mhurhangee/ep-ind-claims huggingface dataset:
A method for triggering a handover of a user equipment, UE, being serviced by a macro node to a low power node, LPN, operating in a closed access operating mode wherein the LPN provides service to member UEs, the UE being a non-member of the LPN and wherein a wireless coverage area of the LPN is subsumed within a wireless coverage area of the macro node, the method comprising: determining a trigger condition, wherein determining the trigger condition comprises: determining that an unacceptable level of interference is caused by the LPN; and further characterized by determining that the UE is not interference cancellation capable; based on the trigger condition, signaling the LPN to provide service to the UE; and directing the UE to execute the handover to the LPN. determining a trigger condition, wherein determining the trigger condition comprises: determining that an unacceptable level of interference is caused by the LPN; and further characterized by determining that the UE is not interference cancellation capable; determining that an unacceptable level of interference is caused by the LPN; and further characterized by determining that the UE is not interference cancellation capable; based on the trigger condition, signaling the LPN to provide service to the UE; and directing the UE to execute the handover to the LPN.
A glycosaminoglycan composition comprising a glycosaminoglycan modified through the covalent linkage of a lipid moiety to 1-15% of the repeating disaccharide monomer units of the glycosaminoglycan wherein: - the glycosaminoglycan to be modified is hyaluronan, or a hyaluronan derivative and the glycosaminoglycan to be modified has a molecular weight in the range of 50 kDa to 2,500 kDa; or - the glycosaminoglycan to be modified is a polysaccharide comprised of repeating disaccharide units of an uronic acid or hexose linked to a hexosamine, or derivatives thereof; and the glycosaminoglycan to be modified has a molecular weight in the range of 100 kDa to 2,500 kDa; the lipid moiety comprises one or more naturally-occurring or synthetically-derived fatty acids, glycerolipids, phospholipids, sphingolipids, sterol lipids, prenol lipids, or derivatives thereof, provided that the lipid moiety contains a functional group on its polar head-group to allow for covalent linkage of the lipid to the glycosaminoglycan; and the modified glycosaminoglycan is able to penetrate the skin barrier or a mucous membrane when applied thereto, whereby the modified glycosaminoglycan is formed by the reaction of the glycosaminoglycan with the lipid moiety. - the glycosaminoglycan to be modified is hyaluronan, or a hyaluronan derivative and the glycosaminoglycan to be modified has a molecular weight in the range of 50 kDa to 2,500 kDa; or - the glycosaminoglycan to be modified is a polysaccharide comprised of repeating disaccharide units of an uronic acid or hexose linked to a hexosamine, or derivatives thereof; and the glycosaminoglycan to be modified has a molecular weight in the range of 100 kDa to 2,500 kDa;
A method of producing pantothenate comprising culturing a genetically manipulated microorganism, from the genus Bacillus, which overexpresses the Bacillus ketopantoate hydroxymethyltransferase according to SEQ ID NO:24, Bacillus pantothenate synthetase according to SEQ ID NO:26, Bacillus aspartate-alpha-decarboxylase according to SEQ ID NO:28 and additional copies of the Bacillus aspartate-alpha-decarboxylase according to SEQ ID NO:28, or an amino acid sequence which is at least 80% identical to SEQ ID NO:24 and has ketopantoate hydroxymethyltransferase activity, an amino acid sequence which is at least 80% identical to SEQ ID NO:26 and has pantothenate synthetase activity and an amino acid sequence which is at least 80% identical to SEQ ID NO:28 and has aspartate-alpha-decarboxylase activity and additional copies of an amino acid sequence which is at least 80% identical to SEQ ID NO:28 and has aspartate-alpha-decarboxylase activity, at a level greater than that expressed prior to manipulation of said microorganism or in a comparable microorganism which has not been manipulated, under conditions such that the pantothenate is produced, wherein the method is independent of the need to feed beta-alanine.
Cell connector for the electrical connection of terminals of battery cells, in particular of lithium-ion battery cells, comprising at least a first layer made of a first material and a second layer made of a second material, characterized in that the first material can be connected in a material-bonded manner to a first terminal of the two terminals of battery cells and the second material can be connected in a material-bonded manner to a second terminal of the two terminals of battery cells, the two layers (30, 31) are each provided with a smaller hole and a bigger hole and the layers (30, 31) are arranged over one another in such a manner that the smaller hole of one layer is arranged substantially coaxially in relation to the bigger hole of the other layer, respectively, and by means of its hole walls respectively forms the hole walls for the material-bonded fastening of the cell connector to the terminal of the two terminals that can be connected in a material-bonded manner to the material of the layer.
A method to measure displacement in a displacement measuring device, which comprises a pattern projecting unit provided at one site of a part capable of relatively displacing and a pattern image pickup unit provided at the other site, comprising a step of projecting a displacement detecting pattern from said pattern projecting unit to said pattern image pickup unit, a step of circulating said displacement detecting pattern acquired at said pattern image pickup unit to said pattern projecting unit, a step of updating said displacement detecting pattern of said pattern projecting unit by said displacement detecting pattern as circulated, a step of projecting said displacement detecting pattern as updated, and a step of obtaining displacement amount of said displacement detecting pattern in an image acquired by said pattern image pickup unit after circulation and of obtaining a displacement between two sites by dividing said displacement amount by the number of circulations.
A method for manufacturing a surface using charged particle beam lithography, the method comprising: inputting a desired pattern to be formed on the surface; determining a plurality of variable shaped beam, VSB, shots, wherein shots in the plurality of shots are allowed to overlap each other, and wherein the union of any subset of the plurality of VSB shots, each shot in the subset being oversized or being undersized or being the originally-determined size, is different than the desired pattern; calculating a calculated pattern on the surface from the plurality of VSB shots; revising the plurality of VSB shots and recalculating the calculated pattern if the calculated pattern differs from the desired pattern by more than a predetermined tolerance; and forming the pattern on the surface with the plurality of VSB shots. inputting a desired pattern to be formed on the surface; determining a plurality of variable shaped beam, VSB, shots, wherein shots in the plurality of shots are allowed to overlap each other, and wherein the union of any subset of the plurality of VSB shots, each shot in the subset being oversized or being undersized or being the originally-determined size, is different than the desired pattern; calculating a calculated pattern on the surface from the plurality of VSB shots; revising the plurality of VSB shots and recalculating the calculated pattern if the calculated pattern differs from the desired pattern by more than a predetermined tolerance; and forming the pattern on the surface with the plurality of VSB shots.
An electrode assembly (10, 100) configured by alternately stacking two or more positive electrodes (11, 110) and one or more negative electrodes (12, 120) using a separator (13, 130) as a boundary therebetween, wherein: outermost positive electrodes (11, 110) are positioned on outermost opposite surfaces of the electrode assembly (10, 100), respectively; each of the outermost positive electrodes (11, 110) includes a positive electrode current collector, a positive active material layer formed on one surface of the positive electrode current collector, and a non-reversible material coating layer formed on the other surface of the positive electrode current collector and including Li 2 O 2, Li 2 O, Li 2 NiO 2, or mixture thereof; the non-reversible material coating layer is positioned on an outermost surface of the electrode assembly (10, 100); and the negative electrode (12, 120) includes a silicon (Si)-based material as a negative active material. outermost positive electrodes (11, 110) are positioned on outermost opposite surfaces of the electrode assembly (10, 100), respectively; each of the outermost positive electrodes (11, 110) includes a positive electrode current collector, a positive active material layer formed on one surface of the positive electrode current collector, and a non-reversible material coating layer formed on the other surface of the positive electrode current collector and including Li 2 O 2, Li 2 O, Li 2 NiO 2, or mixture thereof; the non-reversible material coating layer is positioned on an outermost surface of the electrode assembly (10, 100); and the negative electrode (12, 120) includes a silicon (Si)-based material as a negative active material.
A method of manufacturing an electrode for secondary batteries, comprising an electrode active material coated on an A1 current collector, the method comprising surface-treating the A1 current collector so as to have a morphology wherein a surface roughness R a of 0.1 μm to 1 μm is formed over an entire surface thereof, wherein the surface-treating is performed by chemical etching using a wet method, characterized in that the chemical etching is performed using a mixture of FeCl 3, HCl, and H 2 O as an etchant, wherein the electrode is an anode, or a cathode and an anode, wherein the cathode comprises, as a cathode active material, a lithium metal oxide represented by Formula 2 below, wherein the anode comprises, as an anode active material, a lithium metal oxide represented by Formula 4 below: Li x Ni y Mn 2-y O 4 wherein 0.9≤x≤1.2 and 0.4≤y≤0.5, Li a Ti b O 4 wherein 0.5≤a≤3 and 1≤b≤2.5.
A robotic arm arranged to advance into an environment, the arm having a controller arranged to control the shape thereof, the arm comprising at least one sensor provided along the length of the arm, the sensor being arranged to sense a parameter of the environment at or adjacent the sensor, and the controller being arranged to receive information from the sensor and use the information to control the shape of the arm, the robotic arm comprising a skin arranged at least partially to cover the outer surface of the arm, the or each sensor being provided by the skin, characterized in that the skin comprises at least two elongate members which are stiff in tension, the members extending the length of at least one segment, and being wound around the or each segment each in opposing directions, and being attached at or adjacent each end of the or each segment, to increase the torsional stiffness of the arm, and in which the members are conductors, for transmitting sensor signals.
A device for injecting a mixture of air and fuel into a combustion chamber of a turbomachine, the injection device having a symmetry of revolution about an axis Y and including, arranged from upstream to downstream in the gas flow direction, a sliding bushing connected by an annular cup to one or more radial or axial swirlers (41,42), the swirlers being provided with a first venturi and injecting pressurized air inside the injection device at an axial velocity V1 while at the same time causing it to rotate about the axis Y, a bowl spaced axially from the radial swirlers (41,42), the bowl including an upstream end, a cylindrical wall extended by a flared wall, and a downstream end, the injection device including a second venturi arranged inside the bowl coaxially to the axis Y, the second venturi comprising an upstream end, a cylindrical part extended by a divergent part and a downstream end, the cylindrical part of the second venturi being concentric with the cylindrical wall of the bowl, characterized in that the upstream end of the second venturi is arranged axially at the same level as the upstream end of the bowl, and in that the flared wall of the bowl is provided with two rows of orifices (63a, 63b) which are distributed circumferentially in a regular fashion and whose axes belong to a plane orthogonal to the flared wall of the bowl and have a tangential inclination in the opposite direction to the direction of rotation of the air injected by the swirlers, these rows of orifices (63a, 63b) injecting pressurized air at an axial velocity V2, the injected pressurized air being contrarotating with respect to the air injected by the swirlers.
A method comprising: forming a target well in an earthen formation; forming a drilling well in the earthen formation; positioning a magnetic source in the target well; positioning a magnetic sensor in the drilling well; activating the magnetic source; measuring the magnetic field in the drilling well as the magnetic sensor is moved through the drilling well while the magnetic source is active to determine whether the magnetic sensor is saturated or not saturated; identifying a location in the drilling well in which the magnetic sensor is not saturated while the magnetic source is active based on the measured magnetic field while the magnetic sensor is moved through the drilling well; and determining the direction and/or range to the target well at the location. forming a target well in an earthen formation; forming a drilling well in the earthen formation; positioning a magnetic source in the target well; positioning a magnetic sensor in the drilling well; activating the magnetic source; measuring the magnetic field in the drilling well as the magnetic sensor is moved through the drilling well while the magnetic source is active to determine whether the magnetic sensor is saturated or not saturated; identifying a location in the drilling well in which the magnetic sensor is not saturated while the magnetic source is active based on the measured magnetic field while the magnetic sensor is moved through the drilling well; and determining the direction and/or range to the target well at the location.
A self-foaming composition comprising: a. 20 wt% to less than 70 wt% polyol; and b. 1.5 wt% to 25% of total surfactant wherein 50 wt% or more of the total surfactant is a surfactant defined by a V h /l c a o value of 0.1 to 0.25, wherein V h is the volume of the hydrophobic groups of the micellar core, l c is the length of the hydrophobic group and a o is the cross-sectional area occupied by the hydrophilic group at the micelle-solution interface, wherein said surfactant defined by the V h /l c a o value of 0.1 to 0.25 is selected from the group consisting of sultaines, betaines, alkyl taurates, alkyl glutamates and glycinates, alkyl isethionate, alkyl glucosides, alkyl amphoacetate; and mixtures thereof; wherein viscosity of the formulation is 25 cP or less, measured at 25 °C; wherein composition comprises no more than 0 to 0.5wt% propellant gel or gas. a. 20 wt% to less than 70 wt% polyol; and b. 1.5 wt% to 25% of total surfactant wherein 50 wt% or more of the total surfactant is a surfactant defined by a V h /l c a o value of 0.1 to 0.25, wherein V h is the volume of the hydrophobic groups of the micellar core, l c is the length of the hydrophobic group and a o is the cross-sectional area occupied by the hydrophilic group at the micelle-solution interface, wherein said surfactant defined by the V h /l c a o value of 0.1 to 0.25 is selected from the group consisting of sultaines, betaines, alkyl taurates, alkyl glutamates and glycinates, alkyl isethionate, alkyl glucosides, alkyl amphoacetate; and mixtures thereof; wherein viscosity of the formulation is 25 cP or less, measured at 25 °C; wherein composition comprises no more than 0 to 0.5wt% propellant gel or gas.
A process for extracting DNA from cells without cell walls, said process comprising: (a) immersing said cells in an aqueous solution comprising a C 1 -C 4 alcohol at from 50% to 85% by weight, a cell lysis detergent at from 0.05% to 0.5% by weight, and a buffering agent maintaining a pH of from 7.5 to 9.0, and no protease, no reducing agent, and no non-detergent, inorganic salt, at a temperature of from 15°C to 35°C for from five seconds to thirty minutes, to cause DNA to be liberated from said cells and to precipitate; and (b) recovering said DNA so precipitated from said aqueous solution. (a) immersing said cells in an aqueous solution comprising a C 1 -C 4 alcohol at from 50% to 85% by weight, a cell lysis detergent at from 0.05% to 0.5% by weight, and a buffering agent maintaining a pH of from 7.5 to 9.0, and no protease, no reducing agent, and no non-detergent, inorganic salt, at a temperature of from 15°C to 35°C for from five seconds to thirty minutes, to cause DNA to be liberated from said cells and to precipitate; and (b) recovering said DNA so precipitated from said aqueous solution.
Multi-function antenna system with a radar reflector, having - at least two bipolar radiating elements, at least one of which is a primary-fed radiating element and/or at least one of which is a secondary-fed radiating element, - the radiating elements (21; 22) being symmetrically arranged in a cross-wise manner at an angle of 90° +/- 10° and being electrically connected to one another at least at their intersection, - the radiating elements (21, 22) being in the form of bipolar conductive surfaces on or in a dielectric carrier and being permanently connected to the latter, - the conductive surfaces decreasing from the inside outward and the decrease in the surfaces being determined by linear sections and non-linear sections, - the primary-fed radiating element having at least one line for coupling electromagnetic signals in and out, - the primary-fed radiating element feeding the secondary radiating elements, - the antenna being covered toward the top and bottom with a metal body in each case, in a manner orthogonal to the plane of symmetry, and the primary-fed radiating element and the secondary-fed radiating element being conductively and mechanically connected to these bodies, and - filters comprising planar structures and/or a combination of planar structures with concentrated components for reflecting signals from radar transmissions being arranged on the inside of the antenna in the feeding line on the dielectric carrier. - at least two bipolar radiating elements, at least one of which is a primary-fed radiating element and/or at least one of which is a secondary-fed radiating element, - the radiating elements (21; 22) being symmetrically arranged in a cross-wise manner at an angle of 90° +/- 10° and being electrically connected to one another at least at their intersection, - the radiating elements (21, 22) being in the form of bipolar conductive surfaces on or in a dielectric carrier and being permanently connected to the latter, - the conductive surfaces decreasing from the inside outward and the decrease in the surfaces being determined by linear sections and non-linear sections, - the primary-fed radiating element having at least one line for coupling electromagnetic signals in and out, - the primary-fed radiating element feeding the secondary radiating elements, - the antenna being covered toward the top and bottom with a metal body in each case, in a manner orthogonal to the plane of symmetry, and the primary-fed radiating element and the secondary-fed radiating element being conductively and mechanically connected to these bodies, and - filters comprising planar structures and/or a combination of planar structures with concentrated components for reflecting signals from radar transmissions being arranged on the inside of the antenna in the feeding line on the dielectric carrier.
Double-decker rail vehicle with at least one line which extends at least approximately from one end of the double-decker rail vehicle to the other end of the rail vehicle, characterised in that - the line is accommodated in a line channel, which is arranged below the vehicle body of the double-decker rail vehicle, wherein - the line channel has a channel shape adapted to the contour of the vehicle body underside, - the line channel comprises at least one receiving region for at least one electrical or optical cable and forms a cable channel and the line channel comprises a further receiving region for at least one pipeline, - the line channel has a centre region and two edge regions (150, 160), wherein the centre region lies deeper than the two edge regions, - the two edge regions are each arranged above a bogie (90, 100) of the rail vehicle and - the centre region of the line channel is fastened to the underside of the centre region of the vehicle body directly or indirectly. - the line is accommodated in a line channel, which is arranged below the vehicle body of the double-decker rail vehicle, wherein - the line channel has a channel shape adapted to the contour of the vehicle body underside, - the line channel comprises at least one receiving region for at least one electrical or optical cable and forms a cable channel and the line channel comprises a further receiving region for at least one pipeline, - the line channel has a centre region and two edge regions (150, 160), wherein the centre region lies deeper than the two edge regions, - the two edge regions are each arranged above a bogie (90, 100) of the rail vehicle and - the centre region of the line channel is fastened to the underside of the centre region of the vehicle body directly or indirectly.