mhurhangee/patent-ind-claim-en huggingface dataset:
A method of processing video data according to the High Efficiency Video Coding (HEVC) standard, the method comprising: selecting one set of Hypothetical Reference Decoder (HRD) parameters from among one or more sets of Hypothetical Reference Decoder (HRD) parameters in a video parameter set (VPS) in a bitstream and a set of HRD parameters in a sequence parameter set (SPS) in the bitstream as a set of HRD parameters applicable to a particular operation point of a bitstream comprising encoded video data , wherein selecting the set of HRD parameters applicable to the particular operation point comprises determining that the set of HRD parameters in the SPS is applicable to the particular operation point when a layer identifier set of the particular operation point contains a set of all layer identifiers present in a bitstream subset that is to be decoded or that is under test, and, otherwise, determining that one of the one or more sets of HRD parameters in the VPS is applicable to the particular operation point; and performing, based at least in part on the selected set of HRD parameters applicable to the particular operation point, an HRD operation on the bitstream subset. selecting one set of Hypothetical Reference Decoder (HRD) parameters from among one or more sets of Hypothetical Reference Decoder (HRD) parameters in a video parameter set (VPS) in a bitstream and a set of HRD parameters in a sequence parameter set (SPS) in the bitstream as a set of HRD parameters applicable to a particular operation point of a bitstream comprising encoded video data , wherein selecting the set of HRD parameters applicable to the particular operation point comprises determining that the set of HRD parameters in the SPS is applicable to the particular operation point when a layer identifier set of the particular operation point contains a set of all layer identifiers present in a bitstream subset that is to be decoded or that is under test, and, otherwise, determining that one of the one or more sets of HRD parameters in the VPS is applicable to the particular operation point; and performing, based at least in part on the selected set of HRD parameters applicable to the particular operation point, an HRD operation on the bitstream subset.
A system to convert heat into electricity, characterised in that the system comprises: a metamaterial having a surface that comprises a plurality of holes with dimensions and spacing to cause the surface to generate an enhanced electric field at a desired frequency; and a rectenna placed over each of the holes, at a distance to interact with the generated electric field, and to produce electricity from the generated electric field. a metamaterial having a surface that comprises a plurality of holes with dimensions and spacing to cause the surface to generate an enhanced electric field at a desired frequency; and a rectenna placed over each of the holes, at a distance to interact with the generated electric field, and to produce electricity from the generated electric field.
The flange yoke (A) for attaching the propshaft (B), which provides the rotational motion and power transmission between differential and transmission in motor vehicles, to the vehicle, wherein the flange yoke (A) comprises an assembly base , connection surfaces and raised zones , wherein the flange yoke (A) is attached via the connection surfaces , and characterized by • the raised zone is located on the assembly base , • surface of the raised zone is higher than surface of the assembly base , • the raised zone is formed by decreasing thickness of the assembly base , • removal of material from the connection surface is formed by cutting tools (C) on the assembly base , wherein the raised zone allows balanced material removal from the connection surface as connection surface is kept high. wherein the flange yoke (A) comprises an assembly base , connection surfaces and raised zones , wherein the flange yoke (A) is attached via the connection surfaces , and characterized by • the raised zone is located on the assembly base , • surface of the raised zone is higher than surface of the assembly base , • the raised zone is formed by decreasing thickness of the assembly base , • removal of material from the connection surface is formed by cutting tools (C) on the assembly base , wherein • the raised zone is located on the assembly base , • surface of the raised zone is higher than surface of the assembly base , • the raised zone is formed by decreasing thickness of the assembly base , • removal of material from the connection surface is formed by cutting tools (C) on the assembly base , wherein the raised zone allows balanced material removal from the connection surface as connection surface is kept high.
Aircraft navigation light (8; 9) with integrated redundancy having at least a selected minimum light output, comprising: a first light source (81; 91); a second light source (82; 92); and a common optical element (84; 94), which is configured for shaping an output light intensity distribution (89; 99) of the aircraft navigation light (8; 9); wherein light emitted by each of the first light source (81; 91) and the second light source (82; 92) is modified by the common optical element (84; 94); wherein each of the first and second light sources (82; 92) has an individual light output capacity, characterized in that the individual light output capacity of each of the first and second light sources (81, 82; 91, 92) alone is sufficient for providing the selected minimum light output (89; 99) of the aircraft navigation light , wherein the common optical element (84; 94) has a defined nominal light source location , which is defined as a single light source location the common optical element (84; 94) is designed for; and each of the first and second light sources (81, 82; 91, 92) is positioned outside of the nominal light source location . a first light source (81; 91); a second light source (82; 92); and a common optical element (84; 94), which is configured for shaping an output light intensity distribution (89; 99) of the aircraft navigation light (8; 9); wherein light emitted by each of the first light source (81; 91) and the second light source (82; 92) is modified by the common optical element (84; 94); wherein each of the first and second light sources (82; 92) has an individual light output capacity, characterized in that the individual light output capacity of each of the first and second light sources (81, 82; 91, 92) alone is sufficient for providing the selected minimum light output (89; 99) of the aircraft navigation light , wherein the common optical element (84; 94) has a defined nominal light source location , which is defined as a single light source location the common optical element (84; 94) is designed for; and each of the first and second light sources (81, 82; 91, 92) is positioned outside of the nominal light source location .
A process for treating wood strands with steam to reduce the emission of volatile organic compounds from such wood strands, wherein the wood strands being treated with steam for a period of 5 to 20 minutes after their production without drying, the steam being passed over the wood strands at a temperature of between 80°C and 120°C and a pressure of between 0.5 bar and 2 bar, and wherein the steam treated wood strands are used to produce OSB boards with reduced emission of volatile organic compounds. wherein the wood strands being treated with steam for a period of 5 to 20 minutes after their production without drying, the steam being passed over the wood strands at a temperature of between 80°C and 120°C and a pressure of between 0.5 bar and 2 bar, and wherein the steam treated wood strands are used to produce OSB boards with reduced emission of volatile organic compounds.
An information processing method performed by an information processing device connected to a control system including at least one network , the information processing method comprising the steps of (a) collecting (S102) an event log comprising event log events corresponding to events generated in the control system ; (b) extracting (S104) a plurality of first event log events from the collected event log, wherein the extracted first event log events correspond to generated events arising from an identical factor, and wherein a difference of generation times of the extracted first event log events falls within a predetermined time; (c) specifying (S106) at least one second event log event from the plurality of first event log events based on a network configuration of the control system , wherein the at least one second event log event corresponds to an event log generated in an upper network of the at least one network , wherein the network configuration defines a connection relationship of upper networks and sub-networks and, with regard to a respective device connected to the at least one network , comprises identification information about the upper network, an address of the respective device, identification information about a sub-network , and a device type indicating a type of the respective device; and (d) outputting (S108) the at least one second event log event and the plurality of first event log events while distinguishing the first and the second event log events from each other. (a) collecting (S102) an event log comprising event log events corresponding to events generated in the control system ; (b) extracting (S104) a plurality of first event log events from the collected event log, wherein the extracted first event log events correspond to generated events arising from an identical factor, and wherein a difference of generation times of the extracted first event log events falls within a predetermined time; (c) specifying (S106) at least one second event log event from the plurality of first event log events based on a network configuration of the control system , wherein the at least one second event log event corresponds to an event log generated in an upper network of the at least one network , wherein the network configuration defines a connection relationship of upper networks and sub-networks and, with regard to a respective device connected to the at least one network , comprises identification information about the upper network, an address of the respective device, identification information about a sub-network , and a device type indicating a type of the respective device; and (d) outputting (S108) the at least one second event log event and the plurality of first event log events while distinguishing the first and the second event log events from each other.
An optical device , comprising: two substrates in an opposite arrangement, each of which has a surrounding edge and a side surface at the surrounding edge; a wavelength conversion layer disposed between the substrates , wherein the wavelength conversion layer is encapsulated by a moisture blocking layer in association with one of the substrates ; a light emitting unit disposed corresponding to the wavelength conversion layer and between the corresponding wavelength conversion layer and one of the substrates ; a sealing element sealing the wavelength conversion layer and the light emitting unit between the substrates , along the edges and in contact with the side surfaces of the substrates ; and a bank structure disposed on the one of the substrates , characterised by the bank structure having an outer taper portion covered by the moisture blocking layer and an inner taper portion not covered by the moisture blocking layer , wherein the inner taper portion is closer to the wavelength conversion layer than the outer taper portion, and wherein an angle (θ2) of the outer taper portion is less than an angle of the inner taper portion. two substrates in an opposite arrangement, each of which has a surrounding edge and a side surface at the surrounding edge; a wavelength conversion layer disposed between the substrates , wherein the wavelength conversion layer is encapsulated by a moisture blocking layer in association with one of the substrates ; a light emitting unit disposed corresponding to the wavelength conversion layer and between the corresponding wavelength conversion layer and one of the substrates ; a sealing element sealing the wavelength conversion layer and the light emitting unit between the substrates , along the edges and in contact with the side surfaces of the substrates ; and a bank structure disposed on the one of the substrates , characterised by the bank structure having an outer taper portion covered by the moisture blocking layer and an inner taper portion not covered by the moisture blocking layer , wherein the inner taper portion is closer to the wavelength conversion layer than the outer taper portion, and wherein an angle (θ2) of the outer taper portion is less than an angle of the inner taper portion.
A propeller blade assembly comprising: a propeller blade , said propeller blade having a blade root for attaching the propeller blade to a hub , said blade root having a radially outer surface ; a collar mounted to the blade root , the collar comprising at least two collar segments assembled around the radially outer surface of the blade root ; each collar segment having a radially inner surface and an opposed radially outward surface ; characterised in that : each collar segment has first and second circumferential end lugs , said lugs adapted to receive fasteners for coupling the collar segments together to form the collar ; wherein at least one of said collar segments is formed from a flexible material having a lower tensile modulus than that of the blade root and a geometry permitting the collar segment to flex wherein said radially inner surface of said collar segment engages the radially outer surface of the blade root only over a limited circumferential extent, to permit the collar segment to flex. a propeller blade , said propeller blade having a blade root for attaching the propeller blade to a hub , said blade root having a radially outer surface ; a collar mounted to the blade root , the collar comprising at least two collar segments assembled around the radially outer surface of the blade root ; each collar segment having a radially inner surface and an opposed radially outward surface ; characterised in that : each collar segment has first and second circumferential end lugs , said lugs adapted to receive fasteners for coupling the collar segments together to form the collar ; wherein at least one of said collar segments is formed from a flexible material having a lower tensile modulus than that of the blade root and a geometry permitting the collar segment to flex wherein said radially inner surface of said collar segment engages the radially outer surface of the blade root only over a limited circumferential extent, to permit the collar segment to flex.
Engine mount with an elastomer mount body which is received in a rigid mount housing provided at least on one side with an opening, wherein at least one support member engages through the at least one opening, which is supported on the mount body against the mount housing, wherein relative movements of the mount body , caused by impact of the support member , with respect to the mount housing along extension directions (X, Y, Z) of the mount body , which are orthogonal to one another, on both sides of a rest position of the respective relative movement are delimitable by elastomer stops of the mount body arranged between the mount housing and the support member , and wherein a common bearing element is arranged between the support member and the elastomer stops of the mount body , which also distances the support member from all elastomer stops , characterised in that the extension directions (X, Y, Z), which are orthogonal to one another, are three extension directions (X, Y, Z) orthogonal to one another and in that the bearing element is provided with one or a plurality of projections which engages or engage into recesses located on the support member and/or vice versa.
An LED lamp for large environments, comprising an LED-holder base , on the lower surface of which there is present at least one seat for at least one LED light source , said base being integrally connected, on the upper side, to a heat sink and, on the lower side, to a focusing lens , characterized in that the LED lamp comprises an upper retaining ring and a lower retaining ring , accommodated in, respectively, an upper seat and a lower seat cut, respectively, on the upper surface and on the lower surface of said base , so as to be interposed between said base and said heat sink and said focusing lens respectively and wherein the upper surface of said base includes a seat that accommodates an at least partially deformable core hitch internally to which electric cables pass through to supply power to said at least one LED light source and said lower seat for the lower retaining ring circumscribes and perimetrically delimits the area occupied by said at least one LED light source and said seat for the upper retaining ring circumscribes and perimetrically delimits the seat of the core hitch ; and a number of projecting fins protrude from an upper surface of said heat sink .
Tyre with a radial carcass reinforcement for a vehicle of the heavy duty type comprising a crown reinforcement comprising three working crown layers of reinforcing elements, itself capped radially by a tread, the said tread being connected to two beads by two sidewalls, in the reinforcing elements of the two radially outermost working layers being crossed from one layer to the other, making with the circumferential direction angles of between 20 and 45°, the widths of the two radially outermost working layers are greater than 0.7 times the width of the tread, the reinforcing elements of the two radially innermost working layers are oriented in the same direction with respect to the circumferential direction, the difference between the angles of the reinforcing elements of the radially innermost working layers is greater than 10°, characterized in that the angles, formed with the circumferential direction, of the reinforcing elements of the radially innermost working layer are between 15 and 20° and in that the width of the radially innermost working layer is strictly less than 0.7 times the width of the tread.
Polymers of formulas (I), (II), (III), (IV), (V), (VI), (VII), (VIII), (IX) and (X). Where; n = less than or equal to 1.000.000 and R, R 1 , R 2 , R 3 , R 4 and R 5 are independently or equally atom chain(s)/group(s) of about 1 atom to 60 atoms. They may equally or independently have one or more of a group comprising alkyl, aryl, alkenyl, alkynyl, amine, ester, carbonate ester, carbonyl, sulphide, organosilane and thiolate.
A support frame , comprising: a square base ; and four vertical beams extending upwards from four corners of the square base , the four vertical beams comprising a first vertical beam , a second vertical beam , a third vertical beam , and a fourth vertical beam , wherein two corners located at a side of the square base are provided with the first vertical beam and the second vertical beam respectively, and the first vertical beam and/or the second vertical beam are formed by detachably connecting at least two sub-units; a top connecting frame connected to an upper end of each of the vertical beams , wherein at least part of the top connecting frame is integrally formed with one sub-unit of the first vertical beam and/or one sub-unit of the second vertical beam from the same plate using a bending forming process, wherein two corners located at another side of the square base are provided with the third vertical beam and the fourth vertical beam respectively, characterized in that an upper end of at least one of the third vertical beam and the fourth vertical beam defines a notch recessed downwards, the top connecting frame has an insertion sheet bent outwards, and the insertion sheet is inserted in the notch . a square base ; and four vertical beams extending upwards from four corners of the square base , the four vertical beams comprising a first vertical beam , a second vertical beam , a third vertical beam , and a fourth vertical beam , wherein two corners located at a side of the square base are provided with the first vertical beam and the second vertical beam respectively, and the first vertical beam and/or the second vertical beam are formed by detachably connecting at least two sub-units; a top connecting frame connected to an upper end of each of the vertical beams , wherein at least part of the top connecting frame is integrally formed with one sub-unit of the first vertical beam and/or one sub-unit of the second vertical beam from the same plate using a bending forming process, wherein two corners located at another side of the square base are provided with the third vertical beam and the fourth vertical beam respectively, characterized in that an upper end of at least one of the third vertical beam and the fourth vertical beam defines a notch recessed downwards, the top connecting frame has an insertion sheet bent outwards, and the insertion sheet is inserted in the notch .
Disruptor device consisting in a frame (F), said frame (F) having a Water Jet system to disaggregate one portion of a tread or a sidewall of a tire, an hydraulic power unit , a control cabinet with PLC and control panel a lower assembly , an upper assembly , an hopper for collection of fragmented materials, a group for the forced ventilation system - the upper assembly consisting on a frame divided in two identical first half-frame and second half-frame (20-b) ; - the upper assembly being supported to the frame (F) by two arms (la,lb); - the upper assembly presenting a series of rollers and a movable plate positioned on each half-frame between two of these rollers and supporting an upper nozzles head supplied by high pressure water through a piping system; - the lower assembly presenting a set of rollers mounted on a fixed frame ; - in the space between two of rollers , a slide for nozzle-head that supports one or more, left and right, lower nozzles supplied by high pressure water through a piping system being scrolling, the disruptor device being further characterized in that it comprises air water separation means and a vibrating screen. - the upper assembly consisting on a frame divided in two identical first half-frame and second half-frame (20-b) ; - the upper assembly being supported to the frame (F) by two arms (la,lb); - the upper assembly presenting a series of rollers and a movable plate positioned on each half-frame between two of these rollers and supporting an upper nozzles head supplied by high pressure water through a piping system; - the lower assembly presenting a set of rollers mounted on a fixed frame ; - in the space between two of rollers , a slide for nozzle-head that supports one or more, left and right, lower nozzles supplied by high pressure water through a piping system being scrolling, the disruptor device being further characterized in that it comprises air water separation means and a vibrating screen.