mhurhangee/patent-ind-claim-en huggingface dataset:
A data processing method, comprising: obtaining (201; 301; 401), by a network device, target information of a target beam or a target cell, wherein the target information comprises a transmission delay difference, the transmission delay difference is a difference between communication round trip delays respectively corresponding to a first location and a second location, the first location is a location corresponding to a reference point in a coverage region of the target beam or the target cell, and the second location is a location farthest from the network device in the coverage region of the target beam or the target cell; determining (202; 302; 402), by the network device based on the transmission delay difference in the target information, a first preamble format required for a random access preamble corresponding to the target beam or the target cell; determining (203; 303; 403), by the network device, first configuration information of a random access occasion from one or more types of configuration information based on the first preamble format, wherein the first configuration information is used to indicate the first preamble format and a first set of random access occasions comprised in a random access period, and an interval between random access occasions comprised in the first set is greater than or equal to a preamble length corresponding to the first preamble format; and generating (204; 304; 404), by the network device, a corresponding first configuration index based on the first configuration information. obtaining (201; 301; 401), by a network device, target information of a target beam or a target cell, wherein the target information comprises a transmission delay difference, the transmission delay difference is a difference between communication round trip delays respectively corresponding to a first location and a second location, the first location is a location corresponding to a reference point in a coverage region of the target beam or the target cell, and the second location is a location farthest from the network device in the coverage region of the target beam or the target cell; determining (202; 302; 402), by the network device based on the transmission delay difference in the target information, a first preamble format required for a random access preamble corresponding to the target beam or the target cell; determining (203; 303; 403), by the network device, first configuration information of a random access occasion from one or more types of configuration information based on the first preamble format, wherein the first configuration information is used to indicate the first preamble format and a first set of random access occasions comprised in a random access period, and an interval between random access occasions comprised in the first set is greater than or equal to a preamble length corresponding to the first preamble format; and generating (204; 304; 404), by the network device, a corresponding first configuration index based on the first configuration information.
A method of fragmenting a discrete waste product item or a combination of discrete waste product items, the waste product items comprising bottles comprising polymer, laminated articles, foodstuffs, or household or municipal waste, the method comprising the steps of: (a) introducing said discrete waste product item or combination of discrete waste product items into a pressure vessel, (b) subjecting said item or items to an atmosphere of superheated steam in the vessel of at least 0.5 bar above atmospheric pressure, (c) subsequently decompressing the vessel to achieve a pressure reduction of at least 0.5 bar in at most 5 seconds, and (d) repeating steps (b) and (c) to effect fragmentation of said waste product item or combination of waste product items. (a) introducing said discrete waste product item or combination of discrete waste product items into a pressure vessel, (b) subjecting said item or items to an atmosphere of superheated steam in the vessel of at least 0.5 bar above atmospheric pressure, (c) subsequently decompressing the vessel to achieve a pressure reduction of at least 0.5 bar in at most 5 seconds, and (d) repeating steps (b) and (c) to effect fragmentation of said waste product item or combination of waste product items.
A dual mode current collector , comprising: a mounting frame for attachment to a vehicle, the mounting frame comprising a plurality of legs and a pivot shaft extending between the plurality of legs along a pivot axis (A); a first current collector , comprising: a first housing pivotally connected to the pivot shaft of the mounting frame ; a first shoe arm connected to the first housing ; and a first shoe attached to the first shoe arm , the first shoe having at least one conductor surface configured to engage a top side of a first conductive body ; a second current collector , comprising: a second housing pivotally connected to the pivot shaft of the mounting frame ; a second shoe arm connected to the second housing ; and a second shoe attached to the second shoe arm , the second shoe having at least one conductor surface configured to engage an underside of a second conductive body ; a first actuator connected to the mounting frame and to the first current collector , the first actuator configured to rotate the first current collector about the pivot axis (A); and a second actuator connected to the mounting frame and to the second current collector , the second actuator configured to rotate the second current collector about the pivot axis (A). a mounting frame for attachment to a vehicle, the mounting frame comprising a plurality of legs and a pivot shaft extending between the plurality of legs along a pivot axis (A); a first current collector , comprising: a first housing pivotally connected to the pivot shaft of the mounting frame ; a first shoe arm connected to the first housing ; and a first shoe attached to the first shoe arm , the first shoe having at least one conductor surface configured to engage a top side of a first conductive body ; a first housing pivotally connected to the pivot shaft of the mounting frame ; a first shoe arm connected to the first housing ; and a first shoe attached to the first shoe arm , the first shoe having at least one conductor surface configured to engage a top side of a first conductive body ; a second current collector , comprising: a second housing pivotally connected to the pivot shaft of the mounting frame ; a second shoe arm connected to the second housing ; and a second shoe attached to the second shoe arm , the second shoe having at least one conductor surface configured to engage an underside of a second conductive body ; a second housing pivotally connected to the pivot shaft of the mounting frame ; a second shoe arm connected to the second housing ; and a second shoe attached to the second shoe arm , the second shoe having at least one conductor surface configured to engage an underside of a second conductive body ; a first actuator connected to the mounting frame and to the first current collector , the first actuator configured to rotate the first current collector about the pivot axis (A); and a second actuator connected to the mounting frame and to the second current collector , the second actuator configured to rotate the second current collector about the pivot axis (A).
Protection pad for coils, comprising: - a core and - a magnet , the core having rubber as material, characterized in that the core has a guide , in which the magnet is arranged and along which the magnet can be moved, and the magnet is arranged in the interior of the core . - a core and - a magnet ,
A method for offshore treatment of drill cuttings, comprising: pneumatically conveying contaminated drill cuttings into a first pressurized vessel (20; 30; 53a) having a lower conical section (20c; 30c) structured to achieve mass flow of the contaminated drill cuttings; transferring the contaminated drill cuttings to a reactor unit (40; 57) by applying a compressed gas to the first pressurized vessel whereby the contaminated drill cuttings flow out of the pressurized vessel into the reactor unit by positive pressure; applying heat to the contaminated drill cuttings in the reactor unit so as to vaporize contaminants from the contaminated drill cuttings; removing the vaporized contaminants from the reactor unit; transferring the de-contaminated drill cuttings from the reactor unit to a cuttings re-injection system, combining a fluid with the de-contaminated drill cuttings to produce a slurry, classifying the slurry with a classifier , the classifying comprising determining at least one of a group consisting of a density of the slurry and a viscosity of the slurry and a conductivity of the slurry and a particle size range of the slurry, and re-injecting the slurry comprising the de-contaminated drill cuttings into a well. pneumatically conveying contaminated drill cuttings into a first pressurized vessel (20; 30; 53a) having a lower conical section (20c; 30c) structured to achieve mass flow of the contaminated drill cuttings; transferring the contaminated drill cuttings to a reactor unit (40; 57) by applying a compressed gas to the first pressurized vessel whereby the contaminated drill cuttings flow out of the pressurized vessel into the reactor unit by positive pressure; applying heat to the contaminated drill cuttings in the reactor unit so as to vaporize contaminants from the contaminated drill cuttings; removing the vaporized contaminants from the reactor unit; transferring the de-contaminated drill cuttings from the reactor unit to a cuttings re-injection system, combining a fluid with the de-contaminated drill cuttings to produce a slurry, classifying the slurry with a classifier , the classifying comprising determining at least one of a group consisting of a density of the slurry and a viscosity of the slurry and a conductivity of the slurry and a particle size range of the slurry, and re-injecting the slurry comprising the de-contaminated drill cuttings into a well. combining a fluid with the de-contaminated drill cuttings to produce a slurry, classifying the slurry with a classifier , the classifying comprising determining at least one of a group consisting of a density of the slurry and a viscosity of the slurry and a conductivity of the slurry and a particle size range of the slurry, and re-injecting the slurry comprising the de-contaminated drill cuttings into a well.
A host network accelerator comprising: a physical network interface to connect to a switch fabric comprising a plurality of switches that provide connectionless packet-based switching for packets through a physical network ; an input/output, I/O, bus interface to connect to an I/O bus of a server providing an operating environment executing one or more virtual machines associated with one or more virtual networks; and a hardware-based virtual router positioned on a data path between the physical network interface and the I/O bus interface, the virtual router configured to apply routing information of the virtual networks to route packets between the virtual machines executing on the server and virtual machines executing on one or more remote servers coupled to the physical network, wherein the virtual router is configured to receive outbound packets from the virtual machines by the I/O bus and construct outbound tunnel packets in accordance with an overlay network extending across the switch fabric, wherein the outbound tunnel packets encapsulate the outbound packets, and wherein the virtual router is configured to receive inbound tunnel packets from the switch fabric by the physical network interface, extract inner packets encapsulated within the inbound tunnel packets and route the inner packets to the virtual machines by the I/O bus in accordance with routing information for the virtual networks. a physical network interface to connect to a switch fabric comprising a plurality of switches that provide connectionless packet-based switching for packets through a physical network ; an input/output, I/O, bus interface to connect to an I/O bus of a server providing an operating environment executing one or more virtual machines associated with one or more virtual networks; and a hardware-based virtual router positioned on a data path between the physical network interface and the I/O bus interface, the virtual router configured to apply routing information of the virtual networks to route packets between the virtual machines executing on the server and virtual machines executing on one or more remote servers coupled to the physical network, wherein the virtual router is configured to receive outbound packets from the virtual machines by the I/O bus and construct outbound tunnel packets in accordance with an overlay network extending across the switch fabric, wherein the outbound tunnel packets encapsulate the outbound packets, and wherein the virtual router is configured to receive inbound tunnel packets from the switch fabric by the physical network interface, extract inner packets encapsulated within the inbound tunnel packets and route the inner packets to the virtual machines by the I/O bus in accordance with routing information for the virtual networks.
A quick disconnect coupling , comprising: a tube including a retention shoulder , wherein the retention shoulder is offset from an end of the tube , and the tube includes an outer surface extending between the end of the tube and the retention shoulder ; a swivel rotatably disposed on the tube and retained on the tube by the retention shoulder , the swivel including at least one tab projecting outwardly of the retention shoulder ; an adapter defining a bore for receiving the tube , the adapter including an internal flange dimensioned to allow passage of the retention shoulder and selective passage of the at least one tab depending on a rotational orientation of the swivel , wherein in a first rotational orientation of the swivel relative to the adapter the internal flange allows passage of the at least one tab , and wherein upon passage of the at least one tab the swivel is rotatable relative to the adapter to a second rotational orientation in which the swivel and the adapter are engaged together, wherein the retention shoulder of the tube is disposed inside of the adapter ; characterised in that the quick disconnect coupling further comprises: a structure defining a port , wherein the adapter is threaded into the structure ; and wherein: the end of the tube and at least part of the outer surface of the tube are disposed inside the structure beyond the adapter . a tube including a retention shoulder , wherein the retention shoulder is offset from an end of the tube , and the tube includes an outer surface extending between the end of the tube and the retention shoulder ; a swivel rotatably disposed on the tube and retained on the tube by the retention shoulder , the swivel including at least one tab projecting outwardly of the retention shoulder ; an adapter defining a bore for receiving the tube , the adapter including an internal flange dimensioned to allow passage of the retention shoulder and selective passage of the at least one tab depending on a rotational orientation of the swivel , wherein in a first rotational orientation of the swivel relative to the adapter the internal flange allows passage of the at least one tab , and wherein upon passage of the at least one tab the swivel is rotatable relative to the adapter to a second rotational orientation in which the swivel and the adapter are engaged together, wherein the retention shoulder of the tube is disposed inside of the adapter ; characterised in that the quick disconnect coupling further comprises: a structure defining a port , wherein the adapter is threaded into the structure ; and wherein: the end of the tube and at least part of the outer surface of the tube are disposed inside the structure beyond the adapter .
An ultrafine bubble generating method, comprising: a pre-processing step of performing a predetermined pre-processing on a liquid (W); and a generating step of generating ultrafine bubbles smaller than 1.0 μm in diameter by causing a heating element , which is provided in the liquid (W) on which the pre-processing has been performed, to generate heat to generate film boiling on an interface between the liquid (W) and the heating element , and wherein the pre-processing step includes first processing for removing an impurity from the liquid (W), wherein the first processing includes processing for removing an inorganic ion by using a cation exchange resin, and the first processing includes processing for removing a negative ion by using an anion exchange resin, wherein the pre-processing step includes second processing for degassing the liquid after the first processing is performed thereon, and third processing for dissolving a predetermined gas into the liquid after the second processing is performed thereon. a pre-processing step of performing a predetermined pre-processing on a liquid (W); and a generating step of generating ultrafine bubbles smaller than 1.0 μm in diameter by causing a heating element , which is provided in the liquid (W) on which the pre-processing has been performed, to generate heat to generate film boiling on an interface between the liquid (W) and the heating element , and wherein the pre-processing step includes first processing for removing an impurity from the liquid (W), wherein the first processing includes processing for removing an inorganic ion by using a cation exchange resin, and the first processing includes processing for removing a negative ion by using an anion exchange resin, wherein the pre-processing step includes second processing for degassing the liquid after the first processing is performed thereon, and third processing for dissolving a predetermined gas into the liquid after the second processing is performed thereon.
A method of scheduling chunks of traffic for a streaming service in a wireless communication system, the method comprising: receiving , by a user equipment, UE, from an evolved node B, eNB, control information indicating an occurrence of congestion in the wireless communication system and indicating the UE to switch on an available bit rate bearer mode, ABR mode, supporting chunk-based scheduling; switching , by the UE, to the ABR mode; generating , by the UE, ABR scheduling parameters including a requested chunk identifier, a chunk size and a chunk playing time; transmitting , by the UE, to the eNB, an ABR schedule request message including the generated ABR scheduling parameters to request the chunk-based scheduling of at least one chunk of the traffic using at least one ABR bearer supporting the chunk-based scheduling; and receiving , by the UE, from the eNB, the at least one chunk of the traffic scheduled through the at least one ABR bearer based on the generated ABR scheduling parameters. receiving , by a user equipment, UE, from an evolved node B, eNB, control information indicating an occurrence of congestion in the wireless communication system and indicating the UE to switch on an available bit rate bearer mode, ABR mode, supporting chunk-based scheduling; switching , by the UE, to the ABR mode; generating , by the UE, ABR scheduling parameters including a requested chunk identifier, a chunk size and a chunk playing time; transmitting , by the UE, to the eNB, an ABR schedule request message including the generated ABR scheduling parameters to request the chunk-based scheduling of at least one chunk of the traffic using at least one ABR bearer supporting the chunk-based scheduling; and receiving , by the UE, from the eNB, the at least one chunk of the traffic scheduled through the at least one ABR bearer based on the generated ABR scheduling parameters.
A water-based ink comprising a colorant, polyester resin particles and modified polyolefin resin particles, in which the polyester resin particles are constituted of a resin comprising an amorphous polyester having a glass transition temperature of not lower than 40°C and not higher than 100°C, and a mass ratio of the polyester resin particles to the modified polyolefin resin particles (polyester resin particles/modified polyolefin resin particles) is not less than 10/90 and not more than 90/10.
A method for producing a live aquaculture feed, comprising: providing a plurality of cysts having a catalyst on a surface thereof; and incubating the cysts in a liquid medium to hatch a portion of the cysts and release a plurality of live food organisms; and characterised by : reacting the catalyst on the surface of the cysts with a gas-producing reagent to generate a plurality of bubbles that cause unhatched cysts and cyst shells to surface; and separating the live food organisms from the unhatched cysts and the cyst shells that surface. providing a plurality of cysts having a catalyst on a surface thereof; and incubating the cysts in a liquid medium to hatch a portion of the cysts and release a plurality of live food organisms; reacting the catalyst on the surface of the cysts with a gas-producing reagent to generate a plurality of bubbles that cause unhatched cysts and cyst shells to surface; and separating the live food organisms from the unhatched cysts and the cyst shells that surface.