mhurhangee/ep-ind-claims huggingface dataset:
A flow table generating method for a software defined network, SDN, controller, the method comprising: obtaining, by a software defined network SDN controller, value-added service VAS server information reported by a VAS server and sent by a value-added service VAS server information collector, wherein the VAS server information comprises a VAS server identifier and a user data packet processing manner of a VAS server, wherein the user data packet processing manner comprises whether the VAS server modifies a 5-tuple of a user data packet, and whether the 5-tuple of the user data packet is modified with a rule, wherein whether the 5-tuple of the user data packet is modified with a rule is based on whether the 5-tuple of the user data packet before modification by the VAS server can be determined according to a 5-tuple of the user data packet after modification by the VAS server; receiving, by the SDN controller, a 5-tuple of a user data packet and service chain information that are sent by a service-based router SBR, wherein the service chain information comprises an identifier of a VAS server in the service chain; querying, by the SDN controller, the VAS server information according to the identifier of the VAS server to obtain VAS server information of the VAS server in the service chain; and generating, by the SDN controller, a flow table according to the user data packet processing manner of the VAS server in the service chain, the 5-tuple of the user data packet, and the service chain information; and sending the flow table to an SDN switch. obtaining, by a software defined network SDN controller, value-added service VAS server information reported by a VAS server and sent by a value-added service VAS server information collector, wherein the VAS server information comprises a VAS server identifier and a user data packet processing manner of a VAS server, wherein the user data packet processing manner comprises whether the VAS server modifies a 5-tuple of a user data packet, and whether the 5-tuple of the user data packet is modified with a rule, wherein whether the 5-tuple of the user data packet is modified with a rule is based on whether the 5-tuple of the user data packet before modification by the VAS server can be determined according to a 5-tuple of the user data packet after modification by the VAS server; receiving, by the SDN controller, a 5-tuple of a user data packet and service chain information that are sent by a service-based router SBR, wherein the service chain information comprises an identifier of a VAS server in the service chain; querying, by the SDN controller, the VAS server information according to the identifier of the VAS server to obtain VAS server information of the VAS server in the service chain; and generating, by the SDN controller, a flow table according to the user data packet processing manner of the VAS server in the service chain, the 5-tuple of the user data packet, and the service chain information; and sending the flow table to an SDN switch.
A method of communication at a base station, comprising: determining a parameter indicative of a maximum number of consecutive MSG1 retransmissions that a user equipment, UE, is permitted to perform; transmitting (306; 1204) the determined parameter indicative of the maximum number of consecutive MSG1 retransmissions to the UE; receiving, before a random access response, RAR, window, a MSG1 transmission from the UE; and attempting to decode a random access channel, RACH, signal from the MSG1 transmission, wherein the method comprises, if the RACH signal is not successfully decoded from the MSG1 transmission: repeating the receiving (310; 311) and attempting to decode the RACH signal for subsequent consecutive MSG1 retransmissions from the UE until the RACH signal has been successfully decoded or the maximum number of consecutive MSG1 retransmissions has been received, wherein each subsequent consecutive MSG1 retransmission is received after a corresponding RAR window, wherein attempting to decode the RACH signal comprises combining signals of two or more of the MSG1 transmission and the consecutive MSG1 retransmissions to decode a random access channel, RACH, signal, wherein the combining signals comprises non-coherently adding power of the signals. determining a parameter indicative of a maximum number of consecutive MSG1 retransmissions that a user equipment, UE, is permitted to perform; transmitting (306; 1204) the determined parameter indicative of the maximum number of consecutive MSG1 retransmissions to the UE; receiving, before a random access response, RAR, window, a MSG1 transmission from the UE; and attempting to decode a random access channel, RACH, signal from the MSG1 transmission, wherein the method comprises, if the RACH signal is not successfully decoded from the MSG1 transmission: repeating the receiving (310; 311) and attempting to decode the RACH signal for subsequent consecutive MSG1 retransmissions from the UE until the RACH signal has been successfully decoded or the maximum number of consecutive MSG1 retransmissions has been received, wherein each subsequent consecutive MSG1 retransmission is received after a corresponding RAR window, wherein attempting to decode the RACH signal comprises combining signals of two or more of the MSG1 transmission and the consecutive MSG1 retransmissions to decode a random access channel, RACH, signal, wherein the combining signals comprises non-coherently adding power of the signals. repeating the receiving (310; 311) and attempting to decode the RACH signal for subsequent consecutive MSG1 retransmissions from the UE until the RACH signal has been successfully decoded or the maximum number of consecutive MSG1 retransmissions has been received, wherein each subsequent consecutive MSG1 retransmission is received after a corresponding RAR window, wherein attempting to decode the RACH signal comprises combining signals of two or more of the MSG1 transmission and the consecutive MSG1 retransmissions to decode a random access channel, RACH, signal, wherein the combining signals comprises non-coherently adding power of the signals.
Panel structure, in which structure at least threelayer sheets (41,44,45) are fixed to each other with at least two connection members (42,43,46) and the connection members (42,43,46) are generated from one of the at least three layer sheets (41,44,45), at least part of the connection members (42,43,46) are diverged from the layer sheets (41,44,45) forming at least two openings (47, 48) through the layer sheet (41,44,45), wherefrom the connection members (42,43,46) are generated, characterized in that one layer sheet (41,44,45) is provided with at least two connection members (42,43) wherein one of these two connection members has a mechanical connection with at least one adjacent layer sheet and the other one of these two connection members has a mechanical connection with at least one non-adjacent layer sheet (41,45) and in that the connection members (42,43,46) being a part of one layer sheet (41,44,45) are provided with at least one fixing surface in order to fix the layer sheet (41,44,45) to another layer sheet (41,44,45).
A method of removing mercury from a fluid stream, comprising contacting said fluid stream with a sorbent comprising cupric sulfide, wherein said cupric sulfide is formed from direct sulfidation of basic copper carbonate, without thermal decomposition of the basic copper carbonate to an oxide, at a temperature less than 150°C; wherein a crystallite size of said cupric sulfide measured on a (0,0,6) plane is less than 100 angstroms.
Elastomeric composition for tyres for vehicles comprising at least one quantity X equal to at least 1 phr of at least one liquid polymer, one quantity Y equal to at least 1 phr of at least one resin, 100 phr of at least one solid diene elastomeric polymer, at least 30 phr of at least one reinforcing filler; wherein said composition is obtainable according to a process which comprises at least one mixing and dispersion step to give a first elastomeric composition followed by at least one reworking step, wherein the mixing and dispersion step comprises - feeding at least one mixing apparatus, comprising at least one discontinuous mixer and/or at least one continuous mixer, at least: one quantity X1 of the liquid polymer, wherein 0 ≤ X1 ≤ X, one quantity Y1 of the resin, wherein 0 ≤ Y1 ≤ Y, the solid diene elastomeric polymer, the reinforcing filler; - mixing and dispersing said components, to give said first elastomeric composition; - possibly unloading said first elastomeric composition from said mixing apparatus; and wherein the reworking step comprises - feeding, to at least one continuous mixer, said first elastomeric composition and, possibly, one quantity X2 of the liquid polymer, wherein 0 ≤ X2 ≤ X, one quantity Y2 of the resin, wherein 0 ≤ Y2 ≤ Y, wherein X1 + X2 = X and Y1 + Y2 =Y, - mixing said first elastomeric composition and dispersing therein the liquid polymer and/or the resin possibly fed in step, by means of said at least one continuous mixer, preferably by applying, to said continuous mixer, a suction pressure (Pa) less than about 150 mbar in a manner so as to obtain said elastomeric composition; and - unloading said elastomeric composition from said at least one continuous mixer. - feeding at least one mixing apparatus, comprising at least one discontinuous mixer and/or at least one continuous mixer, at least: one quantity X1 of the liquid polymer, wherein 0 ≤ X1 ≤ X, one quantity Y1 of the resin, wherein 0 ≤ Y1 ≤ Y, the solid diene elastomeric polymer, the reinforcing filler; one quantity X1 of the liquid polymer, wherein 0 ≤ X1 ≤ X, one quantity Y1 of the resin, wherein 0 ≤ Y1 ≤ Y, the solid diene elastomeric polymer, the reinforcing filler; - mixing and dispersing said components, to give said first elastomeric composition; - possibly unloading said first elastomeric composition from said mixing apparatus; and wherein the reworking step comprises - feeding, to at least one continuous mixer, said first elastomeric composition and, possibly, one quantity X2 of the liquid polymer, wherein 0 ≤ X2 ≤ X, one quantity Y2 of the resin, wherein 0 ≤ Y2 ≤ Y, wherein X1 + X2 = X and Y1 + Y2 =Y, one quantity X2 of the liquid polymer, wherein 0 ≤ X2 ≤ X, one quantity Y2 of the resin, wherein 0 ≤ Y2 ≤ Y, - mixing said first elastomeric composition and dispersing therein the liquid polymer and/or the resin possibly fed in step, by means of said at least one continuous mixer, preferably by applying, to said continuous mixer, a suction pressure (Pa) less than about 150 mbar in a manner so as to obtain said elastomeric composition; and - unloading said elastomeric composition from said at least one continuous mixer.
A process for producing a thermoformable porous web using cellulosic fibres and one or more thermoplastic materials by foam forming or foam laid-forming a mixture of the cellulosic fibres and the thermoplastic material(s) into a composite foam, and applying the foam on a wire to obtain a porous pre-form web or a porous prepreg web, characterized by selecting the cellulosic fibres from fibres of pure cellulose, such as rayon or viscose fibres, or from fibres of cellulose derivatives, such as cellulose acetate, cellulose acetate butyrate, cellulose acetate phthalate or cellulose carbamate fibres, preferably from pure cellulose fibres, or optionally from chemically modified fibres, modified e.g. by alkali treatment, esterification or silane treatment; and one thermoplastic material is lignin.
Automated washing unit of a heavy-duty vehicle having a body with side, upper, lower, front, and rear areas, and wheels, the washing unit comprising two mobile sub-units which are coupled to one another forming a gantry-shaped tandem for being moved synchronously along the heavy-duty vehicle, and wherein each mobile sub-unit has a washing module with cleaning agent discharge means (26, 27) for discharging cleaning agents on the heavy-duty vehicle, with the washing modules facing and separated from one another by a distance substantially similar to the width of the body of the heavy-duty vehicle, each mobile sub-unit comprising a main body which is attached to one of the washing modules, the washing module comprising a casing with an opening oriented towards the heavy-duty vehicle, wherein inside the casing there are arranged the cleaning agent discharge means (26, 27) for discharging cleaning agents on the heavy-duty vehicle through the opening, characterized in that inside the casing are also arranged extraction means (24, 28) for extracting and collecting the cleaning agents discharged on the heavy-duty vehicle.
A method for improving the mycotoxin binding ability of a by-product derived from a fermentative production process using yeast as the fermenting microorganism comprising the steps of: i) subjecting the fermented mash after the fermentation to an enzyme composition capable of degrading one or more fermented mash components, ii) separating the desired primary fermentation product, iii) separating the fermentation by-product having mycotoxin binding abilities, wherein said enzyme composition comprises a beta-1,3-glucanase and the fermented mash is derived from a fermentative alcohol production process and the desired primary fermentation product is ethanol.
A ball valve comprising: a first ball body assembly comprising a ball body, a first annular groove disposed in the ball body, a first annular seat disposed in the first annular groove, and a first spring disposed in the first annular groove between the ball body and the first annular seat, wherein the first spring biases the first annular seat outwardly from the ball body; a first fluid chamber (66, 68) disposed along the first annular groove between the ball body and the first annular seat, and a valve body having a fluid passage in fluid communication with the first ball body assembly, wherein the first ball body assembly is disposed inside the valve body and is configured to rotate relative to the valve body to open and close the fluid passage characterized in that the first fluid chamber (66, 68) is configured to use fluid pressure to bias the first annular seat outwardly from the ball body. a first ball body assembly comprising a ball body, a first annular groove disposed in the ball body, a first annular seat disposed in the first annular groove, and a first spring disposed in the first annular groove between the ball body and the first annular seat, wherein the first spring biases the first annular seat outwardly from the ball body; a first fluid chamber (66, 68) disposed along the first annular groove between the ball body and the first annular seat, and a valve body having a fluid passage in fluid communication with the first ball body assembly, wherein the first ball body assembly is disposed inside the valve body and is configured to rotate relative to the valve body to open and close the fluid passage characterized in that the first fluid chamber (66, 68) is configured to use fluid pressure to bias the first annular seat outwardly from the ball body.
Apparatus for forming at least one rod of the tobacco-processing industry, comprising an acceleration section for conveying a product flow composed of fibre material in conveying direction F to at least one suction rod conveyor, a channel formed in conveying direction F at the end of the acceleration section and extending at least over the width of the acceleration section, which channel is restricted on both longitudinal sides by a channel cheek (17, 18), at least one suction rod conveyor, wherein a suction tape of the suction rod conveyor restricts the channel towards the top and is driven in transport direction T, which runs transverse to conveying direction F, as well as a nozzle unit which comprises at least one nozzle projecting into the channel for applying free-flowing substances onto the fibre material stuck to the suction tape, characterised in that a divider for dividing the product flow flowing out of the acceleration section into the channel is arranged upstream of the nozzle unit in conveying direction F of the product flow within the acceleration section for each rod to be formed, wherein the divider is formed to be wedge-shaped in such a manner that the divider becomes wider in the direction of the nozzle unit so that the nozzle unit is fully covered.
A printing system comprising: a print engine to print a print job on a web of media in a print zone; a heating module to apply heat to media in a heating zone; a media handling system to move media through a media path comprising the print zone and the heating zone; and a controller to: determine when a printing operation is stopped, and when it is so determined: control the heating module to stop heating; and characterized in that the controller is further to control the media handling system to continue advancing media through the media path until an output temperature of the heating module is below a predetermined temperature. a print engine to print a print job on a web of media in a print zone; a heating module to apply heat to media in a heating zone; a media handling system to move media through a media path comprising the print zone and the heating zone; and a controller to: determine when a printing operation is stopped, and when it is so determined: control the heating module to stop heating; and characterized in that the controller is further to control the media handling system to continue advancing media through the media path until an output temperature of the heating module is below a predetermined temperature. control the heating module to stop heating; and characterized in that the controller is further to control the media handling system to continue advancing media through the media path until an output temperature of the heating module is below a predetermined temperature.
An intravascular guidewire filter system comprising a manifold having a central elongated tubular body, said central elongated tubular body having a proximal end and a distal end, an elongated flexible delivery tube having a proximal end and a distal end, said proximal end of said elongated flexible delivery tube being fixed within said distal end of said central elongated tubular body, an apertured seal within said proximal end of said central elongated tubular body, a guidewire having a proximal end and a distal end, said guidewire extending through said apertured seal, through said elongated tubular body, and through said elongated flexible delivery tube, at least one flexible preformed memory shaped distal filter being attached to said guidewire, at least one flexible preformed memory shaped proximal filter being attached to said guidewire proximal to said distal filter, characterised in that, it further comprises a flared mesh capture sleeve, and the filters (24,26) being compressible for proximal retraction by action of the flared mesh capture sleeve.
Apparatus for welding a welding stud to a substrate, having a welding gun (40, 240) which comprises a housing (51, 242) and a stud holder for the welding stud, having a gas container (70, 270) and having a gas line for conducting gas from the gas container to the stud holder, characterized in that the gas container (70, 270) is supported by the welding gun (40, 240).
A rivet element for pressing into a component which is not prepared and which is in particular not provided with an opening for the rivet element, in particular into a component of fiber composite material, comprising a rivet section which is formed at least regionally as a spike which can be dilated by means of a die button and which tapers in the direction of a tip, wherein the spike has an introduction aid for the die button at its tip, in particular a funnel-shaped introduction aid.
A high-frequency heating apparatus comprising: a heating chamber having a wall surface including metal and being configured to accommodate a heating target; a generator configured to generate high-frequency power; a radiator having a loop antenna including a plurality of loop portions (3A, 3B), and configured to radiate the high-frequency power generated by the generator to the heating chamber; and a controller configured to control a frequency of the high-frequency power generated by the generator, characterised in that the plurality of loop portions (3A, 3B) has different lengths from each other, each of the plurality of loop portions (3A, 3B) has a length equal to an integral multiple of half of a wavelength of the high-frequency power, the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in one of the plurality of loop portions (3A, 3B), so that the high-frequency power is radiated from the one of the plurality of loop portions (3A, 3B), and the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in another of the plurality of loop portions (3A, 3B), so that the high-frequency power is radiated from the another of the plurality of loop portions (3A, 3B). a heating chamber having a wall surface including metal and being configured to accommodate a heating target; a generator configured to generate high-frequency power; a radiator having a loop antenna including a plurality of loop portions (3A, 3B), and configured to radiate the high-frequency power generated by the generator to the heating chamber; and a controller configured to control a frequency of the high-frequency power generated by the generator, characterised in that the plurality of loop portions (3A, 3B) has different lengths from each other, each of the plurality of loop portions (3A, 3B) has a length equal to an integral multiple of half of a wavelength of the high-frequency power, the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in one of the plurality of loop portions (3A, 3B), so that the high-frequency power is radiated from the one of the plurality of loop portions (3A, 3B), and the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in another of the plurality of loop portions (3A, 3B), so that the high-frequency power is radiated from the another of the plurality of loop portions (3A, 3B).
Support structure for supporting wind turbine components which are to be arranged or are arranged within a wind turbine nacelle that is to be arranged or is arranged on a tower construction, wherein the support structure comprises at least two girder section structures which are connected together via at least one cross-connection structure, characterized in that the cross-connection structure comprises at least two connecting struts (7, 8) which extend diagonally between the girder section structures and intersect in an intersection region, wherein provision is made of at least one first and of at least one second connecting strut (7, 8), wherein a first connecting strut is formed with at least one passage segment, said passage segment forming a passage means for at least one second connecting strut intersecting the first connecting strut.