mhurhangee/ep-ind-claims huggingface dataset:
A method for generating an aggregation layer networkmap and an aggregation layer costmap, comprising: determining, by an application layer traffic optimization server, Alto server, structural infonnation of n aggregated network location identifiers PIDs, wherein the n aggregated PIDs are formed by aggregation of m basic PIDs, and n is less than m; determining, by the Alto server according to a base layer networkmap corresponding to the m basic PIDs and structural information of each aggregated PID, an aggregation layer networkmap corresponding to the n aggregated PIDs, wherein the structural information of each aggregated PID indicates a basic PID separately comprised in each aggregated PID; wherein the base layer networkmap comprises a correspondence between the m basic PIDs and IP addresses of network devices covered by the m basic PIDs; the aggregation layer networkmap comprises a correspondence between the n aggregated PIDs and the IP addresses of the network devices covered by the m basic PIDs; wherein each IP address in the IP addresses of the network devices covered by the m basic PIDs is corresponding to a unique basic PID, and each IP address in the IP addresses of the network devices covered by the m basic PIDs is corresponding to a unique aggregated PID; and determining, by the Alto server according to a base layer costmap corresponding to the m basic PIDs and the structural information of each aggregated PID, an aggregation layer costmap corresponding to the n aggregated PIDs. determining, by an application layer traffic optimization server, Alto server, structural infonnation of n aggregated network location identifiers PIDs, wherein the n aggregated PIDs are formed by aggregation of m basic PIDs, and n is less than m; determining, by the Alto server according to a base layer networkmap corresponding to the m basic PIDs and structural information of each aggregated PID, an aggregation layer networkmap corresponding to the n aggregated PIDs, wherein the structural information of each aggregated PID indicates a basic PID separately comprised in each aggregated PID; wherein the base layer networkmap comprises a correspondence between the m basic PIDs and IP addresses of network devices covered by the m basic PIDs; the aggregation layer networkmap comprises a correspondence between the n aggregated PIDs and the IP addresses of the network devices covered by the m basic PIDs; wherein each IP address in the IP addresses of the network devices covered by the m basic PIDs is corresponding to a unique basic PID, and each IP address in the IP addresses of the network devices covered by the m basic PIDs is corresponding to a unique aggregated PID; and determining, by the Alto server according to a base layer costmap corresponding to the m basic PIDs and the structural information of each aggregated PID, an aggregation layer costmap corresponding to the n aggregated PIDs.
A compound represented by the following formula, or a pharmaceutically acceptable salt or tautomer thereof, for use in a method of treating a condition or disease in a mammal selected from hypertension, congestive heart failure, asthma, depression, glaucoma, elevated intraocular pressure, ischemic neuropathy, optic neuropathy, pain, a retinal degenerative condition, stroke, a cognitive deficit, a neuropsychiatric condition, drug dependence, drug addiction, withdrawal symptoms, obsessive compulsive disorder, obesity, insulin resistance, a stress-related condition, diarrhea, diuresis, nasal congestion, attention deficit disorder, psychosis, anxiety, autoimmune disease, Crohn's disease, gastritis, and a neurodegenerative disease: wherein R 1 and R 2 are independently selected from halogen and C 1-4 halogenated alkyl.
A system for characterizing a relative offset in time between audio and video signals, the system comprising: a frame storage configured to: receive, via in-band signalling from a television origination facility, a sequence of frames including video and audio signals as well as in-band characterization data associated with each scanline of each frame in the sequence of frames; and store at least a portion of the frames in the sequence of frames; a receiver coupled to the frame storage and configured to: extract the in-band characterization data from the sequence of frames; recompute characterization data for each scanline of each frame of the sequence of frames based on the video and audio signals; and compare the recomputed characterization data for each scanline of each frame with the extracted in-band characterization data to determine the relative offset in time between the audio and video signals for the sequence of frames. a frame storage configured to: receive, via in-band signalling from a television origination facility, a sequence of frames including video and audio signals as well as in-band characterization data associated with each scanline of each frame in the sequence of frames; and store at least a portion of the frames in the sequence of frames; receive, via in-band signalling from a television origination facility, a sequence of frames including video and audio signals as well as in-band characterization data associated with each scanline of each frame in the sequence of frames; and store at least a portion of the frames in the sequence of frames; a receiver coupled to the frame storage and configured to: extract the in-band characterization data from the sequence of frames; recompute characterization data for each scanline of each frame of the sequence of frames based on the video and audio signals; and compare the recomputed characterization data for each scanline of each frame with the extracted in-band characterization data to determine the relative offset in time between the audio and video signals for the sequence of frames. extract the in-band characterization data from the sequence of frames; recompute characterization data for each scanline of each frame of the sequence of frames based on the video and audio signals; and compare the recomputed characterization data for each scanline of each frame with the extracted in-band characterization data to determine the relative offset in time between the audio and video signals for the sequence of frames.
A rail lifting head comprising: a transverse beam having a lifting point at its upper side adapted to be lifted by a lifting means of a rail moving apparatus; first and second vertical shaft members mounted on the transverse beam for rotation about a vertical pivot axis, and extending downwards from the transverse beam; first and second rail support members cantilevered from the lower ends of the first and second vertical shaft members respectively; wherein the first and second rail support members can rotate about their respective pivot axes between a closed position in which the rail support members, the vertical shaft members and the transverse beam form a substantially closed frame and an open position in which the rail support members extend substantially perpendicular to the transverse beam. a transverse beam having a lifting point at its upper side adapted to be lifted by a lifting means of a rail moving apparatus; first and second vertical shaft members mounted on the transverse beam for rotation about a vertical pivot axis, and extending downwards from the transverse beam; first and second rail support members cantilevered from the lower ends of the first and second vertical shaft members respectively; wherein the first and second rail support members can rotate about their respective pivot axes between a closed position in which the rail support members, the vertical shaft members and the transverse beam form a substantially closed frame and an open position in which the rail support members extend substantially perpendicular to the transverse beam.
A headlight system for a banking vehicle comprising: a headlight; and an inertial measurement unit including a processor and a motion sensor (82, 84, 86), the processor being configured to: sample yaw rate data from the motion sensor (82, 84, 86); compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate; when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate, set the bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate, calculate the bank angle value based on roll rate data provided by the motion sensor (82, 84, 86); wherein the processor is further configured to control an illumination pattern provided by the headlight in response to the bank angle value calculated by the processor. a headlight; and an inertial measurement unit including a processor and a motion sensor (82, 84, 86), the processor being configured to: sample yaw rate data from the motion sensor (82, 84, 86); compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate; when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate, set the bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate, calculate the bank angle value based on roll rate data provided by the motion sensor (82, 84, 86); sample yaw rate data from the motion sensor (82, 84, 86); compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate; when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate, set the bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate, calculate the bank angle value based on roll rate data provided by the motion sensor (82, 84, 86); wherein the processor is further configured to control an illumination pattern provided by the headlight in response to the bank angle value calculated by the processor.
Polyolefin resin foam particles prepared by foaming polyolefin resin particles including a polyolefin resin composition, wherein the polyolefin resin composition contains two or more inorganic antiblocking agents in a total amount of 0.1 parts by weight or more and 2 parts by weight or less relative to 100 parts by weight of a polyolefin resin, and the polyolefin resin foam particles have an average cell diameter determined by the method disclosed in the description of 100 μm or more and 400 μm or less wherein the average cell diameter is determined according to a microscope photography observed in a center cross section of a foam particle.
An ostomy system comprising an ostomy appliance (2, 4, 700), a monitor device and a docking station, the monitor device comprising a first interface comprising a plurality of terminals (108, 110, 112, 114, 116, 118); and the docking station comprising a docking monitor interface configured to electrically and/or mechanically couple the monitor device and the docking station; wherein the first interface is configured to (i) releasably couple the monitor device to the ostomy appliance (2, 4, 700), and (ii) releasably couple the monitor device to the docking station.
A method of parallel dispensing powder samples materials comprising: a) providing at least two powder sample holders, each said sample holder having a through passage having a first aperture through which powder is introduced into said passage and a second aperture through which powder, when permitted to do so, flows from said passage; b) introducing powder samples into respective sample holders; c) aligning said second aperture of each said holder with an aperture of a respective sample receptacle; and d) substantially simultaneously permitting powder to flow through said second apertures whilst agitating powder samples in said passages with agitator means which contact a wall defining said passages to aid their flow therefrom into respective receptacles wherein the method comprises sealing the second apertures of the sample holders prior to introduction therein of powder samples, wherein each agitator means comprises a stirrer mechanism, the stirrer mechanisms being reciprocally movable in parallel relative to the respective sample holders when the sample holders are located in their dispense positions, wherein said stirrer mechanisms are each mounted on a common support member reciprocal movement of which relative to a dispense location of said sample holders effects simultaneous reciprocal movement of the agitators relative to the sample holders, the method being characterized in that each stirrer mechanism comprises flexible members that, upon rotation about the axis of passage in the respective sample holder, contact the wall of the passage of the respective sample holder to sweep powder therefrom. a) providing at least two powder sample holders, each said sample holder having a through passage having a first aperture through which powder is introduced into said passage and a second aperture through which powder, when permitted to do so, flows from said passage; b) introducing powder samples into respective sample holders; c) aligning said second aperture of each said holder with an aperture of a respective sample receptacle; and d) substantially simultaneously permitting powder to flow through said second apertures whilst agitating powder samples in said passages with agitator means which contact a wall defining said passages to aid their flow therefrom into respective receptacles wherein the method comprises sealing the second apertures of the sample holders prior to introduction therein of powder samples, wherein each agitator means comprises a stirrer mechanism, the stirrer mechanisms being reciprocally movable in parallel relative to the respective sample holders when the sample holders are located in their dispense positions, wherein said stirrer mechanisms are each mounted on a common support member reciprocal movement of which relative to a dispense location of said sample holders effects simultaneous reciprocal movement of the agitators relative to the sample holders, the method being characterized in that each stirrer mechanism comprises flexible members that, upon rotation about the axis of passage in the respective sample holder, contact the wall of the passage of the respective sample holder to sweep powder therefrom.
Absorber unit for increasing the noise immunity of a system bus, wherein the system bus is designed to enable communication to take place in a defined communication frequency spectrum, wherein the absorber unit comprises a high-pass filter and an absorber resistor, wherein the high-pass filter can be connected to a system bus on the input side and to the absorber resistor on the output side and is dimensioned such that it has a low-impedance effect for noise signals that lie above the communication frequency spectrum so that said signals are absorbed by the absorber resistor, characterised in that the absorber unit is embodied by an attenuated series resonant circuit.
Domestic appliance for emulsifying or mixing a liquid food preparation comprising: - a container fitted with a removable cover and a rotary tool for emulsifying or mixing the food preparation, close to the bottom of the container, - a frame supporting the container, with an electric motor linked to the drive means of the rotary tool in rotation, - the removable cover comprises a dosing feeder for inserting ingredients to the container, comprising a feed opening on or above the cover and an outlet opening located below the cover, wherein the dosing feeder is angled and has a bottom wall comprising a face pointing towards the interior of the container with guide components in rotation of the rotary tool. - a container fitted with a removable cover and a rotary tool for emulsifying or mixing the food preparation, close to the bottom of the container, - a frame supporting the container, with an electric motor linked to the drive means of the rotary tool in rotation, - the removable cover comprises a dosing feeder for inserting ingredients to the container, comprising a feed opening on or above the cover and an outlet opening located below the cover,
Device for storing a key for a mechanical closing device of an electronic access system, comprising - a base housing which is designed for accommodating the key, - a housing cover for covering the key accommodated in the base housing, and - a closure mechanism for releasably connecting the base housing and housing cover, wherein the closure mechanism comprises an articulated connecting device (9, 10) and a locking device (2a, 11, 12) spaced apart from the articulated connecting device, wherein the articulated connecting device has a hook and an opening and is designed in such a way that the hook is arranged on one of the two housing parts and is designed for engaging below the surface of the other of the two housing parts on an edge of the opening arranged therein, wherein the design of the articulated connecting device (9, 10) allows a pivoting of the housing cover with a pivoting angle range limited so as to avoid the key falling out inadvertently. - a base housing which is designed for accommodating the key, - a housing cover for covering the key accommodated in the base housing, and - a closure mechanism for releasably connecting the base housing and housing cover,
An object information acquiring apparatus comprising: a light source; an irradiator configured to irradiate an object with light from the light source; a holder configured to hold the object; a probe configured to receive an acoustic wave generated by the object irradiated with the light and output an electric signal; a scan controller configured to change a relative position of the irradiator to the holder in a direction different from an irradiation direction of the light from the irradiator; and an acquirer configured to acquire information on the interior of the object based on the electric signal, wherein the scan controller changes the relative position of the irradiator to the holder such that a thickness of acoustic matching member that acoustically connects the holder and the probe changes according to the relative position in the direction different from the irradiation direction of the light from the irradiator, characterized by an optical controller configured to control an optical amount of light radiated from the irradiator according to the relative position of the irradiator to the holder in the direction different from the irradiation direction of the light from the irradiator. a light source; an irradiator configured to irradiate an object with light from the light source; a holder configured to hold the object; a probe configured to receive an acoustic wave generated by the object irradiated with the light and output an electric signal; a scan controller configured to change a relative position of the irradiator to the holder in a direction different from an irradiation direction of the light from the irradiator; and an acquirer configured to acquire information on the interior of the object based on the electric signal, wherein the scan controller changes the relative position of the irradiator to the holder such that a thickness of acoustic matching member that acoustically connects the holder and the probe changes according to the relative position in the direction different from the irradiation direction of the light from the irradiator, characterized by
Protective cover for a seat part of a motor vehicle seat, having a cover material for covering a seating surface of the seat part and tensioning belts (4a, 4b) for fastening the protective cover to the motor vehicle seat, the protective cover comprising at least one opening for functional elements of the seat part that are arranged on one of the lateral narrow sides of the seat part, which opening lies between an edge of the cover material and a preferably rubber-elastically stretchable tensioning belt that extends at a distance below the edge of the cover material to the rear side of the motor vehicle seat, and at least one connecting strap (6, 7) extending between the edge of the cover material and the tensioning belt that extends at a distance below the edge ' of the cover material, which connecting strap forms a loop through which the tensioning belt extends, the loop being displaceable in relation to the tensioning belt in the longitudinal direction thereof, characterised in that the at least one connecting strap (6, 7) is rubber-elastically stretchable.
A system arranged to identify defects in a composite structure (22; 56; 60) during fabrication thereof, comprising: a composite structure (22; 56; 60) comprising a plurality of adjacent strips of composite tape, the strips including a plurality of fibers embedded in a resin or other material that becomes tacky or flowable upon the application of heat; a light source (14; 50, 52; 58) positioned relative to the composite structure (22; 56; 60) for illuminating the composite structure (22; 56; 60), wherein light generated by said light source (14; 50, 52; 58) is reflected differently by defects in the composite structure (22; 56; 60) than from portions of the composite structure (22; 56; 60) that are defect free; a reflective surface proximate the composite structure (22; 56; 60) and directed toward a portion of the composite structure (22; 56; 60) that is illuminated; and a camera directed toward said reflective surface to receive images of that portion of the composite structure (22; 56; 60) that is illuminated following reflection of the image from said reflective surface, and wherein said camera is positioned at a greater distance from the illuminated portion of the composite structure (22; 56; 60) than said reflective surface. a composite structure (22; 56; 60) comprising a plurality of adjacent strips of composite tape, the strips including a plurality of fibers embedded in a resin or other material that becomes tacky or flowable upon the application of heat; a light source (14; 50, 52; 58) positioned relative to the composite structure (22; 56; 60) for illuminating the composite structure (22; 56; 60), wherein light generated by said light source (14; 50, 52; 58) is reflected differently by defects in the composite structure (22; 56; 60) than from portions of the composite structure (22; 56; 60) that are defect free; a reflective surface proximate the composite structure (22; 56; 60) and directed toward a portion of the composite structure (22; 56; 60) that is illuminated; and a camera directed toward said reflective surface to receive images of that portion of the composite structure (22; 56; 60) that is illuminated following reflection of the image from said reflective surface, and wherein said camera is positioned at a greater distance from the illuminated portion of the composite structure (22; 56; 60) than said reflective surface.