mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for processing a video stream, the computer-implemented method comprising: receiving a video stream comprising a plurality of frames of image data (304a to 304h); selecting portions of the image data on the basis of first data indicating locations within the image data; modifying the selected portions to generate modified portions of the image data (308a to 308c); generating second data for use in recovering at least some of the selected portions from the modified portions (308a to 308c), the second data comprising metadata representing an expiry date value for the second data; outputting the second data, unselected portions of the image data and the modified portions of the image data (312a to 312e); providing the modified portions of the image data (308a to 308c) and the unselected portions of the image data (312a to 312e) to a user at a first time; and at a second time, the second time being after the first time: receiving a request to provide the second data to the user; comparing the expiry date value for the second data with a reference date value; and performing a predetermined action in dependence on the comparison of the expiry date value with the reference date value. receiving a video stream comprising a plurality of frames of image data (304a to 304h); selecting portions of the image data on the basis of first data indicating locations within the image data; modifying the selected portions to generate modified portions of the image data (308a to 308c); generating second data for use in recovering at least some of the selected portions from the modified portions (308a to 308c), the second data comprising metadata representing an expiry date value for the second data; outputting the second data, unselected portions of the image data and the modified portions of the image data (312a to 312e); providing the modified portions of the image data (308a to 308c) and the unselected portions of the image data (312a to 312e) to a user at a first time; and at a second time, the second time being after the first time: receiving a request to provide the second data to the user; comparing the expiry date value for the second data with a reference date value; and performing a predetermined action in dependence on the comparison of the expiry date value with the reference date value. receiving a request to provide the second data to the user; comparing the expiry date value for the second data with a reference date value; and performing a predetermined action in dependence on the comparison of the expiry date value with the reference date value.
A method of determining a steering-angle between a leading vehicle and an aircraft; the leading vehicle is connected to the aircraft and is configured to lead the aircraft on the ground; the leading vehicle comprises a platform and one or more scanners (101, 103) which are positioned on the platform, the method comprising: obtaining scanning information of at one or more scanning planes of the aircraft's underbelly; the scanning information is generated by the one or more scanners (101, 103); the scanning information of each of the one or more scanning planes comprising a respective group of scanned points of the aircraft's underbelly; determining, for each scanning plane, respective real-time geometric properties; the respective real-time geometric properties including at least data indicative of ranges between scanned points in the respective group and a certain fixed point on the platform; determining, based on the real-time geometric properties, a steering-angle between a longitudinal axis of the leading vehicle and a longitudinal axis of the aircraft. obtaining scanning information of at one or more scanning planes of the aircraft's underbelly; the scanning information is generated by the one or more scanners (101, 103); the scanning information of each of the one or more scanning planes comprising a respective group of scanned points of the aircraft's underbelly; determining, for each scanning plane, respective real-time geometric properties; the respective real-time geometric properties including at least data indicative of ranges between scanned points in the respective group and a certain fixed point on the platform; determining, based on the real-time geometric properties, a steering-angle between a longitudinal axis of the leading vehicle and a longitudinal axis of the aircraft.
An adjustable cable fitting (40; 140; 240) for a thru-arm cable of a robotic welding torch, the fitting (40; 140; 240) comprising: - a female member (42; 142; 242) formed of an elongated tubular body (44; 144; 244) having a forward end (46; 146; 246), a rear end (48; 148; 248), and a through hole (50; 180; 250) extending axially from the forward end (46; 146; 246) to the rear end (48; 148; 248); - a male member (54; 154; 254) cooperable with said female member (42; 142; 242) in a telescoping manner; - said male member (54; 154; 254) including a shaft (56; 184; 256) received in said through hole (50; 180; 250) of said female member (42; 142; 242), a receiver (60; 260) connected to said shaft (56; 184; 256) for receiving a power pin, and a through hole (50; 180; 250) extending axially through said shaft (56; 184; 256) and receiver (60; 260); wherein adjustment of a disposition of said male member (54; 154; 254) relative to said female member (42; 142; 242) varies an effective length of a power cable, characterized in that said forward end (46; 146; 246) of said female member (42; 142; 242) including a nose portion (52; 152; 252) for connection to the power cable; and in that a nut (64; 188; 290) is disposed on said shaft (56; 184; 256) of said male member (54; 154; 254) for locking a position of said shaft (56; 184; 256) relative to said female member (42; 142; 242). - a female member (42; 142; 242) formed of an elongated tubular body (44; 144; 244) having a forward end (46; 146; 246), a rear end (48; 148; 248), and a through hole (50; 180; 250) extending axially from the forward end (46; 146; 246) to the rear end (48; 148; 248); - a male member (54; 154; 254) cooperable with said female member (42; 142; 242) in a telescoping manner; - said male member (54; 154; 254) including a shaft (56; 184; 256) received in said through hole (50; 180; 250) of said female member (42; 142; 242), a receiver (60; 260) connected to said shaft (56; 184; 256) for receiving a power pin, and a through hole (50; 180; 250) extending axially through said shaft (56; 184; 256) and receiver (60; 260);
A method in an apparatus, comprising: determining one or more first devices that are Internet devices meeting all of the following conditions: residing at a given location; equipped with one or more ambience sensing capable sensors; and operation mode being such that their ambience sensing capable sensors should not cause transmission of data; determining one or more second devices that are Internet devices at the given location and equipped with one or more elements capable of causing an ambient stimulation detectable by the sensors of one or more first devices; monitoring data transmissions of the first devices; causing issuing of the ambient stimulation by a subset of the one or more second devices; and determining whether the issuing of the ambient stimulation caused a significant change in the monitored data transmissions of the first devices. determining one or more first devices that are Internet devices meeting all of the following conditions: residing at a given location; equipped with one or more ambience sensing capable sensors; and operation mode being such that their ambience sensing capable sensors should not cause transmission of data; determining one or more second devices that are Internet devices at the given location and equipped with one or more elements capable of causing an ambient stimulation detectable by the sensors of one or more first devices; monitoring data transmissions of the first devices; causing issuing of the ambient stimulation by a subset of the one or more second devices; and determining whether the issuing of the ambient stimulation caused a significant change in the monitored data transmissions of the first devices.
An organic light emitting display (OLED) device (2001, 1001), comprising: a first substrate; a second substrate placed over the first substrate, wherein each of the first and second substrates is made of a single layer or comprises a plurality of layers; an array of organic light-emitting pixels interposed between the first and second substrates; and a sealing structure interposed between the first and second substrates while surrounding the array, wherein the sealing structure, the first substrate and the second substrate in combination define an enclosed space in which the array is located; wherein the sealing structure comprises a first member, a second member and a third member, the first member comprising a first material, the second member comprising a second material, and the third member comprising a third material, and wherein the second member is located between and contacts the first and third members, characterized in that the third member includes two discontinuous portions only, in that the first material comprises frit, the second material comprises one or more selected from the group consisting of epoxy, acryl, and urethane resin, and the third material comprises one or more selected from the group consisting of epoxy, acrylate, urethane acrylate, and acrylate cyanide resin, and in that the first member surrounds the array, the second member surrounds the first member, and the third member surrounds the second member. a first substrate; a second substrate placed over the first substrate, wherein each of the first and second substrates is made of a single layer or comprises a plurality of layers; an array of organic light-emitting pixels interposed between the first and second substrates; and a sealing structure interposed between the first and second substrates while surrounding the array, wherein the sealing structure, the first substrate and the second substrate in combination define an enclosed space in which the array is located; wherein the sealing structure comprises a first member, a second member and a third member, the first member comprising a first material, the second member comprising a second material, and the third member comprising a third material, and wherein the second member is located between and contacts the first and third members, characterized in that the third member includes two discontinuous portions only, in that the first material comprises frit, the second material comprises one or more selected from the group consisting of epoxy, acryl, and urethane resin, and the third material comprises one or more selected from the group consisting of epoxy, acrylate, urethane acrylate, and acrylate cyanide resin, and in that the first member surrounds the array, the second member surrounds the first member, and the third member surrounds the second member.
An optical system for receiving and collimating light to provide for a continuously emitting output aperture, the optical system comprising: a collimation unit comprising an array of parabolic interfaces (220, 230) that each define an inlet opening and an outlet opening, wherein at least one parabolic interface (220, 230) is configured to reflect light entering through the inlet opening through the outlet opening and limit the angular spread of the light to an acceptance angle (θ CPC) associated with the at least one parabolic interface (220, 230); and a homogenization unit for homogenizing the light emerging from the collimation unit, the homogenization unit comprising a lens array with pairs of a first lens and a second lens, wherein the lens array is configured such that light from the outlet opening collected by a first lens illuminates the respective second lens, wherein the lens array is associated with an acceptance angle (β FEC) defined by tan(β FEC) = a/2f, with a being the full aperture of the first lens and f being the focal length of the first lens, wherein the relation of the acceptance angle (θ CPC) associated with the at least one parabolic interface (220, 230) to the acceptance angle (β FEC) associated with the lens array is given by 0.85 β FEC ≤ θ CPC ≤ 1.15 β FEC. a collimation unit comprising an array of parabolic interfaces (220, 230) that each define an inlet opening and an outlet opening, wherein at least one parabolic interface (220, 230) is configured to reflect light entering through the inlet opening through the outlet opening and limit the angular spread of the light to an acceptance angle (θ CPC) associated with the at least one parabolic interface (220, 230); and a homogenization unit for homogenizing the light emerging from the collimation unit, the homogenization unit comprising a lens array with pairs of a first lens and a second lens, wherein the lens array is configured such that light from the outlet opening collected by a first lens illuminates the respective second lens, wherein the lens array is associated with an acceptance angle (β FEC) defined by tan(β FEC) = a/2f, with a being the full aperture of the first lens and f being the focal length of the first lens, wherein the relation of the acceptance angle (θ CPC) associated with the at least one parabolic interface (220, 230) to the acceptance angle (β FEC) associated with the lens array is given by 0.85 β FEC ≤ θ CPC ≤ 1.15 β FEC.
A drive gear assembly that includes: (a) a drive shaft; (b) a drive gear, either spur or helical, mounted on or integral with a drive shaft and rotatable therewith and being adapted to mesh with a spur or helical driven gear; and (c) a self-aligning assembly that supports the drive shaft for rotation about an axis of the drive shaft and so that the drive gear can self-align with respect to the driven gear wherein the self-aligning assembly comprises bearing assemblies, a support shaft that is supported for rotation about its pivot axis by the bearing assemblies, and a support member in the form of a yoke that includes a base and two arms extending from opposite ends of the base, with the base being coupled to the support shaft and the arms being coupled to the drive shaft of the drive gear assembly at opposite ends of the drive gear of the drive gear assembly, characterized in that the arms are coupled to the drive shaft of the drive gear assembly via a pair of eccentric bearing cartridges that are carried by the arms, wherein the self-aligning assembly is arranged to pivot about an axis, hereinafter referred to as "the pivot axis", which is: (a) perpendicular to the drive shaft axis; (b) in a plane that (i) passes through a midpoint of an active face width of the drive gear and the driven gear; and (ii) is perpendicular to the drive shaft axis; and (c) if projected, passes through a pitch point of the drive gear and the driven gear at the midpoint of the active face width. (a) a drive shaft; (b) a drive gear, either spur or helical, mounted on or integral with a drive shaft and rotatable therewith and being adapted to mesh with a spur or helical driven gear; and (c) a self-aligning assembly that supports the drive shaft for rotation about an axis of the drive shaft and so that the drive gear can self-align with respect to the driven gear (a) perpendicular to the drive shaft axis; (b) in a plane that (i) passes through a midpoint of an active face width of the drive gear and the driven gear; and (ii) is perpendicular to the drive shaft axis; and (i) passes through a midpoint of an active face width of the drive gear and the driven gear; and (ii) is perpendicular to the drive shaft axis; and (c) if projected, passes through a pitch point of the drive gear and the driven gear at the midpoint of the active face width.
Filter insert (100, 200, 2100) for a filter, in particular for internal combustion engines, for filtering air, with a prismatic basic shape, wherein the base surface (240, 340) and the cover surface (242, 342) arranged parallel to each other feature a polygonal, quadrangular basic shape, with a first circumferential surface (210, 310) and a second circumferential surface (211, 311) adjacent to the first circumferential surface (210, 310), wherein the first circumferential surface (210, 310) is an inflow surface and perpendicular to the adjacent second circumferential surface and to the main flow direction within the main filter insert, a third cylindrical surface (212, 312), which is an outflow surface and forms an angle with the first circumferential surface which is larger than 10° and smaller than 80°, and a fourth circumferential surface, which is disposed parallel to the second circumferential surface, wherein the filter insert features a seal (116, 2116) in the area of the outflow surface (112, 312) for separating a filter interior into a clean side and a raw side, and the sealing surface (114, 2114) and the outflow surface of the main filter insert (112, 2112) extend parallel.
Process for producing a crosslinked antifog coating on an optical component, comprising the provision of the optical component and the covalent binding of a silane derivative by chemical reaction with reactive groups on the surface of the optical component, followed by crosslinking; wherein the silane derivative is a silane derivative of the formula: R o X m SiB n wherein m = 1-3, n = 1-2 and o = 0 - 1, under the condition that m + n + o = 4, the radical X is selected from halogen or C 1-4 -alkoxy, wherein where m = 2-3 the individual radicals X may be the same or different, the radical R is C 1-4 -alkyl, the radical B has the structure -B1-B2, in which B2 is a terminal hydrophilic group which is crosslinked with at least one of a hydrophilic group of an adjacent molecule of the antifog layer, and -B1- is either a spacer group, which links the hydrophilic group B2 with the Si atom, or is a covalent bond, wherein the terminal hydrophilic group -B2 is poly(meth)acrylate, wherein where n = 2 the individual radicals B may be the same or different; and wherein the crosslinking is effected between adjacent molecules of the hydrophilic groups -B2 of the antifog coating. m = 1-3, n = 1-2 and o = 0 - 1, under the condition that m + n + o = 4, the radical X is selected from halogen or C 1-4 -alkoxy, wherein where m = 2-3 the individual radicals X may be the same or different, the radical R is C 1-4 -alkyl, the radical B has the structure -B1-B2, in which B2 is a terminal hydrophilic group which is crosslinked with at least one of a hydrophilic group of an adjacent molecule of the antifog layer, and -B1- is either a spacer group, which links the hydrophilic group B2 with the Si atom, or is a covalent bond, wherein the terminal hydrophilic group -B2 is poly(meth)acrylate, wherein where n = 2 the individual radicals B may be the same or different; and
A method for switching a drive of a hybrid vehicle from one operating mode into another operating mode, wherein - the drive has an internal combustion engine, at leastone propulsion-generating electric machine and a transmission which can be switched into various operating states by means of a selector means actuated by a driver, - the operating modes can be distinguished according to the ratio of drive power generated by electric motorto drive power generated by internal combustion engine, and - the drive is controlled by a drive control means dependent on - a drive requirement specified by a driver by means of - an accelerator element and - the selector means and - various driving condition and/orvehicle parameters, wherein - the drive is switched from one operating mode into another operating mode by actuating the selector means, characterised in that the drive - is in a first operating mode if the selector means is in a first stable state, and - in a second operating mode if the selector means is in a second stable state, wherein - the selector means, upon switching of the drive from the second operating mode into the first operating mode initiated by the drive control means, is switched from the second stable state into the first stable state without assistance from the driver. - the drive has an internal combustion engine, at leastone propulsion-generating electric machine and a transmission which can be switched into various operating states by means of a selector means actuated by a driver, - the operating modes can be distinguished according to the ratio of drive power generated by electric motorto drive power generated by internal combustion engine, and - the drive is controlled by a drive control means dependent on - a drive requirement specified by a driver by means of - an accelerator element and - the selector means and - various driving condition and/orvehicle parameters, wherein - the drive is switched from one operating mode into another operating mode by actuating the selector means, - the drive is controlled by a drive control means dependent on - a drive requirement specified by a driver by means of - an accelerator element and - the selector means and - a drive requirement specified by a driver by means of - an accelerator element and - the selector means and - an accelerator element and - the selector means and - various driving condition and/orvehicle parameters, wherein - the drive is switched from one operating mode into another operating mode by actuating the selector means, - is in a first operating mode if the selector means is in a first stable state, and - in a second operating mode if the selector means is in a second stable state, wherein - the selector means, upon switching of the drive from the second operating mode into the first operating mode initiated by the drive control means, is switched from the second stable state into the first stable state without assistance from the driver.