mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for network monitoring, the method comprising: providing network packet event characterization and analysis for network monitoring that comprises supporting summarization and characterization of network packet traces collected across multiple processing elements of different types in a virtual network; and providing an aggregate view of what is happening with the virtual network, wherein the providing the aggregate view of what is happening with the virtual network includes a trace slicing to organize individual packet events into path-based trace slices, a trace characterization to extract at least 2 types of feature matrix describing those trace slices, and a trace analysis to cluster, rank and query packet traces based on metrics of the feature matrix; wherein the clustering includes constructing clusters of trace slices based on a similarity of paths of packets, the ranking is based on one or more different packet feature vectors, and the querying includes traversing the packet feature vectors to generate a list of items meeting all query conditions; and wherein the network packet trace summarization and characterization for network monitoring enables diagnosing data-path routing problems in the network and enables new network visualization and traffic analysis. providing network packet event characterization and analysis for network monitoring that comprises supporting summarization and characterization of network packet traces collected across multiple processing elements of different types in a virtual network; and providing an aggregate view of what is happening with the virtual network, wherein the providing the aggregate view of what is happening with the virtual network includes a trace slicing to organize individual packet events into path-based trace slices, a trace characterization to extract at least 2 types of feature matrix describing those trace slices, and a trace analysis to cluster, rank and query packet traces based on metrics of the feature matrix; wherein the clustering includes constructing clusters of trace slices based on a similarity of paths of packets, the ranking is based on one or more different packet feature vectors, and the querying includes traversing the packet feature vectors to generate a list of items meeting all query conditions; and wherein the network packet trace summarization and characterization for network monitoring enables diagnosing data-path routing problems in the network and enables new network visualization and traffic analysis.
A monolithic cassette comprising: a first end having a first electrical resistivity; a second end having a second electrical resistivity, wherein the second electrical resistivity is higher than the first electrical resistivity, and wherein the cassette comprises a ceramic composition and a conductive composition; wherein the weight ratio of the ceramic composition to the conductive composition is graded between the first end and the second end, the cassette further comprising a continuous grain structure between the first end and the second end; wherein electrical resistivity of the monolithic cassette is graded such that the resistivity varies continuously over the length of the cassette from the first end to the second end, and the cassette comprising an electrically resistive composition comprising 45 to 58 percent by weight of the ceramic composition, wherein the ceramic composition comprises a substantially homogenous mixture of 99.5 to 99.7 percent zinc oxide powder, and 0.3 to 0.5 percent aluminum oxide powder; and 42 to 55 percent by weight of the conductive composition, the conductive composition comprising silver powder; wherein electrical resistivity of the composition varies from the first end to the second end from 1 micro ohm-cm to 1 mega ohm-cm based on a ratio of the ceramic composition to silver powder. a first end having a first electrical resistivity; a second end having a second electrical resistivity, wherein the second electrical resistivity is higher than the first electrical resistivity, and wherein the cassette comprises a ceramic composition and a conductive composition; wherein the weight ratio of the ceramic composition to the conductive composition is graded between the first end and the second end, the cassette further comprising a continuous grain structure between the first end and the second end; 45 to 58 percent by weight of the ceramic composition, wherein the ceramic composition comprises a substantially homogenous mixture of 99.5 to 99.7 percent zinc oxide powder, and 0.3 to 0.5 percent aluminum oxide powder; and 42 to 55 percent by weight of the conductive composition, the conductive composition comprising silver powder; wherein electrical resistivity of the composition varies from the first end to the second end from 1 micro ohm-cm to 1 mega ohm-cm based on a ratio of the ceramic composition to silver powder.
A method of tracking helicopters using a missile radar, the method comprising: receiving on-board a missile radar samples having an amplitude and Doppler shift for multiple range gates that define a Range-Doppler Map including ground clutter, body and extended rotor returns, in which the extended rotor return is distinguishable from the clutter and body returns (step 109); initializing at least one search window to exclude ground clutter (steps 111, 113); comparing the samples within the at least one search window to a constant false-alarm rate, CFAR, threshold to detect potential targets (step 115); processing the samples to attempt to extract the body return of the helicopter (step 117); comparing the samples within the at least one search window to a threshold set above the CFAR threshold using a priori information of a helicopter rotor assembly to identify rotor samples (step 125); extracting rotor features from the rotor samples (step 127); classifying the potential target as a helicopter or other based on the extracted features and known attributes of the helicopter rotor assembly (step 129); and characterised in that said extracting includes calculating an estimated bandwidth of the extended rotor return, and in that the method further comprises modifying the at least one search window (step 123) using a minimum Doppler shift to exclude the body return and the ground clutter and using a maximum Doppler shift to include at least a portion of the extended rotor return, to identify rotor samples. receiving on-board a missile radar samples having an amplitude and Doppler shift for multiple range gates that define a Range-Doppler Map including ground clutter, body and extended rotor returns, in which the extended rotor return is distinguishable from the clutter and body returns (step 109); initializing at least one search window to exclude ground clutter (steps 111, 113); comparing the samples within the at least one search window to a constant false-alarm rate, CFAR, threshold to detect potential targets (step 115); processing the samples to attempt to extract the body return of the helicopter (step 117); comparing the samples within the at least one search window to a threshold set above the CFAR threshold using a priori information of a helicopter rotor assembly to identify rotor samples (step 125); extracting rotor features from the rotor samples (step 127); classifying the potential target as a helicopter or other based on the extracted features and known attributes of the helicopter rotor assembly (step 129); and characterised in that said extracting includes calculating an estimated bandwidth of the extended rotor return, and in that the method further comprises modifying the at least one search window (step 123) using a minimum Doppler shift to exclude the body return and the ground clutter and using a maximum Doppler shift to include at least a portion of the extended rotor return, to identify rotor samples.
A filled polymeric material comprising a polymeric matrix and a modified mineral filler particle comprising a filler particle modified with discrete functional particles that are sufficiently bound, adhered, or otherwise associated to the surface of the filler via interaction such that they are able to remain associated during subsequent manufacturing steps, wherein the discrete functional particles are pigment particles, and wherein the particle size distribution for the filler is in a range from 0.1 micron to 100 microns and the particle size distribution for the functional particles is from 0.005 microns to 4 microns, the particle size being measured by SEM.
A method of embedding at least one fastener in a sandwich structure concurrently with fabrication of an ordered three-dimensional microstructure core of the sandwich structure, the method comprising: attaching the at least one fastener to a first facesheet; irradiating a volume of photo-monomer in a reservoir surrounding the at least one fastener with light beams to form the ordered three-dimensional microstructure core having a plurality of polymer optical waveguides around the at least one fastener; and attaching a second facesheet to the ordered three-dimensional microstructure core to form the sandwich structure. attaching the at least one fastener to a first facesheet; irradiating a volume of photo-monomer in a reservoir surrounding the at least one fastener with light beams to form the ordered three-dimensional microstructure core having a plurality of polymer optical waveguides around the at least one fastener; and attaching a second facesheet to the ordered three-dimensional microstructure core to form the sandwich structure.
A connection for tubes comprising an inner tube coaxial to an axis and configured for an operating fluid of a conditioning system to flow inside it, an outer tube coaxial to said inner tube for a coolant fluid for said operating fluid to flow between said inner and outer tubes, and a coolant fluid circulation tube, said outer tube comprising an inlet for the coolant fluid circulation tube, which is a tube of passage of said coolant fluid, said coolant fluid circulation tube being coupled with said inlet and being welded within said inlet, wherein the axis of said coolant fluid circulation tube is inclined by an angle (α) with respect to said axis and with respect to a vertical axis perpendicular to said axis and wherein said inlet is obtained in a projection radial with respect to said axis, characterized in that said coolant fluid circulation tube, said outer tube and said inner tube are welded to each other by means of a single welding.
A method for computer-aided determination of the efficiency of the installation of spatially distributed electrical components of a machine, in particular a plant, characterized by the following steps: Detecting a start time of a work step during the installation of an installation element, preferably a cable or a component, of the machine by receiving an identifier of the installation element from a reading device directly or indirectly assigned to the user; Detecting at least one movement profile of a user during the execution of the work step by locating the reading device directly or indirectly assigned to the user; Detecting an end time of the work step; Determining at least one installation efficiency during the execution of the work step, at least in part based on a time required for the work step corresponding to the start and end times and/or the at least one movement profile detected; and automatically documenting the at least one installation efficiency determined. Detecting a start time of a work step during the installation of an installation element, preferably a cable or a component, of the machine by receiving an identifier of the installation element from a reading device directly or indirectly assigned to the user; Detecting at least one movement profile of a user during the execution of the work step by locating the reading device directly or indirectly assigned to the user; Detecting an end time of the work step; Determining at least one installation efficiency during the execution of the work step, at least in part based on a time required for the work step corresponding to the start and end times and/or the at least one movement profile detected; and automatically documenting the at least one installation efficiency determined.
An apparatus for measuring the light scattered from a measured zone, the apparatus having a light transmitter for transmitting a light beam into the measured zone and having a light receiver with a reception optics for detecting light scattered in the measured zone, wherein an adjustment unit is provided to change between a measuring mode in which the optical axes of the light transmitter and of the reception optics stand at an angle with respect to one another and intersect in the measured zone and a test mode in which the optical axes of the light transmitter and of the reception optics are aligned in parallel with one another, wherein the light beam successively sweeps over the reception optics for recognizing contaminants, characterized in that, the reception optics is fastened to a first holding element which is rotatably held at a displaceable rotary axle, in that the adjustment unit has a pushing element which is displaceable in a straight line from a first position through an intermediate position into a second position, and has a chamfered surface which is in contact with the first holding element, and in that in the test mode the adjustment unit first rotates the reception optics about the rotary axle by displacing the pushing element from the the first position into the intermediate position among taking the first holding element through touching the first holding element between the chamfered surface until the optical axis of the reception optics is in parallel with the optical axis of the light transmitter and then displaces the rotary axle together with the reception optics by displacing the pushing element from the intermediate position into the second position such that the light beam moves over the receptions optics and hence scans it with a spatial resolution.
Connecting adapter for a wiper pantograph, especially a car wiper, comprising a first part for rotatably mounting wiper blade, so that the wiper blade can rotate around a rotation axis of the wiper blade, and a second part for rotatably mounting a first arm of the pantograph in a first arm mounting area and for rotatably mounting a second arm of the pantograph in a second arm mounting area, so that the first arm can rotate around a first arm rotation axis while the second arm can rotate around a second arm rotation axis, the first arm of the pantograph is rotatably mounted in the second part with a cylindrical element having a longitudinal symmetry axis, preferably with a shaft, a bolt, a rivet or a screw, such that said longitudinal symmetry axis forms the first arm rotation axis with respect to the second part, wherein the rotation axis of the wiper blade intersects the first arm rotation axis, which passes through the first arm mounting area in the second part for rotatably mounting the pantograph arms (11, 12), characterised in that the distance between the rotation axis of the wiper blade and the axis connecting the centres of mounting areas (4, 6) of the first arm and the second arm is not greater than the radius of the cross section of said cylindrical element used for the rotatable mounting of the first arm and the second arm in the second part.
A system for anal or stomal irrigation comprising: a reservoir for an irrigating liquid; a catheter comprising a catheter tip for insertion into the rectum or stoma of a user and for expelling of the irrigating liquid from the catheter tip; a tubing system (119, 121) providing a conduit for the irrigating liquid between the reservoir and the catheter tip; a pump operable to pump the irrigating liquid from the reservoir to the catheter tip; a thermo sensor connected to the reservoir for obtaining a measure of a temperature within the reservoir, the tubing system and/or the catheter; and a control system operatively connected with the thermo sensor, the control system being configured to: - determine a temperature within the reservoir, characterized in that the control system is further configured to: - determine the temperature within the reservoir before the irrigating liquid is filled or re-filled into the reservoir; - determine an initial change of the temperature within the reservoir upon commencement of filling or refilling of the irrigating liquid into the reservoir; - predict a future asymptotic value of the temperature within the reservoir on the basis of at least the initial change; - continuously determine a current temperature or a current rate of change of the temperature within the reservoir while the irrigating liquid is filled or refilled into the reservoir; and - continuously update the prediction of the future asymptotic value of the temperature within the reservoir on the basis of at least said current temperature and/or rate of change of the temperature. a reservoir for an irrigating liquid; a catheter comprising a catheter tip for insertion into the rectum or stoma of a user and for expelling of the irrigating liquid from the catheter tip; a tubing system (119, 121) providing a conduit for the irrigating liquid between the reservoir and the catheter tip; a pump operable to pump the irrigating liquid from the reservoir to the catheter tip; a thermo sensor connected to the reservoir for obtaining a measure of a temperature within the reservoir, the tubing system and/or the catheter; and a control system operatively connected with the thermo sensor, the control system being configured to: - determine a temperature within the reservoir, - determine a temperature within the reservoir, - determine the temperature within the reservoir before the irrigating liquid is filled or re-filled into the reservoir; - determine an initial change of the temperature within the reservoir upon commencement of filling or refilling of the irrigating liquid into the reservoir; - predict a future asymptotic value of the temperature within the reservoir on the basis of at least the initial change; - continuously determine a current temperature or a current rate of change of the temperature within the reservoir while the irrigating liquid is filled or refilled into the reservoir; and - continuously update the prediction of the future asymptotic value of the temperature within the reservoir on the basis of at least said current temperature and/or rate of change of the temperature.
A valve for regulating a flow cross section in a throttle flap connector, having a throttle flap which is mounted in the throttle flap connector so as to be rotatable about an axis of rotation, wherein the throttle flap is rotatable about the axis of rotation, by means of an actuator which acts on the throttle flap, counter to a force generated by a mechanical spring, wherein the maximum angle of rotation of the throttle flap in the throttle flap connector is limited by stops, wherein the throttle flap, in at least a first position, is fixable in said first position by means of a magnet device (5, 7), wherein the magnet device (5, 7) is formed by a first permanent magnet in the housing of the throttle flap connector, and a second permanent magnet is formed on the throttle flap, wherein the permanent magnets (5, 7) are oriented relative to one another such that those ends of the permanent magnets (5, 7) which are of the same polarity are directed toward one another, wherein the force generated by the magnet device (5, 7) between the permanent magnets (5, 7) of the throttle flap and of the throttle flap connector counteract the force generated by the actuator.
A shield (5, 50, 130, 205) for a plasma arc torch that pierces and cuts a metallic workpiece producing a splattering of molten metal directed at the torch, the shield (5, 50, 130, 205) protecting consumable components of the plasma arc torch from the splattering molten metal, the shield comprising: a body; an inner first surface (35, 115) of the body configured to be contact-cooled by a gas flow; an outer third surface (20, 125) of the body exposed to splattering molten metal and configured to be conductively cooled by the gas flow and the liquid flow so as to prevent the splattering molten metal from bonding to the third surface; an orifice (30, 95, 96) is disposed at a distal end of the body; characterized in that it further comprises an outer second surface (10, 70) of the body configured to be contact-cooled by a liquid flow; and a seal assembly (15A, 15B, 60A, 60B) disposed adjacent to the outer second surface (10, 70) of the body and configured to retain the liquid flow contact-cooling the second surface (10, 70). a body; an inner first surface (35, 115) of the body configured to be contact-cooled by a gas flow; an outer third surface (20, 125) of the body exposed to splattering molten metal and configured to be conductively cooled by the gas flow and the liquid flow so as to prevent the splattering molten metal from bonding to the third surface; an orifice (30, 95, 96) is disposed at a distal end of the body; characterized in that it further comprises an outer second surface (10, 70) of the body configured to be contact-cooled by a liquid flow; and a seal assembly (15A, 15B, 60A, 60B) disposed adjacent to the outer second surface (10, 70) of the body and configured to retain the liquid flow contact-cooling the second surface (10, 70).
An energy device comprising: an energy storage component (581, 582) comprising an electrochemical cell having a plurality of component layers (130, 140, 150), and at least one electrically conductive surface (180, 280, 380, 481, 482; 120), wherein said at least one electrically conductive surface (180, 280, 380, 481,482; 120) is adapted to collect electromagnetic energy thereby enabling a current to be induced within the at least one electrically conductive surface (180, 280, 380, 481, 482; 120), the at least one electrically conductive surface (180, 280, 380, 481, 482; 120) is an integral part of said energy storage component (581, 582), the integral part is a current collector of the electrochemical cell, characterized in that the at least one electrically conductive surface (180, 280, 380, 481, 482; 120) comprises an electrically conductive protrusion extending therefrom in the direction parallel to the plurality of component layers (130, 140, 150) of the electrochemical cell and extending beyond the plurality of component layers (130, 140, 150) of the electrochemical cell. an energy storage component (581, 582) comprising an electrochemical cell having a plurality of component layers (130, 140, 150), and at least one electrically conductive surface (180, 280, 380, 481, 482; 120), wherein said at least one electrically conductive surface (180, 280, 380, 481,482; 120) is adapted to collect electromagnetic energy thereby enabling a current to be induced within the at least one electrically conductive surface (180, 280, 380, 481, 482; 120), the at least one electrically conductive surface (180, 280, 380, 481, 482; 120) is an integral part of said energy storage component (581, 582), the integral part is a current collector of the electrochemical cell, characterized in that the at least one electrically conductive surface (180, 280, 380, 481, 482; 120) comprises an electrically conductive protrusion extending therefrom in the direction parallel to the plurality of component layers (130, 140, 150) of the electrochemical cell and extending beyond the plurality of component layers (130, 140, 150) of the electrochemical cell.