mhurhangee/ep-ind-claims huggingface dataset:
Method for time synchronisation in an ad hoc mobile network with the following method steps: - transmission of a message to signal a presence by each node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) of the ad hoc mobile network in a particular time frame in each case, - acknowledgement of the message received to signal a presence by each node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) within transmission range of the transmitting node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) with an acknowledgement message in each case, - specification of that node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) of two nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) within transmission range of one other with whose local time the respective other node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) synchronises its local time, with reference to information of an acknowledgement message which one of the two nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) receives, and - synchronisation of the local time of the nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) with the local time of the respective specified node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8), characterised in that that node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) of the two nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) within transmission range of one another whose local time has the highest time accuracy or which is linked into another ad hoc network with a node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) whose local time has the highest time accuracy is specified. - transmission of a message to signal a presence by each node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) of the ad hoc mobile network in a particular time frame in each case, - acknowledgement of the message received to signal a presence by each node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) within transmission range of the transmitting node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) with an acknowledgement message in each case, - specification of that node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) of two nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) within transmission range of one other with whose local time the respective other node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) synchronises its local time, with reference to information of an acknowledgement message which one of the two nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) receives, and - synchronisation of the local time of the nodes (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8) with the local time of the respective specified node (3 1, 3 2, 3 3, 3 4, 3 5, 3 6, 3 7, 3 8), characterised in that
A wire harness comprising: a conduction path; and a flexible sheathing member through which the conduction path passes and which has recessed sections (32, 34) and protruded sections (31, 33), the recessed sections (32, 34) and the protruded sections (31, 33) extending in a circumferential direction on the surface of the sheathing member and being formed alternately along a longitudinal direction of the sheathing member, wherein a curing-type adhesive or resin containing the adhesive is supplied to only the recessed sections (32, 34) of a bent part which is formed when the wire harness is bent, and cured while the bent part is maintained in a bent shape, the wire harness characterized in that a tape is wrapped around the bent part in which the curing-type adhesive or the resin containing the adhesive is supplied and cured. a conduction path; and a flexible sheathing member through which the conduction path passes and which has recessed sections (32, 34) and protruded sections (31, 33), the recessed sections (32, 34) and the protruded sections (31, 33) extending in a circumferential direction on the surface of the sheathing member and being formed alternately along a longitudinal direction of the sheathing member, wherein a curing-type adhesive or resin containing the adhesive is supplied to only the recessed sections (32, 34) of a bent part which is formed when the wire harness is bent, and cured while the bent part is maintained in a bent shape, the wire harness characterized in that a tape is wrapped around the bent part in which the curing-type adhesive or the resin containing the adhesive is supplied and cured.
A work vehicle comprising: a vehicle body to which a work instrument is connected at a back; and a roll-over protection structure (ROPS) frame erected at a back portion of a driver seat area in the vehicle body, wherein the work vehicle further comprises: a positioning unit that detects a position of the vehicle body based on a signal sent from a positioning satellite, and a support unit that is fixed to an upper portion of the ROPS frame and supports the positioning unit from below, and the positioning unit has a harness connection portion that is connected to a harness for sending information to outside, the harness connection portion is located at a back portion of the positioning unit, and the support unit is located protruding backwardly from the harness connection portion of the positioning unit. a vehicle body to which a work instrument is connected at a back; and a roll-over protection structure (ROPS) frame erected at a back portion of a driver seat area in the vehicle body, wherein the work vehicle further comprises: a positioning unit that detects a position of the vehicle body based on a signal sent from a positioning satellite, and a support unit that is fixed to an upper portion of the ROPS frame and supports the positioning unit from below, and a positioning unit that detects a position of the vehicle body based on a signal sent from a positioning satellite, and a support unit that is fixed to an upper portion of the ROPS frame and supports the positioning unit from below, and the positioning unit has a harness connection portion that is connected to a harness for sending information to outside, the harness connection portion is located at a back portion of the positioning unit, and the support unit is located protruding backwardly from the harness connection portion of the positioning unit.
An isolated peptide comprising the amino acid sequence FFVKLS (SEQ ID NO: 62) comprising no more than 30 amino acids, wherein, if the isolated peptide is contacted with a second peptide consisting of the amino acid sequence VFDEFKPLVEEPQNLIK (SEQ ID NO: 185), the isolated peptide specifically binds to the second peptide.
A method of detecting a target object, the method comprising; receiving a left image taken by a stereo camera (102, 106); and receiving a right image taken by the stereo camera; characterized by offsetting the left image and the right image relative to one another by an offset disparity to produce offset left and right images (300', 302'), wherein the offset disparity is derived from an assumed distance between the stereo camera and the target object, to remove the disparity in the offset left and right images between depictions of any object appearing at the assumed distance from the stereo camera; and locating the target object in the offset left and right images, wherein locating the target object comprises: applying (402/404) a machine-learning trained classifier (500; 502) to the offset left image to determine a first confidence of object detection for each pixel in the offset left image; applying (404/402) the machine-learning trained classifier (500; 502) to the offset right image to determine a second confidence of object detection for each pixel in the offset right image; combining (406; 700) the correlated confidences of object detection in the offset left and right images to yield a combined confidence of object detection for each corresponding pixel in the offset first and second images; and determining a candidate region in one or both of the offset left and right images that includes the target object, whereby the pixels in the candidate region fulfil the following conditions: the combined confidence is not less than a threshold confidence, and the difference between correlated confidences of first and second images is not greater than a threshold. applying (402/404) a machine-learning trained classifier (500; 502) to the offset left image to determine a first confidence of object detection for each pixel in the offset left image; applying (404/402) the machine-learning trained classifier (500; 502) to the offset right image to determine a second confidence of object detection for each pixel in the offset right image; combining (406; 700) the correlated confidences of object detection in the offset left and right images to yield a combined confidence of object detection for each corresponding pixel in the offset first and second images; and determining a candidate region in one or both of the offset left and right images that includes the target object, whereby the pixels in the candidate region fulfil the following conditions: the combined confidence is not less than a threshold confidence, and the difference between correlated confidences of first and second images is not greater than a threshold.
A method of capturing a population of T-Cell receptor and/or immunoglobulin sequences with variable regions within a patient sample, said method comprising: extracting/preparing DNA fragments from the patient sample; ligating a nucleic acid adapter to the DNA fragments, the nucleic acid adapter suitable for recognition by a pre-selected nucleic acid probe; capturing DNA fragments existing in the patient sample using a collection of nucleic acid hybrid capture probes, wherein each capture probe is designed to hybridize to a known V gene segment and/or a J gene segment within the T cell receptor and/or immunoglobulin genomic loci, wherein the hybrid capture probes are designed based on all unique V genes and J genes and these probe sets specifically target the 3' regions of V gene coding regions and the 5' regions of J gene coding regions. extracting/preparing DNA fragments from the patient sample; ligating a nucleic acid adapter to the DNA fragments, the nucleic acid adapter suitable for recognition by a pre-selected nucleic acid probe; capturing DNA fragments existing in the patient sample using a collection of nucleic acid hybrid capture probes, wherein each capture probe is designed to hybridize to a known V gene segment and/or a J gene segment within the T cell receptor and/or immunoglobulin genomic loci, wherein the hybrid capture probes are designed based on all unique V genes and J genes and these probe sets specifically target the 3' regions of V gene coding regions and the 5' regions of J gene coding regions.
An aerodynamic structure comprising a series of shock bumps extending from its surface, wherein the aerodynamic structure is an aerofoil such as an aircraft wing, horizontal tail plane or control surface; an aircraft structure such as a nacelle, pylon or fin; or a turbine blade, and each bump has substantially no sharp convex edges or points, characterised in that the shock bumps are distributed across the structure with a non-uniform spacing (d1,d2,sl,s2) between adjacent bumps, wherein at least two of the shock bumps have different widths (w1,w2) transverse to a free stream direction.
An image decoding apparatus which decodes a coded image, said image decoding apparatus comprising: a decoding unit configured to decode the coded image included in a coded stream to generate a decoded image; an extraction unit configured to extract cross-correlation data from supplementary enhancement information of a coded picture included in the coded stream, the cross-correlation data indicating a correlation between the decoded image and an image which corresponds to the decoded image and has not yet been coded; a parameter computation unit configured to generate auto-correlation data indicating a correlation of the decoded image, and to compute a filter parameter based on the generated auto-correlation data and the cross-correlation data extracted by said extraction unit; and a filtering unit configured to perform a filtering operation on the decoded image according to the filter parameter. a decoding unit configured to decode the coded image included in a coded stream to generate a decoded image; an extraction unit configured to extract cross-correlation data from supplementary enhancement information of a coded picture included in the coded stream, the cross-correlation data indicating a correlation between the decoded image and an image which corresponds to the decoded image and has not yet been coded; a parameter computation unit configured to generate auto-correlation data indicating a correlation of the decoded image, and to compute a filter parameter based on the generated auto-correlation data and the cross-correlation data extracted by said extraction unit; and a filtering unit configured to perform a filtering operation on the decoded image according to the filter parameter.
Method for producing moulded hollow bodies from an elastomer material, wherein the method comprises at least the following operative steps, specifically: a) pushing in each case one prefabricated blank onto in each case at least one mandrel, wherein the mandrel has at least one region with a wall which is configured to be air-permeable, and each mandrel has at least one air chamber which is operatively connected to the at least one region with an air-permeable wall; b) incorporating the one mandrel having the blank pushed thereon, or a plurality of mandrels having in each case a blank pushed thereon, into an autoclave known per se; c 1) impinging the autoclave with pressure and temperature, wherein air which is enclosed between the blank and the mandrel, or the blanks and the mandrels, is pressed through the region with an air-permeable wall into the respective air chamber, while fully vulcanizing the blanks in the process; d) depressurizing the autoclave, and cooling; e) retrieving the mandrels having completely vulcanized and moulded hollow bodies; f 2) stripping the hollow bodies from the mandrels, characterized in that the mandrel is produced by means of a 3D printing method. a) pushing in each case one prefabricated blank onto in each case at least one mandrel, wherein the mandrel has at least one region with a wall which is configured to be air-permeable, and each mandrel has at least one air chamber which is operatively connected to the at least one region with an air-permeable wall; b) incorporating the one mandrel having the blank pushed thereon, or a plurality of mandrels having in each case a blank pushed thereon, into an autoclave known per se; c 1) impinging the autoclave with pressure and temperature, wherein air which is enclosed between the blank and the mandrel, or the blanks and the mandrels, is pressed through the region with an air-permeable wall into the respective air chamber, while fully vulcanizing the blanks in the process; d) depressurizing the autoclave, and cooling; e) retrieving the mandrels having completely vulcanized and moulded hollow bodies; f 2) stripping the hollow bodies from the mandrels,
A robotic lawnmower system, comprising a robotic lawnmower, said robotic lawnmower comprising a controller being configured to cause said robotic lawnmower to operate in a first operating mode for executing a first mowing pattern, which first operating mode is based on a current position, said current position being determined based on signals received from a Global Navigation Satellite System device; determine that said received signals are not reliable, and in response thereto cause said robotic lawnmower to operate according to a second operating mode for executing a second mowing pattern, which second operating mode is not based on a current position being determined based on said received signals, wherein the second operating mode is solely based on a deduced reckoning operating pattern, wherein the second mowing pattern corresponds to the first mowing pattern and wherein the controller is further configured to determine that said signals received are reliable again, and in response thereto switch to said first operating mode, and wherein the controller is further configured to: determine an expected position, being a position the robotic lawnmower should have been if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected position or determine an expected movement line, being a movement line the robotic lawnmower should have been moving along if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected movement line, wherein the controller is configured to store a map and to adapt its operation based on a current position in the work area based on the map and the robotic lawnmower system is characterized in that the controller is configured to adapt the operation by initiating said second operating mode when the controller determines, based on the current position in the work area based on the map, that the robotic lawnmower is close to or about to enter a Global Navigation Satellite System blackout area. determine an expected position, being a position the robotic lawnmower should have been if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected position or determine an expected movement line, being a movement line the robotic lawnmower should have been moving along if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected movement line, wherein the controller is configured to store a map and to adapt its operation based on a current position in the work area based on the map and the robotic lawnmower system is characterized in that the controller is configured to adapt the operation by initiating said second operating mode when the controller determines, based on the current position in the work area based on the map, that the robotic lawnmower is close to or about to enter a Global Navigation Satellite System blackout area.
A method for setting an active period starting point for a User Equipement, UE, in a Discontinuous Reception, DRX, mode, the method comprising steps of: a base station calculating and storing a position of the active period starting point for the UE based on predetermined parameters, so as to transmit data to the UE in a corresponding active period; the UE receiving Radio Resource Control, RRC, configuration information from the base station via a Physical Downlink Control Channel, PDCCH, and detecting whether the DRX mode is configured in it or not; the UE calculating its active period starting point based on predetermined DRX parameters in the received RRC configuration information; the UE starting DRX based on the calculated active period starting point when the DRX mode is configured in it; the method being characterized in the UE continuously monitoring the PDCCH channel, but not starting DRX, when detecting that the DRX mode has not been configured in it; and when RRC configuration information is newly received, the UE updating its DRX state based on the newly received RRC configuration information. a base station calculating and storing a position of the active period starting point for the UE based on predetermined parameters, so as to transmit data to the UE in a corresponding active period; the UE receiving Radio Resource Control, RRC, configuration information from the base station via a Physical Downlink Control Channel, PDCCH, and detecting whether the DRX mode is configured in it or not; the UE calculating its active period starting point based on predetermined DRX parameters in the received RRC configuration information; the UE starting DRX based on the calculated active period starting point when the DRX mode is configured in it; the method being characterized in the UE continuously monitoring the PDCCH channel, but not starting DRX, when detecting that the DRX mode has not been configured in it; and when RRC configuration information is newly received, the UE updating its DRX state based on the newly received RRC configuration information.
A method of servicing, or repairing a crack in at least one side of a dovetail portion of a dynamoelectric machine's rotor coil slot wall, the rotor coil slot wall including a radial entry surface connected to an inwardly tapered surface, and the inwardly tapered surface is connected to an intermediate radial surface, the method comprising: machining a single first groove in both the radial entry surface and the inwardly tapered surface, the first groove extending linearly to the intermediate radial surface, the first groove configured so that a smooth and linear surface is created along a length of the first groove; machining a second groove in the intermediate radial surface in an orientation substantially perpendicular to the first groove, at least a portion of the second groove contacting a portion of the first groove; and wherein at least one of the first groove and the second groove are configured to remove damaged material from the coil slot wall. machining a single first groove in both the radial entry surface and the inwardly tapered surface, the first groove extending linearly to the intermediate radial surface, the first groove configured so that a smooth and linear surface is created along a length of the first groove; machining a second groove in the intermediate radial surface in an orientation substantially perpendicular to the first groove, at least a portion of the second groove contacting a portion of the first groove; and wherein at least one of the first groove and the second groove are configured to remove damaged material from the coil slot wall.
A device for generating pulses of plasma comprising: an anode; a cathode assembly comprising (i) one or more cathodes (5a,5b,5c), and (ii) a cathode holder, a plasma channel, extending longitudinally between said cathode assembly and through said anode, and having an outlet opening at the anode end, a part of said plasma channel being formed by two or more intermediate electrodes (2,3,4) electrically insulated from each other and the anode, the plasma channel comprising a heating portion closest to the cathode assembly, an anode portion and an anode expansion portion between the heating portion and the anode portion, the expansion portion having two or more sections (86,88,90) with the diameter of each successive section of the expansion portion increasing toward the anode; characterised by an extension nozzle connected to the anode end of the plasma channel and forming an extension channel having a tubular insulator covering a portion of the inside surface of the extension channel; and the device further comprising one or more suction channels (94,96) an anode; a cathode assembly comprising (i) one or more cathodes (5a,5b,5c), and (ii) a cathode holder, (i) one or more cathodes (5a,5b,5c), and (ii) a cathode holder, a plasma channel, extending longitudinally between said cathode assembly and through said anode, and having an outlet opening at the anode end, a part of said plasma channel being formed by two or more intermediate electrodes (2,3,4) electrically insulated from each other and the anode, the plasma channel comprising a heating portion closest to the cathode assembly, an anode portion and an anode expansion portion between the heating portion and the anode portion, the expansion portion having two or more sections (86,88,90) with the diameter of each successive section of the expansion portion increasing toward the anode; characterised by an extension nozzle connected to the anode end of the plasma channel and forming an extension channel having a tubular insulator covering a portion of the inside surface of the extension channel; and the device further comprising one or more suction channels (94,96)