mhurhangee/ep-ind-claims huggingface dataset:
An access system for guaranteeing Quality of Service, QoS, comprising: an application server and an access network resource management device, wherein the application server is adapted to receive a request from a service terminal for a service with QoS requirements; request the access network resource management device for resources to establish a service connection for the service terminal; and determine whether to accept the request of the service terminal on obtaining a resource available response from the access network resource management device; the access network resource management device is adapted to record links from a user access device to an access server in a node data table according to the network topology and further record all the link resources including occupied and unoccupied resources in the links from the user access device to the access server; acquire information indicating a user access device that sent the request from the service terminal for the service with QoS requirement; search the node data table to acquire links constituting a service connection through which service data would pass from the user access device to an access server; determine whether there are link resources available for the links by checking link resources occupation information saved in a link data table; and send the resource available response to the application server when determining that there are link resources available for the links; wherein the links are saved as tree-shaped topology in the node data table; wherein ring-shaped topology of a network topology of the access network is transformed into tree-shaped topology and recorded in the node data table when initiating the node data table.
A method for replacing an exhaust aftertreatment component (112, 114, 116) of an exhaust aftertreatment system of a vehicle or vessel, the exhaust aftertreatment system being delimited by an outer casing, the exhaust aftertreatment system comprising a first sleeve containing a first exhaust aftertreatment component mounted directly in the first sleeve, the first sleeve extending in an axial direction, the first exhaust aftertreatment component being a catalyst substrate or a Diesel Particulate Filter substrate, the method comprising the steps of: S1: removing the first exhaust aftertreatment component from the first sleeve, the first sleeve thereby remaining intact in its existing position within the outer casing, S2: providing a second exhaust aftertreatment component (132, 134) being mounted in a second sleeve, the second sleeve being configured to fit within the first sleeve, and S3: mounting the second sleeve with the second exhaust aftertreatment component (132, 134) in the first sleeve by inserting the second sleeve into the first sleeve in the axial direction thereof. the exhaust aftertreatment system comprising a first sleeve containing a first exhaust aftertreatment component mounted directly in the first sleeve, the first sleeve extending in an axial direction, the first exhaust aftertreatment component being a catalyst substrate or a Diesel Particulate Filter substrate, the method comprising the steps of: S1: removing the first exhaust aftertreatment component from the first sleeve, the first sleeve thereby remaining intact in its existing position within the outer casing, S2: providing a second exhaust aftertreatment component (132, 134) being mounted in a second sleeve, the second sleeve being configured to fit within the first sleeve, and S3: mounting the second sleeve with the second exhaust aftertreatment component (132, 134) in the first sleeve by inserting the second sleeve into the first sleeve in the axial direction thereof. S1: removing the first exhaust aftertreatment component from the first sleeve, the first sleeve thereby remaining intact in its existing position within the outer casing, S2: providing a second exhaust aftertreatment component (132, 134) being mounted in a second sleeve, the second sleeve being configured to fit within the first sleeve, and S3: mounting the second sleeve with the second exhaust aftertreatment component (132, 134) in the first sleeve by inserting the second sleeve into the first sleeve in the axial direction thereof.
One or more computer-readable storage media having program instructions stored thereon to facilitate simulating machines used in industrial automation, wherein the program instructions, when executed by a computing system, direct the computing system to at least: analyze motion of a solid model of a machine to generate a motion profile of the solid model; configure an industrial controller system based on the motion profile of the solid model; after configuring the industrial controller system, execute a simulation of the machine controlled by the industrial controller system; analyze motion of the simulation of the machine as controlled by the industrial controller system; and compare the motion of the simulation of the machine to the motion profile of the solid model to determine how closely the motion of the simulation of the machine as controlled by the industrial controller system matches the motion profile of the solid model. analyze motion of a solid model of a machine to generate a motion profile of the solid model; configure an industrial controller system based on the motion profile of the solid model; after configuring the industrial controller system, execute a simulation of the machine controlled by the industrial controller system; analyze motion of the simulation of the machine as controlled by the industrial controller system; and compare the motion of the simulation of the machine to the motion profile of the solid model to determine how closely the motion of the simulation of the machine as controlled by the industrial controller system matches the motion profile of the solid model.
A check valve comprising: a valve body defining a fluid flow path and provided with a valve seat, wherein the valve body is of generally tubular configuration having an inner circumferential surface and the valve seat comprises a portion of the inner circumferential surface, a valve member located in the valve body; the valve member having a valve stop having a circumferential surface configured to seal against the valve seat, wherein one of the valve seat and the valve stop circumferential surface is tapered; and a coupling mechanism coupling the valve member to the valve body, the coupling mechanism arranged to allow the valve member to move linearly in an axial direction relative to the valve body onto and off of the valve seat and maintain a fixed rotational relationship with the valve body, characterized in that the valve stop has a plurality of holes through which a liquid can flow when the check valve is in an open configuration with the valve body and off of the valve seat.
A vacuum solar thermal panel with pipe housing for a solar absorber pipe of the type comprising at least a base portion and a retention element for said pipe, said retention element being in the form of a fork and comprising a first and a second tine (4a, 4b) protruding from the base portion, being mirrored one another, and defining an open housing space wider than a diameter of said pipe, characterized in that said tines (4a, 4b) comprise retaining edges at their tips and define an opening inlet having a fourth opening width being smaller than the diameter of said pipe, said retention element having an elastic behaviour such that, when the solar absorber pipe is pressed against the retention element in correspondence with its opening inlet, said retention element widens to let the pipe go inside the open housing space.
Coated paper for offset printing comprising at least on one side a top coating layer, said top coating layer consisting of a pigment part, the 100 parts in dry weight thereof comprising in the range of 2 - 40 parts in dry weight of a fine particulate Talcum pigment which is surface-treated and/or impregnated with an organosilane and/or organosiloxane component, a binder part of 2 - 20 parts in dry weight of binder and additives in the range of 0 - 8 parts in dry weight.
A transition mode device for use in a predictive-type sound signal codec for producing a transition mode excitation replacing an adaptive codebook excitation in a transition frame and/or at least one frame following the transition in the sound signal, comprising: an input for receiving a codebook index; and a transition mode codebook for generating a set of codevectors independent from past excitation, the transition mode codebook being responsive to the codebook index for generating, in the transition frame and/or the at least one frame following the transition, one of the codevectors of the set corresponding to said transition mode excitation; wherein the transition mode codebook comprises a codebook of glottal impulse shapes. an input for receiving a codebook index; and a transition mode codebook for generating a set of codevectors independent from past excitation, the transition mode codebook being responsive to the codebook index for generating, in the transition frame and/or the at least one frame following the transition, one of the codevectors of the set corresponding to said transition mode excitation; wherein the transition mode codebook comprises a codebook of glottal impulse shapes.
A process for protecting a metal, wood or plastics substrate exposed to fire risk from hydrocarbons, comprising coating the substrate with an intumescent composition comprising a polydimethylsiloxane of degree of polymerisation at least 300 siloxane units, said polydimethylsiloxane containing reactive hydroxyl or hydrolysable groups bonded to silicon, and a crosslinking agent containing hydrolysable groups reactive with the reactive groups of in the presence of moisture, expandable graphite and a titanate catalyst for the reaction between the reactive hydroxyl or hydrolysable groups of polydimethylsiloxane and the crosslinking agent characterized in that the composition comprises mineral fibres and also comprises at least a silica and/or clay or nanocomposite clay and further characterized in that the composition does not contain an organic polymer or an organic resin.
A method comprising: assigning, by a controller, a first transport protocol to a first path segment of an end-to-end path, and a second transport protocol to a second path segment of the end-to-end path, wherein the first transport protocol is one of a source-based transport protocol, a path-based transport protocol, and a link-based transport protocol, and wherein the second transport protocol is a different one of the source-based transport protocol, the path-based transport protocol, and the link-based transport protocol; and communicating, by a controller, at least one forward information base control signaling instruction to at least one network node on the first path segment and at least one network node on the second path segment, the at least one FIB control signaling instruction identifying the transport protocol assignments. assigning, by a controller, a first transport protocol to a first path segment of an end-to-end path, and a second transport protocol to a second path segment of the end-to-end path, wherein the first transport protocol is one of a source-based transport protocol, a path-based transport protocol, and a link-based transport protocol, and wherein the second transport protocol is a different one of the source-based transport protocol, the path-based transport protocol, and the link-based transport protocol; and communicating, by a controller, at least one forward information base control signaling instruction to at least one network node on the first path segment and at least one network node on the second path segment, the at least one FIB control signaling instruction identifying the transport protocol assignments.
A current collector comprising a biaxially oriented polyester substrate layer, a first metal layer on a side of the polyester substrate layer, and a second metal layer, wherein the first metal layer and the second metal layer are on opposing sides of the polyester substrate layer, wherein the polyester substrate layer exhibits positive thermal expansion in air at 200°C in each of the transverse direction and machine direction and wherein the thermal expansion is measured according to the method in the description, wherein the polyester substrate layer has a thickness of no more than 12 μm, wherein the first metal layer has a thickness of no more than 1000 nm, and wherein the second metal layer independently has a thickness of no more than 1000 nm.
Method for assaying nitrate and/or nitrite ions in solution using a copper electrode, said method being characterised in that it is carried out in potentiostatic mode and in that it comprises steps consisting in: i. applying a first potential to the copper electrode so as to reduce the copper oxides present at the surface of the electrode to copper metal, ii. applying a second potential to the copper electrode so as to oxidise the copper metal formed in step i to cupric ions, iii. applying a third potential to the copper electrode so as to reduce the copper oxides which may be formed in step ii, steps i and iii being carried out in a supporting electrolyte, and iv. assaying the nitrate and/or nitrite ions of a solution to be analysed by immersing the copper electrode obtained in step iii in said solution to be analysed, while applying a fourth potential to the copper electrode so as to reduce the nitrate and/or nitrite ions, the supporting electrolyte of steps i to iii as well as the solution to be analysed of step iv having a substantially neutral pH. i. applying a first potential to the copper electrode so as to reduce the copper oxides present at the surface of the electrode to copper metal, ii. applying a second potential to the copper electrode so as to oxidise the copper metal formed in step i to cupric ions, iii. applying a third potential to the copper electrode so as to reduce the copper oxides which may be formed in step ii, steps i and iii being carried out in a supporting electrolyte, and iv. assaying the nitrate and/or nitrite ions of a solution to be analysed by immersing the copper electrode obtained in step iii in said solution to be analysed, while applying a fourth potential to the copper electrode so as to reduce the nitrate and/or nitrite ions, the supporting electrolyte of steps i to iii as well as the solution to be analysed of step iv having a substantially neutral pH.
A vinyl polymer powder having an acetone-soluble component of 30% by mass or more, mass average molecular weight of the acetone-soluble component of 100,000 or more, a content of an alkali metal ion of 10ppm or less, and a volume average emulsion primary particle size (Dv) of 500 nm or more and 1 μm or less, wherein the volume average emulsion primary particle size (Dv) is measured as the emulsion particle size with the use of a sample that a vinyl polymer emulsion was diluted in deionized water and with the use of a laser diffraction scattering type particle size distribution measuring apparatus; the acetone soluble component is measured by dissolving 1 g of a vinyl polymer powder in 50 g of acetone to make a solution, and then refluxing and extracting the solution for 6 hours at 70°C; followed by centrifugation of the extracting liquid with 14, 000 rpm for 30 minutes at 4°C with the use of a centrifugal separator, and then removing the segregated acetone-soluble component by decantation, and drying an acetone insoluble component for 24 hours at 50°C in a vacuum dryer; and measuring the mass; wherein the acetone-soluble component (%) is calculated using the following formula: The acetone-soluble component = 1 − mass of the acetone insoluble component × 100 the mass average molecular weight of the acetone-soluble component is measured by obtaining a solid of the acetone-soluble component by extraction of acetone from the acetone-soluble component which has been obtained by the measurement of the above acetone-soluble component, and measuring the mass average molecular weight (Mw) of the above solid with the use of gel permeation chromatography. wherein the volume average emulsion primary particle size (Dv) is measured as the emulsion particle size with the use of a sample that a vinyl polymer emulsion was diluted in deionized water and with the use of a laser diffraction scattering type particle size distribution measuring apparatus; the acetone soluble component is measured by dissolving 1 g of a vinyl polymer powder in 50 g of acetone to make a solution, and then refluxing and extracting the solution for 6 hours at 70°C; followed by centrifugation of the extracting liquid with 14, 000 rpm for 30 minutes at 4°C with the use of a centrifugal separator, and then removing the segregated acetone-soluble component by decantation, and drying an acetone insoluble component for 24 hours at 50°C in a vacuum dryer; and measuring the mass; wherein the acetone-soluble component (%) is calculated using the following formula: The acetone-soluble component = 1 − mass of the acetone insoluble component × 100 the mass average molecular weight of the acetone-soluble component is measured by obtaining a solid of the acetone-soluble component by extraction of acetone from the acetone-soluble component which has been obtained by the measurement of the above acetone-soluble component, and measuring the mass average molecular weight (Mw) of the above solid with the use of gel permeation chromatography.
An apparatus of an enhanced Node B, eNB, configured for operating in a time division duplex, TDD, network, the apparatus comprising: a memory; and processing circuitry for dynamically adjusting an uplink/downlink, UL/DL, subframe configuration for at least one user equipment, UE,, characterized by: means for decoding a load indication and a first UL/DL subframe configuration received from a neighboring eNB; means for adapting a second UL/DL subframe configuration for the at least one UE, responsive to the received load indication and first UL/DL subframe configuration; means for encoding the adapted second UL/DL subframe configuration in downlink control information, DCI, of a physical downlink control channel, PDCCH; means for masking a cyclic redundancy check, CRC, for the PDCCH with a radio network temporary identifier, RNTI reserved for signaling UL/DL subframe configurations; and means for encoding the PDCCH for transmission to the at least one UE, wherein the memory is configured to store the adapted second UL/DL subframe configuration. a memory; and processing circuitry for dynamically adjusting an uplink/downlink, UL/DL, subframe configuration for at least one user equipment, UE,, characterized by: means for decoding a load indication and a first UL/DL subframe configuration received from a neighboring eNB; means for adapting a second UL/DL subframe configuration for the at least one UE, responsive to the received load indication and first UL/DL subframe configuration; means for encoding the adapted second UL/DL subframe configuration in downlink control information, DCI, of a physical downlink control channel, PDCCH; means for masking a cyclic redundancy check, CRC, for the PDCCH with a radio network temporary identifier, RNTI reserved for signaling UL/DL subframe configurations; and means for encoding the PDCCH for transmission to the at least one UE, wherein the memory is configured to store the adapted second UL/DL subframe configuration. means for decoding a load indication and a first UL/DL subframe configuration received from a neighboring eNB; means for adapting a second UL/DL subframe configuration for the at least one UE, responsive to the received load indication and first UL/DL subframe configuration; means for encoding the adapted second UL/DL subframe configuration in downlink control information, DCI, of a physical downlink control channel, PDCCH; means for masking a cyclic redundancy check, CRC, for the PDCCH with a radio network temporary identifier, RNTI reserved for signaling UL/DL subframe configurations; and means for encoding the PDCCH for transmission to the at least one UE, wherein the memory is configured to store the adapted second UL/DL subframe configuration.
A method, comprising: using a processor: receiving a plethysmographic waveform signal from a sensor, wherein the plethysmographic waveform signal is generally representative of a blood oxygen saturation of a patient; receiving information related to a patient parameter that may influence the plethysmographic waveform signal; determining a plethysmographic waveform variability based at least in part on the plethysmographic waveform signal; and correcting the plethysmographic waveform variability to generate a corrected variability value based on the information related to the patient parameter, wherein the information related to the patient parameter comprises at least one of:- a tissue carbon dioxide level; a tissue water fraction; information that the patient is undergoing positive end expiratory pressure ventilation.
A device for chopping fiber strand, comprising: a form including a base end having a generally circular cross section and a discharge end comprising an elongated linear edge; a strand feeding mechanism that delivers said strand to said form and conveys said strand along said form, said strand feeding mechanism including a first feed screw provided along a first side of said form and a second feed screw provided along a second opposite side of said form; the device characterized by comprising first and second grinding wheels (82, 84) that cut said strand into individual segments of desired length as said strand is conveyed along said form, said first grinding wheel being provided adjacent said first side of said form downstream from a trailing end of said first feed screw and said second grinding wheel is provided adjacent said second side of said form downstream from a trailing end of said second feed screw, said first and second grinding wheels (82, 84) being positioned adjacent said discharge end, and wherein said device further includes third and fourth feed screws, said third and fourth feed screws being provided along said form at least partially between said first and second feed screws at said discharge end. a form including a base end having a generally circular cross section and a discharge end comprising an elongated linear edge; a strand feeding mechanism that delivers said strand to said form and conveys said strand along said form, said strand feeding mechanism including a first feed screw provided along a first side of said form and a second feed screw provided along a second opposite side of said form; the device characterized by comprising first and second grinding wheels (82, 84) that cut said strand into individual segments of desired length as said strand is conveyed along said form, said first grinding wheel being provided adjacent said first side of said form downstream from a trailing end of said first feed screw and said second grinding wheel is provided adjacent said second side of said form downstream from a trailing end of said second feed screw, said first and second grinding wheels (82, 84) being positioned adjacent said discharge end, and wherein said device further includes third and fourth feed screws, said third and fourth feed screws being provided along said form at least partially between said first and second feed screws at said discharge end.