mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving a message at a base station of a first cell from a management server comprising state information for the first cell and state information for any neighbouring cells of the first cell, wherein the state information comprises at least one of the following states: Normal; Energy saving ES compensating; Active Antenna System AAS reshape; AAS split; AAS merge; using the state information at the base station of the first cell to determine a neighbouring relationship between the first cell and any neighbouring cells, wherein based on the different cell states, the cell can have different neighbours; activating at the base station of the first cell at least one performance management counter based on the combination of states of the determined current cell and the neighbouring cell(s); collecting at the base station of the first cell the at least one performance management counter associated with the state of the first cell and at least one state of the any neighbouring cell(s); and reporting by the base station of the first cell at the end of at least one measurement collection period the defined at least one performance management counter to the management server. receiving a message at a base station of a first cell from a management server comprising state information for the first cell and state information for any neighbouring cells of the first cell, wherein the state information comprises at least one of the following states: Normal; Energy saving ES compensating; Active Antenna System AAS reshape; AAS split; AAS merge; Normal; Energy saving ES compensating; Active Antenna System AAS reshape; AAS split; AAS merge; using the state information at the base station of the first cell to determine a neighbouring relationship between the first cell and any neighbouring cells, wherein based on the different cell states, the cell can have different neighbours; activating at the base station of the first cell at least one performance management counter based on the combination of states of the determined current cell and the neighbouring cell(s); collecting at the base station of the first cell the at least one performance management counter associated with the state of the first cell and at least one state of the any neighbouring cell(s); and reporting by the base station of the first cell at the end of at least one measurement collection period the defined at least one performance management counter to the management server.
A variable capacitor-based antenna adjustment method, applied to an antenna having a variable capacitor, wherein the antenna having the variable capacitor supports at least two communications systems and the antenna adjustment method comprises: detecting a first signal strength of a first communications system supported by the antenna having the variable capacitor; determining whether the first signal strength meets a first release condition, wherein the first release condition comprises: the first signal strength is greater than a first threshold, or the first signal strength is not less than a first threshold; and when the first signal strength meets the first release condition, adjusting a capacitance value of the variable capacitor to a preset capacitance value, wherein the preset capacitance value is between a first capacitance value and a second capacitance value, or equal to a second capacitance value, wherein the first capacitance value is a capacitance value corresponding to a working frequency band of the first communications system, and the second capacitance value is a capacitance value corresponding to a working frequency band of a second communications system supported by the antenna having the variable capacitor. detecting a first signal strength of a first communications system supported by the antenna having the variable capacitor; determining whether the first signal strength meets a first release condition, wherein the first release condition comprises: the first signal strength is greater than a first threshold, or the first signal strength is not less than a first threshold; and when the first signal strength meets the first release condition, adjusting a capacitance value of the variable capacitor to a preset capacitance value, wherein the preset capacitance value is between a first capacitance value and a second capacitance value, or equal to a second capacitance value, wherein the first capacitance value is a capacitance value corresponding to a working frequency band of the first communications system, and the second capacitance value is a capacitance value corresponding to a working frequency band of a second communications system supported by the antenna having the variable capacitor.
A method of operating a radar with a finite state machine, the method comprising: transmitting a radiation pulse with the radar during an active mode; asserting a sleep flag after transmitting the radiation pulse; turning off a crystal oscillator circuit of the radar after the sleep flag is asserted; clocking a counter of the radar with a low power oscillator during a low power mode after the sleep flag is asserted; asserting a timer flag when the counter reaches a first threshold; and transitioning into the active mode after the timer flag is asserted. transmitting a radiation pulse with the radar during an active mode; asserting a sleep flag after transmitting the radiation pulse; turning off a crystal oscillator circuit of the radar after the sleep flag is asserted; clocking a counter of the radar with a low power oscillator during a low power mode after the sleep flag is asserted; asserting a timer flag when the counter reaches a first threshold; and transitioning into the active mode after the timer flag is asserted.
A wireless communication apparatus comprising: a wireless communicator configured to wirelessly communicate with other wireless communication apparatuses; and a controller configured to control the wireless communicator to broadcast transmission information, characterized in that the controller configured to, when the wireless communicator receives a plurality of requests corresponding on the transmission information from the other wireless communication apparatuses having received the transmission information during the broadcasting of the transmission information, control the wireless communicator to change, based on a number of the plurality of requests received, transmission power of the transmission information to the other wireless communication apparatuses into a first transmission power or a second transmission power higher than the first transmission power. a wireless communicator configured to wirelessly communicate with other wireless communication apparatuses; and a controller configured to control the wireless communicator to broadcast transmission information,
A pneumatic tire (1, 21, 31) comprising: a tread; a plurality of land portions (5a, 5b) on the tread, defined by at least one circumferential main groove (3, 33) extending in a tire circumferential direction; and a plurality of blocks on the tread in a shoulder land portion located outermost in a tire width direction among the land portions (5a, 5b), the blocks being defined by a plurality of narrow grooves (7a, 7b) with a groove width narrower than that of the circumferential main groove (3, 33) and by at least one auxiliary groove with a groove width that increases outward in the tire width direction at least in a region not adjacent to the circumferential main groove (3, 33), characterized in that an area of a tread surface of each of the blocks is in a range of 100 mm 2 to 200 mm 2. a tread; a plurality of land portions (5a, 5b) on the tread, defined by at least one circumferential main groove (3, 33) extending in a tire circumferential direction; and a plurality of blocks on the tread in a shoulder land portion located outermost in a tire width direction among the land portions (5a, 5b), the blocks being defined by a plurality of narrow grooves (7a, 7b) with a groove width narrower than that of the circumferential main groove (3, 33) and by at least one auxiliary groove with a groove width that increases outward in the tire width direction at least in a region not adjacent to the circumferential main groove (3, 33), characterized in that an area of a tread surface of each of the blocks is in a range of 100 mm 2 to 200 mm 2.
A process for producing mineral oil from underground mineral oil deposits into which at least one injection well and at least one production well have been sunk, comprising at least the following process steps: 1) injecting one or more flooding media into at least one injection well and withdrawing mineral oil through at least one production well, 2) blocking high-permeability zones of the mineral oil deposit in the region between the at least one injection well and the at least one production well by injecting at least one formulation into the mineral oil deposit through the at least one injection well, and 3) continuing the injection of one or more flooding media into the injection well and withdrawing mineral oil through at least one production well, where the formulation comprises 10 to 99.9% by weight of crude glycerol, 0.1 to 3% by weight of cellulose ether and 0 to 60% by weight of water and the percentages by weight are each based on the total weight of the formulation, where the crude glycerol has the following composition: 80 to 90% by weight of glycerol, 10 to 20% by weight of water, 0 to 10% by weight of inorganic salts and 0 to 1% by weight of organic compounds, where the percentages by weight are each based on the total weight of the crude glycerol and where the formulation forms a gel in the high-permeability zones of the mineral oil deposit. 1) injecting one or more flooding media into at least one injection well and withdrawing mineral oil through at least one production well, 2) blocking high-permeability zones of the mineral oil deposit in the region between the at least one injection well and the at least one production well by injecting at least one formulation into the mineral oil deposit through the at least one injection well, and 3) continuing the injection of one or more flooding media into the injection well and withdrawing mineral oil through at least one production well, 80 to 90% by weight of glycerol, 10 to 20% by weight of water, 0 to 10% by weight of inorganic salts and 0 to 1% by weight of organic compounds,
A substrate composite film for thermal transfer printing comprising: a biaxially oriented base layer comprising polyester, a first type of lubricant particles, and a second type of lubricant particles, wherein the substrate composite film satisfies the following: a ratio of maximum height SRma and peak count SPc is 1≤SRma/SPc≤4.5, a center plane average roughness Sra is 15 to 30 nm, coefficient of dynamic friction is < 0.60, 20 and 60 degree gloss is greater than 160 SGU, and the 20 degree gloss is equal in all directions, and the 60 degree gloss is equal in all directions. a biaxially oriented base layer comprising polyester, a first type of lubricant particles, and a second type of lubricant particles, wherein the substrate composite film satisfies the following: a ratio of maximum height SRma and peak count SPc is 1≤SRma/SPc≤4.5, a center plane average roughness Sra is 15 to 30 nm, coefficient of dynamic friction is < 0.60, 20 and 60 degree gloss is greater than 160 SGU, and the 20 degree gloss is equal in all directions, and the 60 degree gloss is equal in all directions. a ratio of maximum height SRma and peak count SPc is 1≤SRma/SPc≤4.5, a center plane average roughness Sra is 15 to 30 nm, coefficient of dynamic friction is < 0.60, 20 and 60 degree gloss is greater than 160 SGU, and the 20 degree gloss is equal in all directions, and the 60 degree gloss is equal in all directions.
Constructive system for the estimation of the value of the voltage of a live element, wherein said system extends along an axis defined longitudinally, in which said system with respect to said longitudinal axis defines a vicinal end and a distal end, comprising a first tubular element, a second tubular element, an electric field sensor and a mass of dielectric material; wherein said first tubular element carries out the function of source electrode and is connected by means of conductive coupling with said live element; wherein said second tubular element carries out the function of shielding electrode and is connected to earth or to a known potential; wherein said electric field sensor carries out the function of detecting the electric field generated by said first tubular element; wherein said mass of dielectric material carries out the function of incorporating and positioning said elements ( 100, 200, 300) between them; wherein said first tubular element is arranged coaxially with respect to said longitudinal axis and said second tubular element is arranged coaxially with respect to said longitudinal axis; wherein said electric field sensor is positioned between said two tubular elements ( 100, 200) and is electrically insulated with respect to said first tubular element and with respect to said second tubular element.
Method of producing an oligomer of modular antibody domains which binds to a target and a scaffold ligand, wherein the scaffold ligand binds to the backbone of the oligomer of modular antibody domains regardless of the target specificity of the oligomer of modular antibody domains, and wherein the oligomer of modular antibody domains comprises a CH2 and a CH3 domain, with at least one structural loop region, characterised in that said at least one loop region comprises at least one amino acid modification forming at least one modified loop region, wherein said at least one modified loop region binds specifically to said target, the method comprising the steps of: a. providing a library of oligomers of modular antibody domains by a method comprising i. providing a genetic package, wherein the genetic package is yeast, and ii. displaying at least two of the domains by fusing them to the outer surface of the genetic package, so that a genetic package displaying oligomers of modular antibody domains capable of binding to a target and to a scaffold ligand is prepared, b. contacting said library with said target in the presence of said scaffold ligand, c. selecting a library member binding to said target in the presence of said scaffold ligand, and d. manufacturing a preparation of the functional oligomer of modular antibody domains. a. providing a library of oligomers of modular antibody domains by a method comprising i. providing a genetic package, wherein the genetic package is yeast, and ii. displaying at least two of the domains by fusing them to the outer surface of the genetic package, so that a genetic package displaying oligomers of modular antibody domains capable of binding to a target and to a scaffold ligand is prepared, i. providing a genetic package, wherein the genetic package is yeast, and ii. displaying at least two of the domains by fusing them to the outer surface of the genetic package, so that a genetic package displaying oligomers of modular antibody domains capable of binding to a target and to a scaffold ligand is prepared, b. contacting said library with said target in the presence of said scaffold ligand, c. selecting a library member binding to said target in the presence of said scaffold ligand, and d. manufacturing a preparation of the functional oligomer of modular antibody domains.
A balancing device (201, 301, 303) for determining a fluid balance between a flow quantity in a first flow path of a dialysis fluid circulation forming an inflow into a dialysis fluid chamber of a dialyzer and a flow quantity in a second flow path of the dialysis fluid circulation forming an outflow out of the dialysis fluid chamber of the dialyzer, comprising a differential flow-measuring unit for measuring the differential flow between a flow in a flow-measuring cell disposed downstream from the dialysis fluid chamber in the dialysis fluid circulation, and a flow in a flow-measuring cell disposed upstream from the dialysis fluid chamber in the dialysis fluid circulation, wherein the first flow-measuring cell is disposed in the first flow path, and the second flow-measuring cell is disposed in the second flow path, wherein the balancing device is characterized by a branch from the first flow path disposed downstream from the first flow-measuring cell for branching fluid off from the first flow path into an additional flow path parallel to the first flow-measuring cell, wherein the additional flow path discharges into the first flow path upstream from the first flow-measuring cell, a device for adjusting the flow quantity (P12, P14) in the additional flow path, which can be controlled in such a way that the measured differential flow fulfills a predetermined condition, and a device for determining the flow quantity in the additional flow path as a measure of the amount of ultrafiltrate withdrawn in the dialyzer, and wherein the device for adjusting the flow quantity (P12, P14) in the additional flow path is embodied as an adjustable pump (P11, P12), and wherein the predetermined condition is satisfied when the differential flow is approximately zero.
A LIDAR system comprising at least one laser source and an optical detection system for detecting radiation emitted by the laser source and reflected by a scene to be observed, characterised in that: - the laser source is adapted to emit simultaneously at n > 1 separate wavelengths λ i, i∈[1,n]; - the LIDAR system also comprises a diffractive optical component configured to direct the radiation emitted by the laser source to the scene to be observed in a different direction for each said wavelength simultaneously, said directions being located in one and the same plane xz; and - the optical detection system comprises at least one photodiode arranged so as to be illuminated by the radiation reflected by the scene to be observed, characterised in that the optical detection system also comprises an optical system, which is configured to direct laser radiation, emitted by said or another laser source and having a wavelength λ 0 which is different from said n wavelengths λ i, to the one or more photodiodes, such that the one or more photodiodes generate a signal comprising the beats of the wavelengths of the radiation reflected by the scene to be observed with the radiation having the wavelength λ 0. - the laser source is adapted to emit simultaneously at n > 1 separate wavelengths λ i, i∈[1,n]; - the LIDAR system also comprises a diffractive optical component configured to direct the radiation emitted by the laser source to the scene to be observed in a different direction for each said wavelength simultaneously, said directions being located in one and the same plane xz; and - the optical detection system comprises at least one photodiode arranged so as to be illuminated by the radiation reflected by the scene to be observed, characterised in that the optical detection system also comprises an optical system, which is configured to direct laser radiation, emitted by said or another laser source and having a wavelength λ 0 which is different from said n wavelengths λ i, to the one or more photodiodes, such that the one or more photodiodes generate a signal comprising the beats of the wavelengths of the radiation reflected by the scene to be observed with the radiation having the wavelength λ 0.
A travelable area display method comprising: computing a travelable distance from a current position of an electric vehicle, based on the electric power consumption and battery residual amount of the electric vehicle; accumulating movement history information of the electric vehicle; characterized by specifying a feature spot which a driver can recognize on the basis of the accumulated movement history information; and simultaneously displaying, on a map on an in-vehicle screen, a line map sectionalizing an inner side and an outer side of a travelable area which is specified by the computed travelable distance, and the specified feature spot, wherein the feature spot is displayed regardless of the inner side and the outer side of the line map. computing a travelable distance from a current position of an electric vehicle, based on the electric power consumption and battery residual amount of the electric vehicle; accumulating movement history information of the electric vehicle; characterized by specifying a feature spot which a driver can recognize on the basis of the accumulated movement history information; and simultaneously displaying, on a map on an in-vehicle screen, a line map sectionalizing an inner side and an outer side of a travelable area which is specified by the computed travelable distance, and the specified feature spot, wherein the feature spot is displayed regardless of the inner side and the outer side of the line map.
Toner particles in a toner for electrostatic latent image development, which are formed by aggregating fine particles containing a binder resin and fine particles containing a release agent in an aqueous medium to form aggregated particles, or by aggregating fine particles containing a binder resin and a release agent in an aqueous medium to form aggregated particles, and heating the resulting aggregated particles in an aqueous medium to coalesce components contained in the aggregated particles, wherein the binder resin is a polyester resin, and wherein the toner has a component ratio Y (mass ppm) of oligomers having a molecular weight of 1000 or less in the toner, which is calculated in accordance with a method comprising the following steps to, of 1000 mass ppm or less. a step of obtaining a methanol extract, containing oligomer derived from the binder resin, by stirring 100g of a sample of the toner for electrostatic latent image development in 500 g of methanol at 60°C for 8 hours, a step of measuring a content of oligomers having a molecular weight of 1000 or less of oligomers contained in the methanol extract, and obtaining a mass X (g) of the oligomers having a molecular weight of 1000 or less contained in the whole amount of the methanol extract, and a step of calculating the component ratio in accordance with the following formula: Y = X / 100 the mass of the toner sample × 1000000. a step of obtaining a methanol extract, containing oligomer derived from the binder resin, by stirring 100g of a sample of the toner for electrostatic latent image development in 500 g of methanol at 60°C for 8 hours, a step of measuring a content of oligomers having a molecular weight of 1000 or less of oligomers contained in the methanol extract, and obtaining a mass X (g) of the oligomers having a molecular weight of 1000 or less contained in the whole amount of the methanol extract, and a step of calculating the component ratio in accordance with the following formula: Y = X / 100 the mass of the toner sample × 1000000.