mhurhangee/patent-ind-claim-en huggingface dataset:
A moving picture decoding method for decoding a coded moving picture which includes pictures, comprising: detecting (S110), from the coded moving picture, a block partition into rows and columns of macroblocks each of which is partitioned into blocks, wherein each block includes pixels and has a size of 4×4 pixels or 8x8 pixels, and each macroblock has a size of 16×16 pixels; determining (S120) a combination of a scanning scheme for the macroblocks and a scanning scheme for the blocks of a macroblock from among a plurality of combinations of a scanning scheme for the macroblocks and a scanning scheme for the blocks of a macroblock according to a scanning scheme identifier included in the coded moving picture, wherein the scanning scheme for the macroblocks defines a scanning order of the macroblocks and the scanning scheme for the blocks of a macroblock defines a scanning order for the blocks of a macroblock; obtaining (S130), from the coded moving picture, a coded block which includes pixels and a set of intra-prediction modes for the macroblocks; and decoding (S140), in accordance with the set of intra-prediction modes, the blocks of a macroblock in an order in which the blocks are scanned; characterized in that the plurality of combinations includes a combination that scans a row of blocks of a macroblock being horizontally adjacent to a current macroblock and following the current macroblock with respect to the determined scanning scheme for the macroblocks before scanning a next row blocks of the current macroblock. detecting (S110), from the coded moving picture, a block partition into rows and columns of macroblocks each of which is partitioned into blocks, wherein each block includes pixels and has a size of 4×4 pixels or 8x8 pixels, and each macroblock has a size of 16×16 pixels; determining (S120) a combination of a scanning scheme for the macroblocks and a scanning scheme for the blocks of a macroblock from among a plurality of combinations of a scanning scheme for the macroblocks and a scanning scheme for the blocks of a macroblock according to a scanning scheme identifier included in the coded moving picture, wherein the scanning scheme for the macroblocks defines a scanning order of the macroblocks and the scanning scheme for the blocks of a macroblock defines a scanning order for the blocks of a macroblock; obtaining (S130), from the coded moving picture, a coded block which includes pixels and a set of intra-prediction modes for the macroblocks; and decoding (S140), in accordance with the set of intra-prediction modes, the blocks of a macroblock in an order in which the blocks are scanned; characterized in that the plurality of combinations includes a combination that scans a row of blocks of a macroblock being horizontally adjacent to a current macroblock and following the current macroblock with respect to the determined scanning scheme for the macroblocks before scanning a next row blocks of the current macroblock.
A method for determining transmission quality of a node, comprising: acquiring (S11) data transmission information on a preset number of data slices transmitted from a first peer node to a second peer node and before a first slice in the data slices, the data transmission information comprising total data amount of each of the data slices, valid time of each of the data slices, and actual transmission data amount of each of the data slices within the valid time; determining (S12), a transmission success weight value of each of the preset number of data slices before the first slice, according to the total data amount of each of the data slices and the actual transmission data amount of each of the data slices; calculating, according to the transmission success weight values of each of the data slices, a data transmission success rate factor corresponding to the first slice; determining (S13), according to the data transmission information, a transmission speed factor corresponding to the first slice; and determining (S14), according to the data transmission success rate factor and the transmission speed factor, transmission quality of data transmitted from the first peer node to the second peer node. acquiring (S11) data transmission information on a preset number of data slices transmitted from a first peer node to a second peer node and before a first slice in the data slices, the data transmission information comprising total data amount of each of the data slices, valid time of each of the data slices, and actual transmission data amount of each of the data slices within the valid time; determining (S12), a transmission success weight value of each of the preset number of data slices before the first slice, according to the total data amount of each of the data slices and the actual transmission data amount of each of the data slices; calculating, according to the transmission success weight values of each of the data slices, a data transmission success rate factor corresponding to the first slice; determining (S13), according to the data transmission information, a transmission speed factor corresponding to the first slice; and determining (S14), according to the data transmission success rate factor and the transmission speed factor, transmission quality of data transmitted from the first peer node to the second peer node.
A computer-implemented method for scheduling operations, the method comprising: receiving a plurality of requests to perform operations (404A1, 404A2) from one of a plurality of tenants of a distributed computing system ; adding the plurality of operations to a tenant-specific queue as a plurality of scheduled operations (406A1, 406A2); adding a tenant scheduling work item (608A1) to an execution queue , wherein the tenant scheduling work item causes one of a plurality of compute nodes to: create a batch (710A1) of operations by selecting up to a defined number of scheduled operations from the plurality of scheduled operations, add the batch of operations to the execution queue, and re-add the tenant scheduling work item to the execution queue; and wherein at least one of the plurality of compute nodes executes the batch of operations. receiving a plurality of requests to perform operations (404A1, 404A2) from one of a plurality of tenants of a distributed computing system ; adding the plurality of operations to a tenant-specific queue as a plurality of scheduled operations (406A1, 406A2); adding a tenant scheduling work item (608A1) to an execution queue , wherein the tenant scheduling work item causes one of a plurality of compute nodes to: create a batch (710A1) of operations by selecting up to a defined number of scheduled operations from the plurality of scheduled operations, add the batch of operations to the execution queue, and re-add the tenant scheduling work item to the execution queue; and create a batch (710A1) of operations by selecting up to a defined number of scheduled operations from the plurality of scheduled operations, add the batch of operations to the execution queue, and re-add the tenant scheduling work item to the execution queue; and wherein at least one of the plurality of compute nodes executes the batch of operations.
A flowable material source switch-over device (20; 20.1) comprising: a valve chamber (22; 22.1) having first and second inlets (24, 24.1; 26, 26.1) configured to be in communication with first and second sources (31; 33) of flowable material and having an outlet (28; 28.1); a valve member (60; 60.1) disposed within the valve chamber and being moveable from a first position in which communication between the first inlet and the outlet is promoted and communication between the second inlet and the outlet is inhibited, to a second position in communication between the second inlet and the outlet is promoted and communication between the first inlet and the outlet is inhibited; and characterized in that the device further comprises a catch apparatus (88; 88.1) shaped to inhibit displacement of the valve member when the catch apparatus is in fluid communication with one of the sources of flowable material. a valve chamber (22; 22.1) having first and second inlets (24, 24.1; 26, 26.1) configured to be in communication with first and second sources (31; 33) of flowable material and having an outlet (28; 28.1); a valve member (60; 60.1) disposed within the valve chamber and being moveable from a first position in which communication between the first inlet and the outlet is promoted and communication between the second inlet and the outlet is inhibited, to a second position in communication between the second inlet and the outlet is promoted and communication between the first inlet and the outlet is inhibited; and characterized in that the device further comprises a catch apparatus (88; 88.1) shaped to inhibit displacement of the valve member when the catch apparatus is in fluid communication with one of the sources of flowable material.
A material comprising a substrate coated with a functional coating and with a permanent organic protective layer deposited on at least a part of the functional coating, characterized in that the organic protective layer is obtained by crosslinking a polymerizable composition comprising: a) (meth)acrylate compounds not comprising a polyorganosiloxane group, b) at least one compound comprising a polyorganosiloxane group and at least two (meth)acrylate functional groups and c) optionally a polymerization initiator. a) (meth)acrylate compounds not comprising a polyorganosiloxane group, b) at least one compound comprising a polyorganosiloxane group and at least two (meth)acrylate functional groups and c) optionally a polymerization initiator.
A compound having Formula I : or a pharmaceutically acceptable salt or solvate thereof, wherein: Z 1 , Z 2 , and Z 3 are each independently selected from the group consisting of N and CR 11 ; with the proviso that at least one of Z 1 , Z 2 , and Z 3 is N; G is selected from the group consisting of cyano, dihydroxyalkyl and -(CHR 1a ) m -C(=O)E; m is 0, 1, or 2; each R 1a is hydrogen; E is selected from the group consisting of hydroxy, alkoxy, and -NR 1 R 2 ; R 1 is selected from the group consisting of hydrogen, and alkyl; R 2 is selected from the group consisting of hydrogen and alkyl; R 3 is selected from the group consisting of hydrogen, and alkyl; R 4 is selected from the group consisting of alkyl, halogen, cyano, and haloalkyl; R 5 is selected from the group consisting of hydrogen, halo, alkyl, hydroxyalkyl, alkenyl, and -X-R 7 ; R 6 is hydrogen; X is -NR 8a -; R 7 is selected from the group consisting of hydrogen, alkyl, R 8a is hydrogen; R 9 is selected from the group consisting of hydrogen, and alkyl; R 10a and R 10b are independently selected from the group consisting of hydrogen and alkyl; and R 11 is hydrogen. Z 1 , Z 2 , and Z 3 are each independently selected from the group consisting of N and CR 11 ; with the proviso that at least one of Z 1 , Z 2 , and Z 3 is N; G is selected from the group consisting of cyano, dihydroxyalkyl and -(CHR 1a ) m -C(=O)E; m is 0, 1, or 2; each R 1a is hydrogen; E is selected from the group consisting of hydroxy, alkoxy, and -NR 1 R 2 ; R 1 is selected from the group consisting of hydrogen, and alkyl; R 2 is selected from the group consisting of hydrogen and alkyl; R 3 is selected from the group consisting of hydrogen, and alkyl; R 4 is selected from the group consisting of alkyl, halogen, cyano, and haloalkyl; R 5 is selected from the group consisting of hydrogen, halo, alkyl, hydroxyalkyl, alkenyl, and -X-R 7 ; R 6 is hydrogen; X is -NR 8a -; R 7 is selected from the group consisting of hydrogen, alkyl, R 8a is hydrogen; R 9 is selected from the group consisting of hydrogen, and alkyl; R 10a and R 10b are independently selected from the group consisting of hydrogen and alkyl; and R 11 is hydrogen.
Device for perforating a label strip , in the form of a folded film tube, with two opposing draw rollers , , with which the label strip can be conveyed in the transport direction T, with a cutting roller , on the circumferential surface of which a plurality of perforating knives spaced apart in the circumferential direction are arranged, and with a counter-cutting roller located opposite the cutting roller , wherein the label strip can be perforated between the cutting roller and the counter-cutting roller , characterized in that the counter-cutting roller has a surface which serves as a counter-cutting edge for the perforating knives over its entire circumference, and that the cutting roller and the counter-cutting roller have different drives such that the counter-cutting roller can run at a constant speed. with a cutting roller , on the circumferential surface of which a plurality of perforating knives spaced apart in the circumferential direction are arranged, and with a counter-cutting roller located opposite the cutting roller , wherein the label strip can be perforated between the cutting roller and the counter-cutting roller , characterized in that the counter-cutting roller has a surface which serves as a counter-cutting edge for the perforating knives over its entire circumference, and that the cutting roller and the counter-cutting roller have different drives such that the counter-cutting roller can run at a constant speed.
A securing device for securing a decoupling device relative to a hole edge of a hole socket of a shielding part ; the decoupling device has at least one bridging element , which is for the vibration-decoupling connection of a sleeve to the shielding part and which at its radial outer edge has connecting means for the secured connection of the bridging element to the hole edge of the shielding part ; the connecting means have at least four tabs (10a, 10b; 11a, 11b; 10, 11) that protrude radially outward from the bridging element ; and a subset of at least two tabs of the bridging element is provided for contacting a first outside of the shielding part , characterized in that a remainder of at least two tabs is provided for contacting an opposite second outside of the shielding part and by means of the tabs of the subset and the tabs of the remainder, it is possible to immobilize the hole edge relative to the decoupling device by means of a force fit.
A method of repairing a piston seal assembly for a gas turbine engine, comprising: removing worn material from a piston seal groove to generate a worked seal groove ; applying a groove buildup member to the worked seal groove; and disposing a seal member proximate the groove buildup member, wherein the groove buildup member is a guard type member, characterised in that the guard type member is configured to interface with a reduced wall of the piston seal assembly and comprises an inner guard and an outer guard each joined at a distal end by an orthogonal web , wherein the inner guard is relatively longer than the outer guard, wherein the inner guard is disposed within the worked seal groove. removing worn material from a piston seal groove to generate a worked seal groove ; applying a groove buildup member to the worked seal groove; and disposing a seal member proximate the groove buildup member, wherein the groove buildup member is a guard type member, characterised in that the guard type member is configured to interface with a reduced wall of the piston seal assembly and comprises an inner guard and an outer guard each joined at a distal end by an orthogonal web , wherein the inner guard is relatively longer than the outer guard, wherein the inner guard is disposed within the worked seal groove.
An electrophysiological catheter comprising: an elongated body ; a distal electrode assembly comprising: a plurality of spines , each spine having a free distal end and a proximal end extending from a distal end of the elongated body; and a flexible panel wrapped around and affixed to an outer surface of at least one spine, the flexible panel having a substrate conforming to the outer surface of the at least one spine, at least one pair of microelectrodes , a trace for each microelectrode , and a soldering pad for each microelectrode, wherein each trace electrically couples a respective microelectrode and a respective soldering pad, wherein said substrate comprises a first layer , a second layer and a third layer , and wherein said at least one pair of microelectrodes is disposed on the first layer, and wherein electrical traces are disposed on the second layer and the third layer, and wherein through holes are formed in the first layer and second layer to provide connection access between the microelectrodes and the electrical traces. an elongated body ; a distal electrode assembly comprising: a plurality of spines , each spine having a free distal end and a proximal end extending from a distal end of the elongated body; and a flexible panel wrapped around and affixed to an outer surface of at least one spine, the flexible panel having a substrate conforming to the outer surface of the at least one spine, at least one pair of microelectrodes , a trace for each microelectrode , and a soldering pad for each microelectrode, wherein each trace electrically couples a respective microelectrode and a respective soldering pad, wherein said substrate comprises a first layer , a second layer and a third layer , and wherein said at least one pair of microelectrodes is disposed on the first layer, and wherein electrical traces are disposed on the second layer and the third layer, and wherein through holes are formed in the first layer and second layer to provide connection access between the microelectrodes and the electrical traces. a plurality of spines , each spine having a free distal end and a proximal end extending from a distal end of the elongated body; and a flexible panel wrapped around and affixed to an outer surface of at least one spine, the flexible panel having a substrate conforming to the outer surface of the at least one spine, at least one pair of microelectrodes , a trace for each microelectrode , and a soldering pad for each microelectrode, wherein each trace electrically couples a respective microelectrode and a respective soldering pad, wherein said substrate comprises a first layer , a second layer and a third layer , and wherein said at least one pair of microelectrodes is disposed on the first layer, and wherein electrical traces are disposed on the second layer and the third layer, and wherein through holes are formed in the first layer and second layer to provide connection access between the microelectrodes and the electrical traces.
A method of cloud gaming, comprising; generating a video frame when executing a video game at a server , wherein the video frame is stored in a frame buffer ; determining a maximum pixel clock for a chip-set including the frame buffer; determining a frame rate setting based on the maximum pixel clock and an image size of a target display of a client; determining a speed setting value for the chip-set based on the determined frame rate setting; scanning-out the video frame to an encoder at the speed setting value. generating a video frame when executing a video game at a server , wherein the video frame is stored in a frame buffer ; determining a maximum pixel clock for a chip-set including the frame buffer; determining a frame rate setting based on the maximum pixel clock and an image size of a target display of a client; determining a speed setting value for the chip-set based on the determined frame rate setting; scanning-out the video frame to an encoder at the speed setting value.
An apparatus, comprising: a permanent magnet first block having six faces (face 1, face 2, face 3, face 4, face 5 and face 6), wherein face 1 is parallel with face 2 and wherein each of face 3, face 4, face 5 and face 6 are perpendicular with face 1 and face 2, wherein said first block has a B-field magnetization polarization direction that is perpendicular to face 1, wherein said first block has Amperian currents characterized as flowing on the surfaces of, and making a complete loop around said block on face 3, face 4, face 5 and face 6; characterized in that the apparatus further comprises a ferromagnetic first shield in direct contact with one of face 3, face 4, face 5 or face 6. a permanent magnet first block having six faces (face 1, face 2, face 3, face 4, face 5 and face 6), wherein face 1 is parallel with face 2 and wherein each of face 3, face 4, face 5 and face 6 are perpendicular with face 1 and face 2, wherein said first block has a B-field magnetization polarization direction that is perpendicular to face 1, wherein said first block has Amperian currents characterized as flowing on the surfaces of, and making a complete loop around said block on face 3, face 4, face 5 and face 6; characterized in that the apparatus further comprises a ferromagnetic first shield in direct contact with one of face 3, face 4, face 5 or face 6.
A unit for weighing containers comprising: - a line for transporting containers extending along a first movement path (P) which passes through a region (R1) for weighing and provided with a plurality of seats for supporting the containers arranged in succession along the first path (P); - a plurality of vertical movement elements , each configured to make contact with and move vertically to the weighing region (R1) a container , thereby placing it in a raised position (PS1) disengaged from a corresponding supporting seat ; - a plurality of retaining elements , each designed for holding a container in the raised position (PS1), in such a way that the container is held by a respective retaining element and free from lower supports; - a plurality of weighing devices , each associated with, and carrying, one of the retaining elements for weighing a container held by the retaining element , the weighing devices being horizontally movable at least in the weighing region (R1). - a line for transporting containers extending along a first movement path (P) which passes through a region (R1) for weighing and provided with a plurality of seats for supporting the containers arranged in succession along the first path (P); - a plurality of vertical movement elements , each configured to make contact with and move vertically to the weighing region (R1) a container , thereby placing it in a raised position (PS1) disengaged from a corresponding supporting seat ; - a plurality of retaining elements , each designed for holding a container in the raised position (PS1), in such a way that the container is held by a respective retaining element and free from lower supports; - a plurality of weighing devices , each associated with, and carrying, one of the retaining elements for weighing a container held by the retaining element , the weighing devices being horizontally movable at least in the weighing region (R1).