32, 36) being identified; - a movement of a finger by the vehicle occupant by means of which the object (32, 36) is being pointed to is recorded as a gesture.
A double knot-twine knotter unit, in particular for a large bale press with twine tying with a plurality of double knot-twine knotters assembled on one knotter driveshaft, in which each double knot-twine knotter comprises at least one knotter drive disk, one knotter chassis, one knotter module, and one blade lever, and in which - the knotter drive disk is attached such that it cannot rotate relative to the knotter driveshaft, which can be driven about its axis, - the knotter chassis is assigned to the knotter drive disk such that the knotter chassis is held fixed in space, at one end with respect to a bale press channel, and at the other end by the knotter driveshaft, - the knotter chassis carries a knotter module forming two knots, one following another, and also the blade lever, which is driven by a cam track of the knotter drive disk, and - the knotter module comprises at least one twine holder driven from a first toothed drive segment of the knotter drive disk, and also one knotter hook driven from a second toothed drive segment of the knotter drive disk, characterised in that, the knotter module is arranged overall axially offset with respect to the hub of the knotter drive disk and the driveshaft side end of the knotter chassis, and such that the knotter module is arranged overlapping on a sub-length of the knotter module with the knotter drive disk of the adjacent double knot-twine knotter in the axial direction of the knotter driveshaft. - the knotter drive disk is attached such that it cannot rotate relative to the knotter driveshaft, which can be driven about its axis, - the knotter chassis is assigned to the knotter drive disk such that the knotter chassis is held fixed in space, at one end with respect to a bale press channel, and at the other end by the knotter driveshaft, - the knotter chassis carries a knotter module forming two knots, one following another, and also the blade lever, which is driven by a cam track of the knotter drive disk, and - the knotter module comprises at least one twine holder driven from a first toothed drive segment of the knotter drive disk, and also one knotter hook driven from a second toothed drive segment of the knotter drive disk,
Reflective composite material having a substrate consisting of aluminium, having an intermediate layer of anodically oxidized substrate material which is located on one side of the substrate and comprises a thickness (D 2) in the range of 10 nm to 10.0 μm, and having an optically active multilayer system applied over the intermediate layer, which consists of at least three layers, the upper layers (4, 5) being dielectric and/or oxidic layers, and the lowest layer being a metallic layer consisting of silver, which forms a reflective layer with a high overall reflectance in the region of visible light, wherein a diffusion-inhibiting barrier layer is arranged above the intermediate layer and below the reflective layer, which prevents migration of silver particles from the layer consisting of silver through the intermediate layer into the carrier consisting of aluminium, wherein the diffusion-inhibiting barrier layer contains palladium or a substance of the chemical composition Cr w Ni x N y O z, wherein the indices w, x, y and z denote a stoichiometric or non-stoichiometric ratio and the following applies to the indices w, x, y, z: 0 ≤ w ≤ 1 and 0 ≤ x ≤ 1, 0 ≤ y ≤ 1, 0 ≤ z ≤ 5, wherein at least one of the indices w or x is larger than zero, and wherein the reflective layer is bonded to the barrier layer via an adhesion promoter layer which is adjacent to the reflective layer on one side and to the barrier layer on the other side, which increases an adhesion of the reflective layer consisting of silver to the barrier layer, wherein a total light reflectance on the side of the optical multilayer system determined according to DIN 5036, part 3 is larger than 97 %, wherein in a test according to DIN ISO 9211-4:2006 or ASTM D4585 after at least 168 h exposure at elevated temperature (≥ 50 °C) no optical change of the surface or a decrease of the total light reflectance of less than 1 % - for LED applications according to DIN 5036-3 - or a decrease of the solar weighted total reflectance of less than 1 % - for solar applications with the solar spectrum AM1.5 from ASTM G173-03 - and in a test with a solar simulator according to ASTM E-927-85 "Type Class A" at a measured UV-A and UV-B total intensity on the sample surface comprising a temperature of at least 150 °C, the decrease in the total light reflectance Y or the solar-weighted total reflectance R solar is less than 1 %, whereby the exposure time required to achieve this change in reflectance is at least 500 h in the case of a total UV intensity of 150 mW/cm 2 and at least 1000 h in the case of a total UV intensity of 70 mW/cm 2.