mhurhangee/ep-ind-claims huggingface dataset:
A method of allocating resources in a mobile telecommunications system, the system comprising a base station configured to communicate via a wireless interface with one or more terminals and one or more infrastructure nodes configured to communicate via the wireless interface with the one or more terminals, wherein resources of the wireless interface are allocated for successive periods of time, the method comprising: obtaining measurements wherein a measurement relates to a link between a first terminal of the one or more terminals and one of the one or more infrastructure nodes; identifying the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications by obtaining one or both of: a delay-sensitive terminal indicator associated with the first terminal; a delay-sensitive infrastructure node indicator associated with the one or more infrastructure nodes and identifying the communications as delay sensitive communications based on the obtained one or both of the delay-sensitive terminal indicator and the delay-sensitive infrastructure node indicator; identifying, based on the obtained measurements and on an identification of the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications, resources to allocate for the first terminal to communicate with one or more of the infrastructure nodes wherein the identified resources are selected from two or more of the periods of time; and allocating the identified resources for the first terminal to communicate with the one or more of the infrastructure nodes during the two or more periods of time. obtaining measurements wherein a measurement relates to a link between a first terminal of the one or more terminals and one of the one or more infrastructure nodes; identifying the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications by obtaining one or both of: a delay-sensitive terminal indicator associated with the first terminal; a delay-sensitive infrastructure node indicator associated with the one or more infrastructure nodes and identifying the communications as delay sensitive communications based on the obtained one or both of the delay-sensitive terminal indicator and the delay-sensitive infrastructure node indicator; identifying, based on the obtained measurements and on an identification of the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications, resources to allocate for the first terminal to communicate with one or more of the infrastructure nodes wherein the identified resources are selected from two or more of the periods of time; and allocating the identified resources for the first terminal to communicate with the one or more of the infrastructure nodes during the two or more periods of time.
A lithium-cobalt based complex oxide represented by Formula 1 below comprising lithium, cobalt and manganese, wherein the lithium-cobalt based complex oxide maintains a crystal structure of a single O3 phase at a state of charge of 50% or more based on theoretical capacity: Li x Co 1-y-z Mn y A z O 2 wherein 0.95≤x≤1.15, 0<y≤0.3 and 0<z≤0.2; and A is Mg. wherein 0.95≤x≤1.15, 0<y≤0.3 and 0<z≤0.2; and A is Mg.
A non-therapeutic method for producing anti-idiotypic antibodies comprising: (a) co-administering to a non-human animal a first antibody having a murine IgG2a isotype; and a second antibody that targets B cells and has a murine IgG2a isotype; wherein the first and second antibodies have different binding specificities; wherein said second antibody binds a B cell surface marker selected from the group consisting of CD19, CD20, CD21, CD22, CD40, CD45, IgM and IgD; and (b) isolating the anti-idiotypic antibodies which specifically bind to the first antibody in step (a). (a) co-administering to a non-human animal a first antibody having a murine IgG2a isotype; and a second antibody that targets B cells and has a murine IgG2a isotype; wherein the first and second antibodies have different binding specificities; wherein said second antibody binds a B cell surface marker selected from the group consisting of CD19, CD20, CD21, CD22, CD40, CD45, IgM and IgD; and (b) isolating the anti-idiotypic antibodies which specifically bind to the first antibody in step (a).
A thermally conductive sheet comprising a matrix comprising a silicone resin, and a thermally conductive filler, the thermally conductive sheet comprising a skin layer on a surface, and comprising an oxide layer on a surface of the skin layer, wherein the thermally conductive filler comprises an anisotropic filler and a non-anisotropic filler, the anisotropic filler comprises carbon fiber, wherein the carbon fiber is oriented in the thickness direction of the thermally conductive sheet, wherein the oxide layer is a layer of silicone resin that has partially turned into silica by irradiation with VUV, wherein for a surface of the thermally conductive sheet on a side comprising the oxide layer, intensity at a binding energy of 104 eV to intensity at a binding energy of 102 eV (I /I) is 0.13 or more in a photoelectron spectrum obtained by surface analysis by X-ray photoelectron spectroscopy, wherein the surface analysis by X-ray photoelectron spectroscopy is measured as indicated in the description. the thermally conductive sheet comprising a skin layer on a surface, and comprising an oxide layer on a surface of the skin layer, wherein the thermally conductive filler comprises an anisotropic filler and a non-anisotropic filler, the anisotropic filler comprises carbon fiber, wherein the carbon fiber is oriented in the thickness direction of the thermally conductive sheet, wherein the oxide layer is a layer of silicone resin that has partially turned into silica by irradiation with VUV, wherein for a surface of the thermally conductive sheet on a side comprising the oxide layer, intensity at a binding energy of 104 eV to intensity at a binding energy of 102 eV (I /I) is 0.13 or more in a photoelectron spectrum obtained by surface analysis by X-ray photoelectron spectroscopy, wherein the surface analysis by X-ray photoelectron spectroscopy is measured as indicated in the description.
A method comprising: operating, by a computing system, a Light Detection and Ranging (LIDAR) device (100; 200) to emit light pulses at emission times in accordance with an emission time sequence and to detect return light pulses in accordance with a detection time sequence, wherein the detection time sequence includes, for each emitted light pulse, a corresponding detection period for detection of a corresponding return light pulse, and wherein the corresponding detection periods comprise (i) one or more standard detection periods that establish a nominal detection range for the LIDAR device and (ii) one or more extended detection periods having respective durations that are longer than respective durations of the one or more standard detection periods; making a determination, by the computing system, that the LIDAR device detected one or more return light pulses during one or more of the extended detection periods that correspond to one or more particular emitted light pulses; in response to making the determination, determining, by the computing system, that the one or more detected return light pulses have detection times relative to corresponding emission times of the one or more particular emitted light pulses that are indicative of one or more ranges; making a further determination, by the computing system, of whether or not the one or more ranges indicate that an object is positioned outside of the nominal detection range; and engaging, by the computing system, in object detection in accordance with the further determination. operating, by a computing system, a Light Detection and Ranging (LIDAR) device (100; 200) to emit light pulses at emission times in accordance with an emission time sequence and to detect return light pulses in accordance with a detection time sequence, wherein the detection time sequence includes, for each emitted light pulse, a corresponding detection period for detection of a corresponding return light pulse, and wherein the corresponding detection periods comprise (i) one or more standard detection periods that establish a nominal detection range for the LIDAR device and (ii) one or more extended detection periods having respective durations that are longer than respective durations of the one or more standard detection periods; making a determination, by the computing system, that the LIDAR device detected one or more return light pulses during one or more of the extended detection periods that correspond to one or more particular emitted light pulses; in response to making the determination, determining, by the computing system, that the one or more detected return light pulses have detection times relative to corresponding emission times of the one or more particular emitted light pulses that are indicative of one or more ranges; making a further determination, by the computing system, of whether or not the one or more ranges indicate that an object is positioned outside of the nominal detection range; and engaging, by the computing system, in object detection in accordance with the further determination.
A method of producing microspheres, comprising mixing a first extracellular matrix in combination with cells at a temperature of 0°C to 10°C to distribute the cells throughout the solution form of the matrix before accelerating a phase transition, dispensing the cell-ECM mixture to form droplets onto a surface having a high surface tension so as to maintain the spherical shape of the droplets, accelerating phase transition or gelation of the ECM to form the cell-matrix microspheres; collecting the microspheres from the collection platform with minimal mechanical disturbance; stabilizing the microspheres after phase transition by making them free-floating in a first medium maintaining the microspheres free-floating in a first medium for at least 3 days, such as from 3 days to 14 days, until the size of the microspheres becomes substantially constant; and releasing the microspheres from the first medium.
A method of manufacturing a puncture needle, comprising the step of processing a needle-like metallic base material, having at an end a machined surface obtained by machining, with plasma generated in an atmosphere filled with a mixed gas mainly including a main gas and a reaction gas, characterised in that in the mixed gas, the partial pressure of the main gas is 0.3 to 0.5 Pa, and the partial pressure of the reaction gas is 0.007 to 0.05 Pa, where the main gas is argon and the reaction gas is oxygen and nitrogen.
A container with a folded-back bottom wall comprising a bottom wall and a body part and transforming into a first mode A in which the bottom wall is projected downwards from a lower surface of the body part and into a second mode B in which the bottom wall is folded back inside the body part, the bottom wall having a truncated cone-shaped peripheral wall extending upward from a lower end of the body part into the interior of the body part; and wherein a top surface of the peripheral wall is recessed to form a liquid retaining part, characterised in that in the first mode A, a boundary portion between the bottom wall and the body part is folded to have an outwardly-convex shape so that a folding groove is circumferentially formed; the bottom wall is folded inside the body part at the folding groove, to transform into the second mode B.
A refrigeration system comprising at least one refrigeration cycle having a mixed component refrigerant free of chlorofluorocarbons, hydrochlorofluorcarbons, fluorocarbons, hydrofluorocarbons, fluoroethers, and hydrocarbons and comprising at least 5 mol% of each of at least three distinct components selected from a group consisting of Ar, N 2, Kr, Ne, Xe, He, O 2, CO 2 and N 2 O, wherein the mixed component refrigerant consists essentially of: A) i) 5 to 80 mol% Kr and either: (a) ii) 5 to 60 mol% Xe; and iii) 5 to 90 mol% Ar; or (b) ii) 5 to 60 mol% N 2 O; and iii) 5 to 80 mol% Xe; or (c) ii) 5 to 40 mol% N 2 O; iii) 5 to 40 mol% CO 2; and iv) 5 to 60 mol% Xe; or (d) ii) 5 to 60 mol% Ar; and iii) 5 to 60 mol% Ne; B) i) 5 to 60 mol% Kr and either: (a) ii) 5 to 85 mol% Ar; and iii) 5 to 85 mol% N 2; or (b) ii) 5 to 40 mol% Xe; iii) 5 to 80 mol% Ar; and iv) 5 to 40 mol% Ne; or C) i) 5 to 25 mol% CO 2; ii) 5 to 25 mol% N 2 O; iii) 5 to 60 mol% Xe; iv) 5 to 75 mol% Kr; and v) 5 to 75 mol% N 2. A) i) 5 to 80 mol% Kr and either: (a) ii) 5 to 60 mol% Xe; and iii) 5 to 90 mol% Ar; or (b) ii) 5 to 60 mol% N 2 O; and iii) 5 to 80 mol% Xe; or (c) ii) 5 to 40 mol% N 2 O; iii) 5 to 40 mol% CO 2; and iv) 5 to 60 mol% Xe; or (d) ii) 5 to 60 mol% Ar; and iii) 5 to 60 mol% Ne; (a) ii) 5 to 60 mol% Xe; and iii) 5 to 90 mol% Ar; or (b) ii) 5 to 60 mol% N 2 O; and iii) 5 to 80 mol% Xe; or (c) ii) 5 to 40 mol% N 2 O; iii) 5 to 40 mol% CO 2; and iv) 5 to 60 mol% Xe; or (d) ii) 5 to 60 mol% Ar; and iii) 5 to 60 mol% Ne; B) i) 5 to 60 mol% Kr and either: (a) ii) 5 to 85 mol% Ar; and iii) 5 to 85 mol% N 2; or (b) ii) 5 to 40 mol% Xe; iii) 5 to 80 mol% Ar; and iv) 5 to 40 mol% Ne; or (a) ii) 5 to 85 mol% Ar; and iii) 5 to 85 mol% N 2; or (b) ii) 5 to 40 mol% Xe; iii) 5 to 80 mol% Ar; and iv) 5 to 40 mol% Ne; or C) i) 5 to 25 mol% CO 2; ii) 5 to 25 mol% N 2 O; iii) 5 to 60 mol% Xe; iv) 5 to 75 mol% Kr; and v) 5 to 75 mol% N 2. i) 5 to 25 mol% CO 2; ii) 5 to 25 mol% N 2 O; iii) 5 to 60 mol% Xe; iv) 5 to 75 mol% Kr; and v) 5 to 75 mol% N 2.
A game system comprising a data processing system and first and second identification elements (407, 408), each of the first and second identification elements (407, 408) comprising a memory for storing information relating to the game system, wherein the data processing system comprises a detection device defining a first detection area (405a, 405b); and wherein the data processing system is configured to detect a presence of the first identification element within the first detection area and to receive information stored in the memory of the first identification element when the first identification element is placed within the first detection area; wherein the first detection area is a read-only detection area operable only for reading data (405a, 405b); wherein the detection device defines a second detection area, different from the first detection area, wherein the data processing system is configured to store data in the memory of the second identification element when the second identification element is placed within the second detection area; characterized in that the data processing system is configured to store the data in the memory of the second identification element only when said second identification element is positioned within the second detection area and when the first identification element is detected within the first detection area (405a, 405b). wherein the detection device defines a second detection area, different from the first detection area, wherein the data processing system is configured to store data in the memory of the second identification element when the second identification element is placed within the second detection area; characterized in that the data processing system is configured to store the data in the memory of the second identification element only when said second identification element is positioned within the second detection area and when the first identification element is detected within the first detection area (405a, 405b).
A cathode active material, consisting of a lithium composite transition metal oxide represented by Li 1+(c-a)/2 Ni a Co b Mn c O 2-x F x (0.1≤c-a≤0.4, 0.13≤a≤0.3, 0.03≤b≤0.2, 0.4≤c≤0.6, (a+b+c)+(1+(c-a)/2)=2, 0<x≤0.15, 1≤a/b≤6, 1.9≤c/a≤4.0, and 0.04≤b/(a+b+c)≤0.25), wherein the lithium composite transition metal oxide includes layer-structured Li 2 MnO 3, wherein an average diameter of secondary particles of the cathode active material is 2 to 5 μm, and an average diameter of primary particles of the cathode active material is 50 to 500 nm.
A non-aqueous electrolyte solution for a lithium secondary battery, comprising: an organic solvent; an ionizable lithium salt; a dinitrile compound including an ether bond; an aliphatic dinitrile compound; and wherein the dinitrile compound including an ether bond is ethylene glycol bis(2-cyanoethyl)ether, and the aliphatic dinitrile compound is succinonitrile. an organic solvent; an ionizable lithium salt; a dinitrile compound including an ether bond; an aliphatic dinitrile compound; and wherein the dinitrile compound including an ether bond is ethylene glycol bis(2-cyanoethyl)ether, and the aliphatic dinitrile compound is succinonitrile.
Method for diagnosing, monitoring and/or predicting a condition of a switching apparatus, in particular its dielectric insulation capability and/or arc extinction capability, the switching apparatus containing an insulation medium comprising at least one organofluorine compound C1, the method comprising the method elements of: a) selecting at least one physical quantity x of the insulation medium; b) determining the difference between a value xso of the physical quantity x at an initial state S0 of the apparatus and a value x S1 of the physical quantity x at a second state S1, said second state S1 being later in time than the initial state S0, and c) deducing from the difference between x S0 and x S1 the decrease in the amount of the at least one organofluorine compound C1 and/or of the total amount of the at least one organofluorine compound C1 present in the switching apparatus, characterized in that the physical quantity x is the amount of at least one decomposition product C2 of the at least one organofluorine compound C1 or is a physical quantity dependent on the amount of at least one decomposition product C2 of the at least one organofluorine compound C1, and said method further comprising the method elements of: counting a number of switching events, determining therefrom the total arc energy to which the insulation medium has been subjected to, and correlating the total arc energy to the amount of the organofluorine compound C1 lost by decomposition. a) selecting at least one physical quantity x of the insulation medium; b) determining the difference between a value xso of the physical quantity x at an initial state S0 of the apparatus and a value x S1 of the physical quantity x at a second state S1, said second state S1 being later in time than the initial state S0, and c) deducing from the difference between x S0 and x S1 the decrease in the amount of the at least one organofluorine compound C1 and/or of the total amount of the at least one organofluorine compound C1 present in the switching apparatus, counting a number of switching events, determining therefrom the total arc energy to which the insulation medium has been subjected to, and correlating the total arc energy to the amount of the organofluorine compound C1 lost by decomposition.
Mounting device of a rear view camera on the rear bumper of a motor vehicle, comprising: housing opened by one of its faces, defining a receiving cavity capable of housing at least a part of said camera, and being provided with an orifice intended to be opposite the objective of this camera in order to allow the latter to capture through this orifice the rear environment of said vehicle, said housing comprising clipping means capable of allowing it to be attached fixedly by snap-fastening via its open face against the external face of the periphery of an opening provided in said rear bumper, and support comprising fixing means (46, 47, 49) capable of enabling it to be fixed against the inner face of said periphery of said opening and opposite said open face of said housing so as to ensure the locking in position of said camera sandwiched between said housing and said support; characterized in that said means for fixing said support comprise at least one beak designed to cooperate by stacking with a slot of corresponding shape made in said bumper, and at least one snap-fastening tongue able to cooperate by snap-fastening with an edge of said opening. housing opened by one of its faces, defining a receiving cavity capable of housing at least a part of said camera, and being provided with an orifice intended to be opposite the objective of this camera in order to allow the latter to capture through this orifice the rear environment of said vehicle, said housing comprising clipping means capable of allowing it to be attached fixedly by snap-fastening via its open face against the external face of the periphery of an opening provided in said rear bumper, and support comprising fixing means (46, 47, 49) capable of enabling it to be fixed against the inner face of said periphery of said opening and opposite said open face of said housing so as to ensure the locking in position of said camera sandwiched between said housing and said support; characterized in that said means for fixing said support comprise at least one beak designed to cooperate by stacking with a slot of corresponding shape made in said bumper, and at least one snap-fastening tongue able to cooperate by snap-fastening with an edge of said opening.