mhurhangee/ep-ind-claims huggingface dataset:
A method for data transmission, comprising: determining, by a terminal, a correspondence between bearer types and user-plane configurations; receiving, by the terminal, bearer type indication information indicated by a network side, the bearer type indication information carrying a bearer type identifier; determining, by the terminal, the user-plane configuration corresponding to a bearer, according to the bearer type identifier carried in the bearer type indication information and the correspondence between the bearer types and the user-plane configurations; and performing, by the terminal, data transmission according to the determined user-plane configuration, wherein the user-plane configurations comprise a user-plane function configuration and/or a user plane parameter configuration; or the user-plane configurations comprise function division manners for a user-plane function divided between a centralized processing node and a distributed processing node. determining, by a terminal, a correspondence between bearer types and user-plane configurations; receiving, by the terminal, bearer type indication information indicated by a network side, the bearer type indication information carrying a bearer type identifier; determining, by the terminal, the user-plane configuration corresponding to a bearer, according to the bearer type identifier carried in the bearer type indication information and the correspondence between the bearer types and the user-plane configurations; and performing, by the terminal, data transmission according to the determined user-plane configuration, wherein the user-plane configurations comprise a user-plane function configuration and/or a user plane parameter configuration; or the user-plane configurations comprise function division manners for a user-plane function divided between a centralized processing node and a distributed processing node.
An article, comprising a first additively manufactured metal portion; a second additively manufactured metal portion coupled to the first additively manufactured metal portion at a welded joint; and characterised by a resistive heating material disposed within an interior of the welded joint, the resistive heating material comprising a different material than the first additively manufactured metal portion and the second additively manufactured metal portion. a first additively manufactured metal portion; a second additively manufactured metal portion coupled to the first additively manufactured metal portion at a welded joint; and characterised by a resistive heating material disposed within an interior of the welded joint, the resistive heating material comprising a different material than the first additively manufactured metal portion and the second additively manufactured metal portion.
A method of making a medical implant comprising: a) providing a polymeric material, wherein the polymeric material is ultra-high molecular weight polyethylene (UHMWPE); b) consolidating the polymeric material; c) irradiating the consolidated polymeric material with ionizing radiation, thereby forming a consolidated and cross-linked polymeric material; d) machining the consolidated and cross-linked polymeric material, thereby forming a medical implant; e) doping the medical implant with an antioxidant by diffusion, wherein the antioxidant is vitamin E or α-tocopherol, thereby forming an antioxidant-doped cross-linked medical implant; and f) annealing the antioxidant-doped cross-linked medical implant in a liquid environment. a) providing a polymeric material, wherein the polymeric material is ultra-high molecular weight polyethylene (UHMWPE); b) consolidating the polymeric material; c) irradiating the consolidated polymeric material with ionizing radiation, thereby forming a consolidated and cross-linked polymeric material; d) machining the consolidated and cross-linked polymeric material, thereby forming a medical implant; e) doping the medical implant with an antioxidant by diffusion, wherein the antioxidant is vitamin E or α-tocopherol, thereby forming an antioxidant-doped cross-linked medical implant; and f) annealing the antioxidant-doped cross-linked medical implant in a liquid environment.
A power management system comprising: a variable speed generator that provides a voltage output to a bus, wherein the bus is adapted to be connected to a load and an energy storage device; and a generator controller that controls the speed of the variable speed generator, wherein the generator controller monitors a charge level of the energy storage device, wherein the generator controller remotely displays information relating to operation of the power management system, wherein the generator controller provides information relating to operation of the power management system over a network, wherein the generator controller determines whether to operate the variable speed generator based on the monitored charge level of the energy storage device; characterized in that the generator controller operates in a lower power state once the generator controller determines that the variable speed generator does not need to operate based on the monitored charge level of the energy storage device. a variable speed generator that provides a voltage output to a bus, wherein the bus is adapted to be connected to a load and an energy storage device; and a generator controller that controls the speed of the variable speed generator, wherein the generator controller monitors a charge level of the energy storage device, wherein the generator controller remotely displays information relating to operation of the power management system, wherein the generator controller provides information relating to operation of the power management system over a network, wherein the generator controller determines whether to operate the variable speed generator based on the monitored charge level of the energy storage device; characterized in that the generator controller operates in a lower power state once the generator controller determines that the variable speed generator does not need to operate based on the monitored charge level of the energy storage device.
Method for applying a decoration and a surface structure to a carrier material, comprising the following steps: providing a carrier material or a carrier material, at least one decorative paper and at least one overlay; printing the carrier material or the at least one decorative paper with a decoration; producing a file for the surface structure, containing the digital data of the surface structure of the decoration, from the digital image data of the decoration; applying at least one layer of resin to the printed carrier material or to at least one overlay, the distribution of the resin being dictated by the digital data of the file for the surface structure and thus being dependent on the imprinted decoration; pressing the at least one resin layer with the carrier material using a structured press platen, or pressing a carrier material, the at least one decorative paper and the at least one overlay bearing the at least one resin layer using a structured press platen, the structure of the press platen being dictated by the digital data of the file for the surface structure and thus being dependent on the printed decoration; where a surface structure is formed on the carrier material that is synchronous to the applied decoration; where a part of the structure height of the surface structure results from the application of the at least one resin layer; characterized in that the structuring of the carrier material is generated in the at least one resin layer and extends into the carrier material; and in that, at least in portions, a surface structure having a structure depth of more than 200 μm is formed. providing a carrier material or a carrier material, at least one decorative paper and at least one overlay; printing the carrier material or the at least one decorative paper with a decoration; producing a file for the surface structure, containing the digital data of the surface structure of the decoration, from the digital image data of the decoration; applying at least one layer of resin to the printed carrier material or to at least one overlay, the distribution of the resin being dictated by the digital data of the file for the surface structure and thus being dependent on the imprinted decoration; pressing the at least one resin layer with the carrier material using a structured press platen, or pressing a carrier material, the at least one decorative paper and the at least one overlay bearing the at least one resin layer using a structured press platen, the structure of the press platen being dictated by the digital data of the file for the surface structure and thus being dependent on the printed decoration; where a surface structure is formed on the carrier material that is synchronous to the applied decoration; where a part of the structure height of the surface structure results from the application of the at least one resin layer; characterized in that the structuring of the carrier material is generated in the at least one resin layer and extends into the carrier material; and in that, at least in portions, a surface structure having a structure depth of more than 200 μm is formed.
An aquaculture net for seawater made of a copper alloy material comprising 25% to 40% by weight of zinc (Zn), 0.5% to 10% by weight of manganese (Mn), 0.1% to 5% by weight of nickel (Ni), and the remainder of copper (Cu).
An apparatus for determining an index of refraction of a material, the apparatus comprising: a tomography system comprising a light source to generate a beam of light; an optical system configured to focus the light beam within the material; and the tomography system configured to determine the location of the focal point; and a processor comprising a tangible medium coupled to the tomography system and configured to receive data from the tomography system, wherein the tangible medium embodies instructions to: determine an index of refraction of the material in response to a location of a focal point of the beam, the apparatus further comprising: a pulsed laser to generate a pulsed laser beam to incise the material; and an optical delivery system coupled to the laser beam, the tomography system, and the processor, wherein the tangible medium comprises instructions to determine a treatment profile in response to the index of refraction. a tomography system comprising a light source to generate a beam of light; an optical system configured to focus the light beam within the material; and the tomography system configured to determine the location of the focal point; and a processor comprising a tangible medium coupled to the tomography system and configured to receive data from the tomography system, wherein the tangible medium embodies instructions to: determine an index of refraction of the material in response to a location of a focal point of the beam, the apparatus further comprising: a pulsed laser to generate a pulsed laser beam to incise the material; and an optical delivery system coupled to the laser beam, the tomography system, and the processor, wherein the tangible medium comprises instructions to determine a treatment profile in response to the index of refraction. a pulsed laser to generate a pulsed laser beam to incise the material; and an optical delivery system coupled to the laser beam, the tomography system, and the processor, wherein the tangible medium comprises instructions to determine a treatment profile in response to the index of refraction.
A method comprising: emitting, by an emitter of a device, electromagnetic, EM, radiation at a single modulation frequency and in a structured light pattern toward an object; capturing, by a ToF sensor on the device, a first image based on returned radiation wherein the returned radiation is at least a portion of the emitted EM radiation after said at least a portion of the emitted EM radiation has been reflected by the object located a distance from the device; computing, by the device, a set of aliased phase delay distances between the device and the object using the first image; computing, by the device, a stereoscopic distance between the device and the object using the first image, being a captured image frame detected by the ToF sensor which changes and adjusts as external objects shift in relative position to the ToF sensor, and a stored image frame, being not a live image frame and remaining unchanged, the stored image frame comprising a version of the structured light pattern, wherein the stored image frame is a depiction of the EM radiation as emitted from the emitter; and determining, by the device, a distance between the device and the object by de-aliasing the set of aliased phase delay distances using the computed stereoscopic distance. emitting, by an emitter of a device, electromagnetic, EM, radiation at a single modulation frequency and in a structured light pattern toward an object; capturing, by a ToF sensor on the device, a first image based on returned radiation wherein the returned radiation is at least a portion of the emitted EM radiation after said at least a portion of the emitted EM radiation has been reflected by the object located a distance from the device; computing, by the device, a set of aliased phase delay distances between the device and the object using the first image; computing, by the device, a stereoscopic distance between the device and the object using the first image, being a captured image frame detected by the ToF sensor which changes and adjusts as external objects shift in relative position to the ToF sensor, and a stored image frame, being not a live image frame and remaining unchanged, the stored image frame comprising a version of the structured light pattern, wherein the stored image frame is a depiction of the EM radiation as emitted from the emitter; and determining, by the device, a distance between the device and the object by de-aliasing the set of aliased phase delay distances using the computed stereoscopic distance.
A graphical user interface redrawing method, comprising steps of: in response to a content update of a View in the graphical user interface, uploading a corresponding invalidate data to a HashMap; determining whether a View Group to which the View belongs has saved any invalidate data in the HashMap; in response to having any saved invalidate data, merging the uploaded invalidate data and the saved invalidate data that belong to the same View Group in the same vertical sync, VSYNC, drawing period and saving the merged invalidate data to the HashMap; in response to a case that the View Group to which the View belongs has not saved any invalidate data in the HashMap, directly saving the uploaded invalidate data to the HashMap; sending to a user interface, UI, thread a message for delaying execution of an invalidate instruction; reading all the invalidate data from the HashMap and emptying the HashMap after a delay time interval of the message is reached, wherein the delay time interval is smaller than a time interval of a VSYNC signal; and executing the invalidate instruction according to the read invalidate data. in response to a content update of a View in the graphical user interface, uploading a corresponding invalidate data to a HashMap; determining whether a View Group to which the View belongs has saved any invalidate data in the HashMap; in response to having any saved invalidate data, merging the uploaded invalidate data and the saved invalidate data that belong to the same View Group in the same vertical sync, VSYNC, drawing period and saving the merged invalidate data to the HashMap; in response to a case that the View Group to which the View belongs has not saved any invalidate data in the HashMap, directly saving the uploaded invalidate data to the HashMap; sending to a user interface, UI, thread a message for delaying execution of an invalidate instruction; reading all the invalidate data from the HashMap and emptying the HashMap after a delay time interval of the message is reached, wherein the delay time interval is smaller than a time interval of a VSYNC signal; and executing the invalidate instruction according to the read invalidate data.
Method for material and thermal insulating of a molten steel located in a container, characterised in that only one single layer of 8-20 mm of molten calcium aluminate is used on the molten steel, wherein the surface of the layer of calcium aluminate floating on the molten steel is covered by a steel cover at a distance interval of at least 200 mm, of which the side facing the molten steel is coated with a ceramic refractory material, said cover covering at least 60-80 % of the surface, whereby the container is a distributor, and wherein the layer of calcium aluminate is applied as a quantity of separate calcium oxide constituents on the one hand and aluminium oxide constituents on the other hand and then melted, wherein the calcium oxide constituents are formed exclusively as CaO and the aluminium oxide are formed exclusively as Al 2 O 3 and the ratio is 1 to 5 to 5 to 1, and an exothermic reaction to the calcium aluminate takes place.
A method in a first radio network node providing coverage for a first cell of a wireless communication system, the method comprising: - receiving, from at least one second radio network node, first statistical information related at least to one or more first path losses PL 1-2 from said first radio network node to at least one second user equipment, respectively, in at least one second neighbouring cell being covered by said at least one second radio network node; - determining a first transmission power level P 1 to be used for a downlink transmission to at least one first user equipment in said first cell based on said first statistical information; and - transmitting to said at least one first user equipment by utilization of said first transmission power level P 1; wherein said at least one second user equipment includes at least one second cell edge user equipment being located in a vicinity of an edge of said second cell; wherein said first radio network node communicates with said at least one first user equipment by use of second cell edge transmission resources being allocated by said second cell for said at least one second cell edge user equipment. characterised in that, said first statistical information includes a first average path loss estimation μ PL 1-2 and a first estimation of a standard deviation σ PL 1 - 2 for said one or more first path losses PL 1-2, wherein said first average path loss estimation μ PL 1-2 and said first estimation of standard deviation σ PL 1 - 2 are calculated based on said first path losses PL 1-2. - receiving, from at least one second radio network node, first statistical information related at least to one or more first path losses PL 1-2 from said first radio network node to at least one second user equipment, respectively, in at least one second neighbouring cell being covered by said at least one second radio network node; - determining a first transmission power level P 1 to be used for a downlink transmission to at least one first user equipment in said first cell based on said first statistical information; and - transmitting to said at least one first user equipment by utilization of said first transmission power level P 1; wherein said at least one second user equipment includes at least one second cell edge user equipment being located in a vicinity of an edge of said second cell; wherein said first radio network node communicates with said at least one first user equipment by use of second cell edge transmission resources being allocated by said second cell for said at least one second cell edge user equipment. characterised in that, said first statistical information includes a first average path loss estimation μ PL 1-2 and a first estimation of a standard deviation σ PL 1 - 2 for said one or more first path losses PL 1-2, wherein said first average path loss estimation μ PL 1-2 and said first estimation of standard deviation σ PL 1 - 2 are calculated based on said first path losses PL 1-2.
Use of a compound of formula Ia wherein R 1 and R 3, independently of each other, stand for a group of the formula wherein M stands for hydrogen, one equivalent of a mono- or divalent metal ion, or an optionally organic substituted ammonium ion, R 2 and R 4 independently of each other, stand for -NHCH 2 -CH 2 OH, -N(CH 2 CH 2 OH) 2, anilino, or morpholino, and X stands for OH or for -NHCH 2 CH 2 OH, -N(CH 2 CH 2 OH) 2, anilino, or morpholino, as brightener in paper coating compositions. R 1 and R 3, independently of each other, stand for a group of the formula wherein M stands for hydrogen, one equivalent of a mono- or divalent metal ion, or an optionally organic substituted ammonium ion, R 2 and R 4 independently of each other, stand for -NHCH 2 -CH 2 OH, -N(CH 2 CH 2 OH) 2, anilino, or morpholino, and X stands for OH or for -NHCH 2 CH 2 OH, -N(CH 2 CH 2 OH) 2, anilino, or morpholino, M stands for hydrogen, one equivalent of a mono- or divalent metal ion, or an optionally organic substituted ammonium ion, R 2 and R 4 independently of each other, stand for -NHCH 2 -CH 2 OH, -N(CH 2 CH 2 OH) 2, anilino, or morpholino, and X stands for OH or for -NHCH 2 CH 2 OH, -N(CH 2 CH 2 OH) 2, anilino, or morpholino,
A polymer electrolyte with a multi-layer structure for the all-solid battery, comprising: A first polymer electrolyte layer having a molar ratio of EO: Li of poly (ethylene oxide) -based polymer and lithium salt of 1: 1 to 7: 1; and A second polymer electrolyte layer having a molar ratio of EO: Li of poly (ethylene oxide) -based polymer and lithium salt of 8: 1 to 30: 1. A first polymer electrolyte layer having a molar ratio of EO: Li of poly (ethylene oxide) -based polymer and lithium salt of 1: 1 to 7: 1; and A second polymer electrolyte layer having a molar ratio of EO: Li of poly (ethylene oxide) -based polymer and lithium salt of 8: 1 to 30: 1.