mhurhangee/ep-ind-claims huggingface dataset:
A method of mobility management in a cellular system comprising: determining from a received explicit authorization a communication device is authorized to prioritize for selection at least one cell having multimedia broadcast multicast service capability; selecting the at least one cell on at least one carrier, the at least one carrier comprising one or more cells having multimedia broadcast multicast service capability; and monitoring the selected at least one cell having multimedia broadcast multicast service capability for transmitted information, the selecting comprising: selecting one or more cells from a received list of multimedia broadcast multicast service capable cells and / or a received list of one or more multimedia broadcast multicast service capable frequencies for the at least one communication device to select; and excluding one or more cells for selecting if the one or more cells are not multimedia broadcast multicast service capable by not performing measurements of the non-multimedia broadcast multicast service capable cells. determining from a received explicit authorization a communication device is authorized to prioritize for selection at least one cell having multimedia broadcast multicast service capability; selecting the at least one cell on at least one carrier, the at least one carrier comprising one or more cells having multimedia broadcast multicast service capability; and monitoring the selected at least one cell having multimedia broadcast multicast service capability for transmitted information, the selecting comprising: selecting one or more cells from a received list of multimedia broadcast multicast service capable cells and / or a received list of one or more multimedia broadcast multicast service capable frequencies for the at least one communication device to select; and excluding one or more cells for selecting if the one or more cells are not multimedia broadcast multicast service capable by not performing measurements of the non-multimedia broadcast multicast service capable cells. selecting one or more cells from a received list of multimedia broadcast multicast service capable cells and / or a received list of one or more multimedia broadcast multicast service capable frequencies for the at least one communication device to select; and excluding one or more cells for selecting if the one or more cells are not multimedia broadcast multicast service capable by not performing measurements of the non-multimedia broadcast multicast service capable cells.
A method for preparing a R-Fe-B rare earth sintered magnet comprising Nd 2 Fe 14 B crystal phase as major phase wherein R is an element or a combination of two or more elements selected from rare earth elements inclusive of Sc and Y and contains Nd and/or Pr, said method comprising step of preparing a microcrystalline alloy powder, step of pulverizing the microcrystalline alloy powder into a fine powder, step of compacting the fine powder in a magnetic field into a green compact, and step of heating the green compact in vacuum or in an inert gas atmosphere at 900 to 1,100°C for sintering, said step including sub-step (a) of strip casting an alloy having the composition R 1 a T b M c A d wherein R 1 is an element or a combination of two or more elements selected from rare earth elements inclusive of Sc and Y and contains Nd and/or Pr, T is Fe or Fe and Co, M is a combination of two or more elements selected from the group consisting of Al, Cu, Zn, In, P, S, Ti, Si, V, Cr, Mn, Ni, Ga, Ge, Zr, Nb, Mo, Pd, Ag, Cd, Sn, Sb, Hf, Ta, and W and contains Al and Cu, A is B (boron) or B and C (carbon), "a" to "d" indicative of atomic percent in the alloy are in the range: 12.5 ≤ a ≤ 18, 0.2 ≤ c ≤ 10, 5 ≤ d ≤ 10, and the balance of b, and consisting essentially of crystal grains of Nd 2 Fe 14 B crystal phase and precipitated grains of R 1 -rich phase, the grains of R 1 -rich phase being precipitated in such a distribution that the average distance between precipitated grains is up to 20 μm, characterised in that the method step further comprises sub-step (b) of HDDR treatment of heating the strip cast alloy in hydrogen atmosphere at 700 to 1,000°C to induce disproportionation reaction to disproportionate the Nd 2 Fe 14 B crystal phase into R 1 hydride, Fe, and Fe 2 B, then heating the alloy under a reduced hydrogen partial pressure at 700 to 1,000°C to recombine them into Nd 2 Fe 14 B crystal phase, thereby forming submicron crystal grains having an average grain size of 0.1 to 1 μm, sub-step (c) of diffusion treatment of heating the HDDR-treated alloy in vacuum or in an inert gas atmosphere at a temperature of 600 to 1,000°C for a time of 1 to 50 hours, thereby preparing a microcrystalline alloy powder consisting of submicron crystal grains of Nd 2 Fe 14 B crystal phase having an average grain size of 0.1 to 1 μm and R 1 -rich grain boundary phase surrounding the submicron crystal grains across an average width of 2 to 10 nm, the method thereby yielding a R-Fe-B rare earth sintered magnet having an average grain size of 0.2 to 2 μm. step of preparing a microcrystalline alloy powder, step of pulverizing the microcrystalline alloy powder into a fine powder, step of compacting the fine powder in a magnetic field into a green compact, and step of heating the green compact in vacuum or in an inert gas atmosphere at 900 to 1,100°C for sintering,
Shut-off element for a hydrant with a hydrant axis (A-A), wherein the shut-off element comprises a valve rod, which is axially movable substantially along the hydrant axis (A-A), and a main valve body which is adapted to engage in a sealing manner with a sealing surface of the hydrant, wherein the shut-off element further comprises a damping system which is interposed between the main valve body and the valve rod, or in a section of the valve rod, or between an actuator of the valve rod and the valve rod, or in the actuator itself, such that the main valve body is coupled to the valve rod via the damping system axially damping along the hydrant axis (A-A), wherein the damping system comprises a pressure spring and a fluid reservoir in which a fluid is stored, wherein the main valve body comprises a piston section which is received axially movably in a cylinder chamber enclosed in the damping system, wherein the damping system comprises an inflow pipe having a check valve and a return pipe, the inflow pipe and the return pipe communicating with the fluid reservoir and with the cylinder chamber such that the fluid stored in the fluid reservoir is conveyed via the inflow pipe and the check valve into the cylinder chamber and via the return pipe from the cylinder chamber into the fluid reservoir.
A method for removing toxic or unwanted polyhalogenated compounds from drinks, said method comprising a stage of contacting the drink with an adsorbent containing a polymeric material, characterized in that the contacting stage consists in circulating the drink in a vertically arranged column containing said adsorbent and in using an aliphatic homopolymer, linear or branched, as the adsorbent, or in using a mixture of aliphatic polymers as the adsorbent, or in using an adsorbent resulting from the melting of a mixture of aliphatic polymers, and in that said adsorbent has a semicrystalline structure, the degree of crystallinity of said adsorbent being less than 45%, and in that said aliphatic polymer is selected from the group: low-density polyethylene, low-density linear polyethylene, polypropylene, polyacrylonitrile, poly(methyl methacrylate) and polyketones, and in that the grain size of the adsorbent ranges between 50 μm and 5 mm, preferably between 150 μm and 5 mm.
An optical fiber comprising a first core at a center thereof, a second core that is adjacent to the first core and covers an outer circumference of the first core, a third core that is adjacent to the second core and covers an outer circumference of the second core, and a cladding that is adjacent to the third core and covers an outer circumference of the third core, wherein with a refractive index of the cladding as a reference, Δ1 is a maximum value of a relative refractive index difference of the first core, Δ2 is a relative refractive index difference of a flat portion of the second core, Δ3 is a minimum value of a relative refractive index difference of the third core, a maximum value Δ2max of the relative refractive index of the second core is Δ2max = (Δ1)/2, a minimum value Δ2min of the relative refractive index of the second core is Δ2min = (Δ3)/2, "a" is a half-value radial width for the Δ1 of the first core, "b" is a radius of a boundary between the second core and the third core relative to the half-value radial width of Δ3 of the third core, and "c" is a radius of a boundary between the third core and the cladding, a zero-dispersion wavelength is no less than 1300 nm and no greater than 1324 nm, and transmission loss increase for a wavelength of 1550 nm when the optical fiber is wound around a mandrel with a diameter of 10 mm is no greater than 1 dB/turn, characterized in that the expressions 0,30% ≤ Δ1 ≤ 0.45%, -0.05% ≤ Δ2 ≤ 0.05%, -0.35% ≤ Δ3 ≤ - 0.15%, 2.5 ≤ b/a, 3.5 μm ≤ a ≤ 4.2 μm, 9 μm ≤ b ≤ 13 μm, and 4.5 μm ≤ c-b ≤ 7.0 μm are satisfied, and "b" is 1.21 times or more greater than a mode field diameter for a wavelength of 1310 nm.
An anode active material, comprising: an amorphous carbon material in which a ratio of moieties having a distance d 002 of 3.77 Å or more between crystal planes is 4 % to 15 % based on the entire crystal plane distance distribution.
A composite material which comprises the components at least one thermoresponsive polymer and at least one organic foam, the component having a lower critical solution temperature (LCST), the lower critical solution temperature (LCST) being in the range from 5 to 70°C, and the component being selected from polyurethane foams, wherein the composite material further comprises a component at least one clay mineral, the component being at least one layered silicate and the lower critical solution temperature (LCST) being the temperature at which component and water exhibit a miscibility gap, determined via dynamic scanning calorimetry or via turbidity measurement, for cooling buildings, electrical assemblies, primary batteries or secondary batteries, exterior facades of buildings, interiors, and for regulating the heat in furniture for sitting, in vehicles, in footwear, and in apparel. at least one thermoresponsive polymer and at least one organic foam, the component having a lower critical solution temperature (LCST), the lower critical solution temperature (LCST) being in the range from 5 to 70°C, and the component being selected from polyurethane foams, wherein the composite material further comprises a component at least one clay mineral, the component being at least one layered silicate and the lower critical solution temperature (LCST) being the temperature at which component and water exhibit a miscibility gap, determined via dynamic scanning calorimetry or via turbidity measurement, for cooling buildings, electrical assemblies, primary batteries or secondary batteries, exterior facades of buildings, interiors, and for regulating the heat in furniture for sitting, in vehicles, in footwear, and in apparel.
A ready-to-use hydrophilic catheter assembly (10, 110, 310, 410, 510, 610, 710, 810), comprising: a gas impermeable package (12, 312, 412, 512, 812) having a sealed cavity, a hydrophilic coated catheter (10, 110, 310, 410, 510, 610, 710, 810) comprises a tube (14, 114, 314, 414, 514, 614, 714, 814) having an outer surface with a hydrophilic surface coating on at least a portion thereof; an amount of liquid disposed within the sealed cavity, and a liquid sequestering element (330, 530, 630, 830) retaining said liquid; characterised in that the liquid is vapor donating, and the liquid sequestering element (330, 530, 630, 830) is coextensive with the tube (14, 114, 314, 414, 514, 614, 714, 814) within the sealed cavity to release vapor in proximity to the tube. a gas impermeable package (12, 312, 412, 512, 812) having a sealed cavity, a hydrophilic coated catheter (10, 110, 310, 410, 510, 610, 710, 810) comprises a tube (14, 114, 314, 414, 514, 614, 714, 814) having an outer surface with a hydrophilic surface coating on at least a portion thereof; an amount of liquid disposed within the sealed cavity, and a liquid sequestering element (330, 530, 630, 830) retaining said liquid;
Method for preparing a catalyst of formula I for partial oxidation of propylene, comprising (a) adding an organic acid into an aqueous salt solution of metal components comprising molybdenum, bismuth, iron, cobalt and/or nickel and potassium and/or rubidium to produce a catalyst suspension; (b) drying the catalyst suspension in vacuo; (c) grinding the dried catalyst suspension to produce a catalyst powder; and (d) calcining the catalyst powder in the presence of air: Mo a Bi b Fe c X d Y e O f wherein, X is at least one element selected from the group consisting of Co and Ni; Y is at least one element selected from the group consisting of K and Rb; a, b, c, d, e and f represent the atomic ratio of each element, provided that when a is 12, then b is 0.5 to 2, c is 0.5 to 2, d is 3 to 8, e is 0.005 to 0.2 and f is the value corresponding to the oxidation state of each element. (a) adding an organic acid into an aqueous salt solution of metal components comprising molybdenum, bismuth, iron, cobalt and/or nickel and potassium and/or rubidium to produce a catalyst suspension; (b) drying the catalyst suspension in vacuo; (c) grinding the dried catalyst suspension to produce a catalyst powder; and (d) calcining the catalyst powder in the presence of air: Mo a Bi b Fe c X d Y e O f wherein, X is at least one element selected from the group consisting of Co and Ni; Y is at least one element selected from the group consisting of K and Rb; a, b, c, d, e and f represent the atomic ratio of each element, provided that when a is 12, then b is 0.5 to 2, c is 0.5 to 2, d is 3 to 8, e is 0.005 to 0.2 and f is the value corresponding to the oxidation state of each element. wherein, X is at least one element selected from the group consisting of Co and Ni; Y is at least one element selected from the group consisting of K and Rb; a, b, c, d, e and f represent the atomic ratio of each element, provided that when a is 12, then b is 0.5 to 2, c is 0.5 to 2, d is 3 to 8, e is 0.005 to 0.2 and f is the value corresponding to the oxidation state of each element.
A method for face liveness detection, comprising: receiving a first image comprising a portion corresponding to a face of a user; detecting two-dimensional, 2D, image information related to the face of the user based on the first image, wherein the 2D image information includes one or more 2D facial landmark points determined based on the first image; obtaining three-dimensional, 3D, shape information of the face of the user based on a 3D face model for the user, wherein the 3D shape information includes one or more corresponding 3D facial landmark points that are projected based on a 3D pose in the 3D face model for the user, wherein the 3D pose of the face in the first image is determined based on the one or more determined 2D facial landmark points and the one or more 3D facial landmark points in the 3D face model for the user; performing a homography mapping by determining correspondences between the one or more 2D facial landmark points and the one or more corresponding 3D facial landmark points that are perspectively projected based on the 3D pose; and identifying liveness of the face in the first image based on the homography mapping by determining a deviation of the homography mapping. receiving a first image comprising a portion corresponding to a face of a user; detecting two-dimensional, 2D, image information related to the face of the user based on the first image, wherein the 2D image information includes one or more 2D facial landmark points determined based on the first image; obtaining three-dimensional, 3D, shape information of the face of the user based on a 3D face model for the user, wherein the 3D shape information includes one or more corresponding 3D facial landmark points that are projected based on a 3D pose in the 3D face model for the user, wherein the 3D pose of the face in the first image is determined based on the one or more determined 2D facial landmark points and the one or more 3D facial landmark points in the 3D face model for the user; performing a homography mapping by determining correspondences between the one or more 2D facial landmark points and the one or more corresponding 3D facial landmark points that are perspectively projected based on the 3D pose; and identifying liveness of the face in the first image based on the homography mapping by determining a deviation of the homography mapping.
A method of purifying and amplifying a nucleic acid, said method comprising: providing an aqueous two-phase system (ATPS) comprising a mixed phase solution that separates into a first phase solution and a second phase solution, where said ATPS is one in which a nucleic acid will partition into either the first phase solution or the second phase solution or said ATPS is one in which a nucleic acid will localizes into the interface between said first phase solution and said second phase solution; introducing a sample comprising a nucleic acid into said ATPS, wherein said nucleic acid partitions into said first phase solution or said second phase solution or said interface between said first phase solution and said second phase solution to provide a concentrated nucleic acid; and amplifying said concentrated nucleic acid in a nucleic amplification reaction to produce an amplified nucleic acid, wherein said amplifying comprises combining reagents for isothermal nucleic acid amplification with said ATPS. providing an aqueous two-phase system (ATPS) comprising a mixed phase solution that separates into a first phase solution and a second phase solution, where said ATPS is one in which a nucleic acid will partition into either the first phase solution or the second phase solution or said ATPS is one in which a nucleic acid will localizes into the interface between said first phase solution and said second phase solution; introducing a sample comprising a nucleic acid into said ATPS, wherein said nucleic acid partitions into said first phase solution or said second phase solution or said interface between said first phase solution and said second phase solution to provide a concentrated nucleic acid; and amplifying said concentrated nucleic acid in a nucleic amplification reaction to produce an amplified nucleic acid, wherein said amplifying comprises combining reagents for isothermal nucleic acid amplification with said ATPS.
A system for providing electrical power to one or more wind turbine electrical components, comprising; an electrical grid for providing electrical power; an auxiliary power source for providing electrical power; one or more wind turbines, each of the wind turbines including a wind turbine generator; one or more electrical components (700, 800); a main voltage transformer for connecting the wind turbine generator to the grid and a switchgear 9500) arranged between the main voltage transformer and a point of connection to the grid, one or more switches for alternately connecting either said electrical grid or said auxiliary power source to the switchgears of the wind turbines; wherein the switchgears comprise a switchgear voltage transformer (910, 920), the switchgear voltage transformer including primary and secondary windings, characterized in that the primary windings receive power from the electrical grid or auxiliary power source, and the secondary windings deliver electrical power to the wind turbine electrical components while bypassing the main voltage transformer.
A component separating device comprising: a substrate; a fluid channel provided in the substrate for containing a fluid including a liquid component and a solid component; a plurality of actuators provided at a face of the substrate, each actuator for generating a standing wave inside of the fluid channel; and a groove provided in the substrate at the surrounding of the actuator with the exception of the side of the fluid channel to partition actuators contiguous to each other. a substrate; a fluid channel provided in the substrate for containing a fluid including a liquid component and a solid component; a plurality of actuators provided at a face of the substrate, each actuator for generating a standing wave inside of the fluid channel; and a groove provided in the substrate at the surrounding of the actuator with the exception of the side of the fluid channel to partition actuators contiguous to each other.
Use of Prothioconazole for inducing host defence responses in a plant by treating the plant, plant parts or seeds, wherein the treatment of the plant, plant parts or seeds induces resistance against phytopathogenic pathogens or pests, and wherein the treatment of the plant, plant parts or seeds induces local resistance and wherein the treatment of the plant, plant parts or seeds induces accumulation of salicylic acid in the plant.
A slab formwork system comprising a plurality of grid elements (2, 2', 6, 6', 12, 22, 30), the grid elements comprising standard grid elements and transverse compensation grid elements, which consist in each case of a plurality of longitudinal beams (4, 8, 14, 24, 32, 34) extending parallel to one another and of at least one cross beam (5, 10, 16, 26) which can be installed on or placed onto vertical supports and extends transversely to the longitudinal beams (4, 8, 14, 24, 32, 34), characterized in that longitudinal beams and cross beams (4, 8, 14, 24, 32, 34; 5, 10, 16, 26) of the grid elements (2, 2', 6, 6', 12, 22) are rigidly connected to one another, with the standard grid elements (2, 2') having two cross beams provided in the mutually remote end regions of the longitudinal beams, whereas the transverse compensation grid elements (6, 6', 30) have one or two cross beams arranged inwardly offset in the longitudinal direction in comparison to the standard grid elements (2, 2').