mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a network element, first network traffic directed to a first address associated with a first network node; forwarding the first network traffic to the first network node; receiving from the first network node the first network traffic directed to a second address associated with a second network node coupled to the network element and a forwarding policy for a second network traffic, wherein the second network traffic originates from the second network node; identifying a plurality of ports of the network element, wherein the second network node is accessible from the network element through each of the plurality of ports; forwarding the first network traffic to the second network node via one of the plurality of ports; configuring the plurality of ports of the network element to apply the forwarding policy; receiving the second network traffic from the second network node at one of the plurality of ports; and applying the forwarding policy by forwarding the second network traffic to the first network node. receiving, at a network element, first network traffic directed to a first address associated with a first network node; forwarding the first network traffic to the first network node; receiving from the first network node the first network traffic directed to a second address associated with a second network node coupled to the network element and a forwarding policy for a second network traffic, wherein the second network traffic originates from the second network node; identifying a plurality of ports of the network element, wherein the second network node is accessible from the network element through each of the plurality of ports; forwarding the first network traffic to the second network node via one of the plurality of ports; configuring the plurality of ports of the network element to apply the forwarding policy; receiving the second network traffic from the second network node at one of the plurality of ports; and applying the forwarding policy by forwarding the second network traffic to the first network node.
A method for processing audio signal, the method comprising: determining, for a current frame of the audio signal, frequency band energies for a plurality of predefined frequency bands at least partially based on frequency parameters of the current frame; generating frequency band gains for the plurality of predefined frequency bands by processing the frequency band energies; and generating frequency bin gains for the current frame based on the frequency band gains using predefined frequency band filter banks, the frequency band filter banks being specific to the plurality of predefined frequency bands; characterised in that the method further comprises: applying headphone virtualization to the audio signal by convolving the audio signal with head-related impulse response (HRIR) associated with the audio signal, wherein the HRIR is integrated into the predefined frequency band filter banks, and wherein the convolving comprises: convolving the audio signal with the HRIR in frequency domain using the predefined frequency band filter banks. determining, for a current frame of the audio signal, frequency band energies for a plurality of predefined frequency bands at least partially based on frequency parameters of the current frame; generating frequency band gains for the plurality of predefined frequency bands by processing the frequency band energies; and generating frequency bin gains for the current frame based on the frequency band gains using predefined frequency band filter banks, the frequency band filter banks being specific to the plurality of predefined frequency bands; applying headphone virtualization to the audio signal by convolving the audio signal with head-related impulse response (HRIR) associated with the audio signal, wherein the HRIR is integrated into the predefined frequency band filter banks, and wherein the convolving comprises: convolving the audio signal with the HRIR in frequency domain using the predefined frequency band filter banks. convolving the audio signal with the HRIR in frequency domain using the predefined frequency band filter banks.
A method, implemented by a physical network node controlling allocation and/or deallocation of resources of an interconnected hardware infrastructure, the method comprising: determining a number of requests currently queued at a first service node of a plurality of serially-connected service nodes at a current time, the plurality of serially-connected service nodes supporting a packet flow using resources of the interconnected hardware infrastructure; determining a packet flow rate of the packet flow into the first service node; determining (430, 550, 555) a future time to control allocation or deallocation of a resource of the interconnected hardware infrastructure to a second service node of the plurality of serially-connected service nodes, wherein the determining of the future time is based on the determined number of requests and the determined packet flow rate; controlling the allocation or deallocation of the resource to the second service node at the future time. determining a number of requests currently queued at a first service node of a plurality of serially-connected service nodes at a current time, the plurality of serially-connected service nodes supporting a packet flow using resources of the interconnected hardware infrastructure; determining a packet flow rate of the packet flow into the first service node; determining (430, 550, 555) a future time to control allocation or deallocation of a resource of the interconnected hardware infrastructure to a second service node of the plurality of serially-connected service nodes, wherein the determining of the future time is based on the determined number of requests and the determined packet flow rate; controlling the allocation or deallocation of the resource to the second service node at the future time.
A vehicle wheel trim, which comprises a disc that in the position of use thereof covers a rim of a vehicle wheel, and means for fastening the disc to the rim, the means for fastening the disc to the rim comprising a plurality of magnets that can be fastened to screws that fasten the rim to the vehicle, each of the magnets being placed on the inside of a housing, characterized in that each of the magnets is associated with a fastening element for the fastening thereof to said housing, wherein the fastening element is either of: - a clip provided with legs that are in contact with the inner portion of the housing, - a hook that is coupled to a rib of said disc, - a screw that is housed in a hole of the magnet and that is screwed into the bottom of said housing, - a plurality of elastic tabs that are coupled using pressure to protrusions complementary to the housing, - an inner threading of said housing for the magnet, or - a protrusion that is coupled using pressure in a slot of said housing for the magnet. - a clip provided with legs that are in contact with the inner portion of the housing, - a hook that is coupled to a rib of said disc, - a screw that is housed in a hole of the magnet and that is screwed into the bottom of said housing, - a plurality of elastic tabs that are coupled using pressure to protrusions complementary to the housing, - an inner threading of said housing for the magnet, or - a protrusion that is coupled using pressure in a slot of said housing for the magnet.
A method for manufacturing a multifunctional electromagnetic waveguide from a tapered optical fiber, comprising the following steps: mounting the optical fiber on a handling apparatus which may be actuated to translationally move the optical fiber along at least one translation axis (x, y, z) and rotate the optical fiber about a longitudinal axis (y) thereof, submerging a tapered section of the optical fiber in a photoresist and subjecting the photoresist to two-photon polymerization to form a first mask defining the shape of at least one optical window, subjecting the masked tapered section to a plurality of directional flows of metal material to form a first metal layer around the tapered section, leaving at least one lateral edge of the first mask uncovered, removing the first mask by chemical etching in such a way to uncover said at least one optical window, depositing a transparent, conformal first layer around the tapered section, said transparent, conformal first layer being made of insulating material, depositing a second metal layer around the insulating layer, submerging the tapered section in the photoresist and subjecting the photoresist to two-photon polymerization to form, at the tapered section, a second mask defining the shape of at least one conductive track (11; 11a, 11b, 11c), removing, by chemical etching, the second metal layer where the second metal layer is not covered by the second mask, and removing the second mask by chemical etching in such a way to uncover said at least one conductive track. mounting the optical fiber on a handling apparatus which may be actuated to translationally move the optical fiber along at least one translation axis (x, y, z) and rotate the optical fiber about a longitudinal axis (y) thereof, submerging a tapered section of the optical fiber in a photoresist and subjecting the photoresist to two-photon polymerization to form a first mask defining the shape of at least one optical window, subjecting the masked tapered section to a plurality of directional flows of metal material to form a first metal layer around the tapered section, leaving at least one lateral edge of the first mask uncovered, removing the first mask by chemical etching in such a way to uncover said at least one optical window, depositing a transparent, conformal first layer around the tapered section, said transparent, conformal first layer being made of insulating material, depositing a second metal layer around the insulating layer, submerging the tapered section in the photoresist and subjecting the photoresist to two-photon polymerization to form, at the tapered section, a second mask defining the shape of at least one conductive track (11; 11a, 11b, 11c), removing, by chemical etching, the second metal layer where the second metal layer is not covered by the second mask, and removing the second mask by chemical etching in such a way to uncover said at least one conductive track.
A method for rendering image data of a first color space onto a display of a second color space, said display comprising a subpixel repeating group comprising a plurality of white subpixels and a plurality of colored subpixels (106, 108, 110, 112), wherein colors of said colored subpixels (104, 106, 108, 110, 112) define the second color space and wherein the subpixels of the subpixel repeating group are arranged as follows: W G W B W R W C W R W C W G W B wherein W represents a white subpixel, G represents a green subpixel, B represents a blue subpixel, R represents a red subpixel and C represents a cyan subpixel, the steps of said method comprising: receiving input image data to be rendered on said display; converting said input image data from said first color space to image data of said second color space; subpixel rendering each individual color plane of said image data of said second color space to produce subpixel rendered image data; and sharpening each color plane of the subpixel rendered image data with a luminance signal. W G W B W R W C W R W C W G W B wherein W represents a white subpixel, G represents a green subpixel, B represents a blue subpixel, R represents a red subpixel and C represents a cyan subpixel, the steps of said method comprising: receiving input image data to be rendered on said display; converting said input image data from said first color space to image data of said second color space; subpixel rendering each individual color plane of said image data of said second color space to produce subpixel rendered image data; and sharpening each color plane of the subpixel rendered image data with a luminance signal. receiving input image data to be rendered on said display; converting said input image data from said first color space to image data of said second color space; subpixel rendering each individual color plane of said image data of said second color space to produce subpixel rendered image data; and sharpening each color plane of the subpixel rendered image data with a luminance signal.
A method, comprising: defining, by a first flow control module of a control module (360, 350), a first flow control signal based on data flow within a first flow control loop including a physical link, a first stage of queues, and a second stage of queues disposed within a transmission path between the physical link and the first stage of queues; defining, by a second flow control module of the control module (360, 350), a second flow control signal based on data flow within a second flow control loop including the second stage of queues and the physical link and excluding the first stage of queues; defining, by a third flow control module of the control module (360, 350), a third flow control signal based on data flow associated with a third flow control loop including the physical link, the third flow control loop excluding the first stage of queues and the second stage of queues; and sending, by the control module (360, 350), the defined first, second or third flow control signal. defining, by a first flow control module of a control module (360, 350), a first flow control signal based on data flow within a first flow control loop including a physical link, a first stage of queues, and a second stage of queues disposed within a transmission path between the physical link and the first stage of queues; defining, by a second flow control module of the control module (360, 350), a second flow control signal based on data flow within a second flow control loop including the second stage of queues and the physical link and excluding the first stage of queues; defining, by a third flow control module of the control module (360, 350), a third flow control signal based on data flow associated with a third flow control loop including the physical link, the third flow control loop excluding the first stage of queues and the second stage of queues; and sending, by the control module (360, 350), the defined first, second or third flow control signal.
A chip assembly for use in a microfluidic analysis system for determining and/or monitoring electrophysiological properties of ion channels in ion channel-containing structures, comprising: - a chip having an outer wall and a lower surface, the chip defining a periphery, - a carrier structure having an upper surface and comprising an aperture defining an inner wall; wherein the chip is secured to the carrier structure with a bonding material forming a liquid tight seal between the chip and the carrier structure, and wherein a hole is formed in the chip, the hole being arranged essentially coaxially with the aperture in the carrier structure, characterised in that the chip is mounted atop the carrier structure with its lower surface resting on the upper surface of the carrier structure, and wherein the bonding material is provided along the periphery of the chip along its outer wall and along the lower surface thereof in the vicinity of the chip's periphery. - a chip having an outer wall and a lower surface, the chip defining a periphery, - a carrier structure having an upper surface and comprising an aperture defining an inner wall;
A photosensitive chip package structure, comprising a substrate and a photosensitive chip mounted on the substrate, wherein a side of the photosensitive chip away from the substrate has a photosensitive area and a non-photosensitive area surrounding the photosensitive area, and the photosensitive chip is electrically connected to the substrate by using a metal wire; and further comprising: a frame, disposed on the side of the photosensitive chip away from the substrate, wherein an avoidance groove used to avoid the metal wire is disposed on a side of the frame facing the substrate, the avoidance groove extends along a side edge of the frame, and an inner wall of the avoidance groove is an arc-shaped inner wall; and a filling glue, filled in the avoidance groove, and used to wrap the metal wire and bond the frame to the non-photosensitive area of the photosensitive chip and the substrate. a frame, disposed on the side of the photosensitive chip away from the substrate, wherein an avoidance groove used to avoid the metal wire is disposed on a side of the frame facing the substrate, the avoidance groove extends along a side edge of the frame, and an inner wall of the avoidance groove is an arc-shaped inner wall; and a filling glue, filled in the avoidance groove, and used to wrap the metal wire and bond the frame to the non-photosensitive area of the photosensitive chip and the substrate.
A sensor for detecting resource usage in a dispenser, in particular in a washroom dispenser, comprising a first and a second pair of an emitter and a receiver of radiation, wherein each of the two pairs is adapted to detect the presence of a resource by receiving via the receiver radiation emitted by the emitter which has been reflected by the resource, and wherein the first pair is adapted and arranged to detect the presence of a resource at a higher resource level (310, 320, 330, 340, 350, 360, 370, 380) than the second pair; characterized in that - a control unit is provided, adapted to control the activation and deactivation of the two pairs of an emitter and a receiver of radiation; and - the sensor is adapted to detect the exchange of a resource in the dispenser, wherein in case that all pairs have detected the absence of a resource, a new detection cycle is started; and. - the control unit is adapted such that in a new detection cycle, only the pair of an emitter and a receiver of radiation is activated, which is arranged such that it will detect an absence of the resource first; and - the control unit is adapted to activate the pair of an emitter and a receiver of radiation which is arranged such that it will be the next pair to detect the absence of the resource after the previous pair has detected an absence of a resource; and - the control unit is adapted to deactivate the pair of an emitter and a receiver of radiation for the rest of the present detection cycle which has detected an absence of a resource. - a control unit is provided, adapted to control the activation and deactivation of the two pairs of an emitter and a receiver of radiation; and - the sensor is adapted to detect the exchange of a resource in the dispenser, wherein in case that all pairs have detected the absence of a resource, a new detection cycle is started; and. - the control unit is adapted such that in a new detection cycle, only the pair of an emitter and a receiver of radiation is activated, which is arranged such that it will detect an absence of the resource first; and - the control unit is adapted to activate the pair of an emitter and a receiver of radiation which is arranged such that it will be the next pair to detect the absence of the resource after the previous pair has detected an absence of a resource; and - the control unit is adapted to deactivate the pair of an emitter and a receiver of radiation for the rest of the present detection cycle which has detected an absence of a resource.
A diagnosis method for internal fault of an oil-immersed electric apparatus using a silicone oil as an insulating oil, the method comprising diagnosing an internal fault of the oil-immersed electric apparatus based on a first concentration ratio that is a concentration ratio between two gases selected from an analysis gas group consisting of hydrogen gas, methane gas, ethane gas, and ethylene gas contained in the silicone oil, and a second concentration ratio, characterised in that the second concentration ratio is a concentration ratio between two gases selected from the analysis gas group, wherein at least one of the gases selected for the second concentration ratio is not one of the gases selected for the first concentration ratio, wherein each of the first concentration ratio and the second concentration ratio are one of a concentration ratio of ethylene gas to hydrogen gas, a concentration ratio of ethane gas to hydrogen gas, a concentration ratio of ethylene gas to methane gas, or a concentration ratio of methane gas to ethane gas.
Method for applying a panel to a shower tray, which comprises the following steps a) forming a groove in the upperside of a shower tray, near an edge of the shower tray, whereby the longitudinal direction of the groove is parallel to the nearby edge and whereby the groove is provided with an at least partially flat base, a first substantially vertical wall and a second facing wall closer to the edge, comprising a substantially vertical section and an adjoining slanted section; and b) connecting a panel, which on an underside comprises at least a flat section and a bevelled section, to the shower tray by applying the underside of the panel in the groove such that the bevelled section is at least partially in contact with the slanted section of the groove. a) forming a groove in the upperside of a shower tray, near an edge of the shower tray, whereby the longitudinal direction of the groove is parallel to the nearby edge and whereby the groove is provided with an at least partially flat base, a first substantially vertical wall and a second facing wall closer to the edge, comprising a substantially vertical section and an adjoining slanted section; and b) connecting a panel, which on an underside comprises at least a flat section and a bevelled section, to the shower tray by applying the underside of the panel in the groove such that the bevelled section is at least partially in contact with the slanted section of the groove.
A carbon material for lithium ion secondary batteries, which satisfies: (i) a tap density ≥ 0.75 g/cm 3; (ii) a Raman R value ≥ 0.23 and a half width of D band Δν D < 45 cm -1, in which the D band appears in the vicinity of 1,358 cm -1 of the Raman spectrum; and (iii) 4 m 2 /g ≤ BET specific surface area, which is hereinafter abbreviated as SA ≤ 11 m 2 /g.