mhurhangee/ep-ind-claims huggingface dataset:
A weather-resistant adhesive composition, characterized in containing a polyester polyol having an acid value of 30 to 150 equivalents/10 6 g and a polyisocyanate compound comprising an aliphatic polyisocyanate compound and/or an alicyclic polyisocyanate compound, wherein a glass transition temperature of the polyester polyol is -20 to 20°C and a number-average molecular weight of the polyester polyol is 5,000 to 40,000.
A steel cord for rubber reinforcement, said steel cord comprising a core strand and at least three outer strands twisted around said core strand, said core strand comprising at least one first core filament and multiple first outer filaments twisted around said at least one first core filament, each said outer strand comprising a number of second filaments (115, 120), at least one of said multiple first outer filaments is preformed prior to being twisted into said core strand, characterized in that all of said a number of second steel filaments (115, 120) are straight prior to being twisted to form said outer strand.
A control method implemented in a power converter comprising an inverter connected to a permanent magnet synchronous electric motor comprising a rotor and a stator, said electric motor being modeled in the power converter by a mathematical model of the currents of the electric motor expressing a flux current (I Sd) and a torque current (I Sq) as a function of magnetic saturation parameters (α x,y), representative of the mutual magnetic saturation between the rotor and the stator of the electric motor and of the intrinsic magnetic saturation of the rotor and of the stator, the control method comprising: - a step of application to the electric motor of a voltage sequence comprising a steady-state voltage signal and a high-frequency voltage signal along the axis of the flux and/or the axis of the torque of the motor, resulting in an oscillation of the current on the axis of the flux and/or on the axis of the torque, - a step of measurement of the oscillation of the current obtained on the axis of the flux and/or on the axis of the torque, - a step of determination of the saturation parameters, characterized in that the mathematical model of the electric motor is of Hamilton-Lagrange type and follows the following expression: H mS ψ Sd, ψ Sq = ψ Sd 2 2 ⋅ L d + ψ Sq 2 2 ⋅ L q + α 3,0 ⋅ ψ Sd 3 + α 1,2 ⋅ ψ Sd ψ Sq 2 + α 4,0 ⋅ ψ Sd 4 + α 2,2 ⋅ ψ Sd 2 ψ Sq 2 + α 0,4 ⋅ ψ Sq 4 in which: ψ S: complex writing of the stator leakage flux ψ Sd + j·ψ Sq, φ m: permanent flux, ψ Sd: d-axis stator leakage flux, ψ Sq: q-axis stator leakage flux, L d: d-axis inductance, L q: q-axis inductance, u S: stator voltage, R S: stator resistance, I S: stator current, ω: rotor speed (corresponding to n p × mechanical speed), J: inertia, n p: number of pairs of poles, τ EM: electromagnetic torque, τ: motor torque, α x,y: magnetic saturation parameters. - a step of application to the electric motor of a voltage sequence comprising a steady-state voltage signal and a high-frequency voltage signal along the axis of the flux and/or the axis of the torque of the motor, resulting in an oscillation of the current on the axis of the flux and/or on the axis of the torque, - a step of measurement of the oscillation of the current obtained on the axis of the flux and/or on the axis of the torque, - a step of determination of the saturation parameters, ψ S: complex writing of the stator leakage flux ψ Sd + j·ψ Sq, φ m: permanent flux, ψ Sd: d-axis stator leakage flux, ψ Sq: q-axis stator leakage flux, L d: d-axis inductance, L q: q-axis inductance, u S: stator voltage, R S: stator resistance, I S: stator current, ω: rotor speed (corresponding to n p × mechanical speed), J: inertia, n p: number of pairs of poles, τ EM: electromagnetic torque, τ: motor torque, α x,y: magnetic saturation parameters.
A method for controlling a physical layer state, comprising: receiving, by a base station, a notification sent from a radio network controller, RNC, wherein the notification is sent by the RNC according to capability information of a terminal and access layer version information of the terminal, wherein the capability information of the terminal and the access layer version information of the terminal are sent by the terminal to the RNC, and the capability information of the terminal is that the terminal is supporting a dual-cell high speed downlink packet access, DC-HSDPA, feature; and sending, by the base station according to the notification, a high speed shared control channel, HS-SCCH, order to the terminal for controlling a DC-HSDPA physical layer state of the terminal when the access layer version information of the terminal is a universal mobile telecommunications system, UMTS, release 9, R9, or a universal mobile telecommunications system, UMTS, version later than UMTS R9; or not sending, by the base station according to the notification, a high speed shared control channel, HS-SCCH, order to the terminal for controlling a DC-HSDPA physical layer state of the terminal when the access layer version information of the terminal is a universal mobile telecommunications system, UMTS, release 8, R8, or a universal mobile telecommunications system, UMTS, version earlier than UMTS R8. receiving, by a base station, a notification sent from a radio network controller, RNC, wherein the notification is sent by the RNC according to capability information of a terminal and access layer version information of the terminal, wherein the capability information of the terminal and the access layer version information of the terminal are sent by the terminal to the RNC, and the capability information of the terminal is that the terminal is supporting a dual-cell high speed downlink packet access, DC-HSDPA, feature; and sending, by the base station according to the notification, a high speed shared control channel, HS-SCCH, order to the terminal for controlling a DC-HSDPA physical layer state of the terminal when the access layer version information of the terminal is a universal mobile telecommunications system, UMTS, release 9, R9, or a universal mobile telecommunications system, UMTS, version later than UMTS R9; or not sending, by the base station according to the notification, a high speed shared control channel, HS-SCCH, order to the terminal for controlling a DC-HSDPA physical layer state of the terminal when the access layer version information of the terminal is a universal mobile telecommunications system, UMTS, release 8, R8, or a universal mobile telecommunications system, UMTS, version earlier than UMTS R8.
An Identifier, abbrieviated as ID, allocation method, comprising: sending, by a non-AP Station, abbrieviated as STA, a first radio frame to an Access Point, abbrieviated as AP; and sending, by the AP, the STA a second radio frame carrying group ID information and second station ID information allocated to the STA, wherein the method further comprises: before the sending, by the STA, the first radio frame to the AP, sending, by the STA, an Association Request frame / a Reassociation Request frame to the AP; and sending, by the AP, the STA an Association Response frame / a Reassociation Response frame carrying a first station ID information of the STA, characterised in that the group ID information and the second station ID information carried by the second radio frame are group ID information and second station ID information allocated to the STA according to an ID allocation parameter carried by the first radio frame; and the second station ID information can be the same as or different from the first station ID information, the ID allocation parameter comprises one or more of the following: a category of application, a provider ID, a power-saving capability, and an operator ID of the STA. sending, by a non-AP Station, abbrieviated as STA, a first radio frame to an Access Point, abbrieviated as AP; and sending, by the AP, the STA a second radio frame carrying group ID information and second station ID information allocated to the STA, wherein the method further comprises: before the sending, by the STA, the first radio frame to the AP, sending, by the STA, an Association Request frame / a Reassociation Request frame to the AP; and sending, by the AP, the STA an Association Response frame / a Reassociation Response frame carrying a first station ID information of the STA, characterised in that the group ID information and the second station ID information carried by the second radio frame are group ID information and second station ID information allocated to the STA according to an ID allocation parameter carried by the first radio frame; and the second station ID information can be the same as or different from the first station ID information, the ID allocation parameter comprises one or more of the following: a category of application, a provider ID, a power-saving capability, and an operator ID of the STA.
A method for in situ remediation of a damaged support row assembly of a three row, roller bearing assembly, the three row, roller bearing assembly rotatively coupling a vessel to a turret, the three row, roller bearing assembly having a radial row assembly and an uplift row assembly disposed between an inner ring connected to the turret and outer upper and lower rings (42, 22) connected to the vessel, the method comprising the steps of: removing the outer upper ring from engagement with the outer lower ring; installing a circumferential support ring on the outer lower ring; installing at least a portion of a remedial support row assembly on the support ring; positioning a circumferential reaction ring above the support ring; connecting the reaction ring to the inner ring secured to the turret; axially displacing the inner ring and turret relative to the outer lower ring and transferring the turret axial loading to the remedial support row assembly between the support ring and the reaction ring; and securing the inner ring and turret in the axially displaced position. removing the outer upper ring from engagement with the outer lower ring; installing a circumferential support ring on the outer lower ring; installing at least a portion of a remedial support row assembly on the support ring; positioning a circumferential reaction ring above the support ring; connecting the reaction ring to the inner ring secured to the turret; axially displacing the inner ring and turret relative to the outer lower ring and transferring the turret axial loading to the remedial support row assembly between the support ring and the reaction ring; and securing the inner ring and turret in the axially displaced position.
A method of minimizing C-Rate fluctuations with a climate controlled transport unit (CCTU) (140, 160), characterised in that the method comprises: determining a first C-Rate of a Rechargeable Energy Storage System (RESS); comparing the first C-Rate to a first predetermined threshold; when the first C-Rate exceeds the first predetermined threshold, a controller (125, 135, 156, 180, 195, 321) of the CCTU determining a first operational mode of the CCTU; the controller adjusting the load of the CCTU based on the first operational mode. determining a first C-Rate of a Rechargeable Energy Storage System (RESS); comparing the first C-Rate to a first predetermined threshold; when the first C-Rate exceeds the first predetermined threshold, a controller (125, 135, 156, 180, 195, 321) of the CCTU determining a first operational mode of the CCTU; the controller adjusting the load of the CCTU based on the first operational mode.
A balloon catheter for delivering a therapeutic agent to a tissue, the balloon catheter comprising a layer overlying an exterior surface of the balloon catheter, the layer comprising a therapeutic agent, butylated hydroxyanisole ("BHA"), and an additive, and wherein the additive comprises a hydrophilic part and a drug affinity part, wherein the drug affinity part is at least one of a hydrophobic part, a part that has an affinity to the therapeutic agent by hydrogen bonding, and a part that has an affinity to the therapeutic agent by van der Waals interactions, wherein the additive is water-soluble, wherein the additive is at least one of a surfactant and a chemical compound, and wherein the chemical compound has one or more hydroxyl, amino, carbonyl, carboxyl, acid, amide or ester groups.
A combination comprising or consisting of: - polyethoxylated sorbitan monolaurate; - at least 1% by weight of at least one mannosylerythritol lipid; - monopropylene glycol; and - optionally a fatty acid and/or a fatty acid ester; wherein the total amount of polyethoxylated sorbitan monolaurate and mannosylerythritol lipid(s) is at least 25% by weight, the weight percentages being relative to the weight of the combination. - polyethoxylated sorbitan monolaurate; - at least 1% by weight of at least one mannosylerythritol lipid; - monopropylene glycol; and - optionally a fatty acid and/or a fatty acid ester; wherein the total amount of polyethoxylated sorbitan monolaurate and mannosylerythritol lipid(s) is at least 25% by weight, the weight percentages being relative to the weight of the combination.
A separator having heat resistant insulation layers for an electric device, the separator comprising: a resin porous substrate; and heat resistant insulation layers formed on both surfaces of the resin porous substrate and containing heat resistant particles having a melting point or a thermal softening point of 150°C or higher, wherein a parameter X represented by the following mathematical formula 1 is greater than or equal to 0.15: X = Aʹ + Aʺ C × Aʹ / Aʺ 2 where A' and A" represent thicknesses (μm) of the respective heat resistant insulation layers formed on both surfaces of the resin porous substrate while fulfilling a condition of A' > A", and C represents an entire thickness (μm) of the separator having the heat resistant insulation layers, characterized in that a parameter Y represented by the following mathematical formula 2 is in a range from 0.3 to 0.7: Y = X D / 100 where D represents a porosity (%) of the respective heat resistant insulation layers. a resin porous substrate; and heat resistant insulation layers formed on both surfaces of the resin porous substrate and containing heat resistant particles having a melting point or a thermal softening point of 150°C or higher, wherein a parameter X represented by the following mathematical formula 1 is greater than or equal to 0.15: X = Aʹ + Aʺ C × Aʹ / Aʺ 2 where A' and A" represent thicknesses (μm) of the respective heat resistant insulation layers formed on both surfaces of the resin porous substrate while fulfilling a condition of A' > A", and C represents an entire thickness (μm) of the separator having the heat resistant insulation layers, characterized in that a parameter Y represented by the following mathematical formula 2 is in a range from 0.3 to 0.7: Y = X D / 100 where D represents a porosity (%) of the respective heat resistant insulation layers.
Food processing system comprising a recipient for processing food ingredients and at least one weighing arrangement adapted for weighing the food ingredients inside said recipient, and further comprising a casing adapted to support said recipient and confining said weighing arrangement, a heating arrangement adapted to provide heating to said recipient and a driving arrangement adapted to provide driving actuation to a tool support provided so as to drive a tool disposed inside said recipient, characterized in that said weighing arrangement comprises an elongated form extending in a first direction along at least most of an extension of said casing, and comprises a structural member and at least one weighing member provided as a single piece, whereby said structural member extends along said first direction thereby defining the overall volume of said weighing arrangement, and whereby said weighing member is provided as a cutout within the total extension of said structural member.
A method of inhibiting corrosion of a metal or metal alloy comprising: introducing an organic chemical blend additive to a production well, where the organic chemical blend additive comprises: a nitrate selected from a group consisting of calcium nitrate, sodium nitrate, potassium nitrate, and a combination thereof, a maleic acid copolymer, an organic solvent in an amount greater than 50 wt.%, based on a total amount of the organic chemical blend additive, and less than 10 wt.% water, based on a total amount of the organic chemical blend additive. a nitrate selected from a group consisting of calcium nitrate, sodium nitrate, potassium nitrate, and a combination thereof, a maleic acid copolymer, an organic solvent in an amount greater than 50 wt.%, based on a total amount of the organic chemical blend additive, and less than 10 wt.% water, based on a total amount of the organic chemical blend additive.
A wave power station for conversion and storage of wave energy from ocean or sea waves, which wave power station comprises an energy absorbing unit comprising a first floating body connected to a vertically hanging counterweight via a drive line and a drive wheel, at least one power generating unit (3, 9), for conversion of wave energy, connected to a drive shaft, and a power accumulating unit comprising at least one power accumulator for storage of converted wave energy, characterised in that the power generating unit and the power accumulating unit are arranged in a central cavity in a toroidal second floating body firmly anchored under the first floating body, wherein the drive line is connected to said at least one power generation unit via the drive wheel and a coupling and transmission unit arranged on the drive shaft for driving of said at least one power generation unit, wherein said at least one power generation unit comprises two opposite-acting electric generators, with opposite direction of rotation relative to each other, arranged on the drive shaft, for alternate generation of electric current via the up and down movements of the drive line in time with the wave movements, wherein the drive shaft, the drive wheel, the coupling and transmission unit, said at least one power generation unit and said at least one power accumulator are arranged in a container in the central cavity of the toroidal second floating body, and wherein said at least one power accumulator comprises at least two chargeable battery cells for storage of electric current from the two opposite-acting electric generators.
A method for making a coated glass, comprising: providing glass to be coated; coating the glass with a liquid phase coating; baking and/or UV hardening the coating on the glass; wherein the coating to be deposited by liquid phase coating is formed by combining: a first monomer having the chemical formula R 11 x R 12 y SiC 3 H 6 R 13, wherein R 11 is an alkoxy, acetoxy or chloro group and where x is 2 or 3, and wherein R 12 is an alkyl group where y is 0 or 1, and wherein R 13 is an epoxy, acrylate, or methacrylate group; a second monomer having the chemical formula R 14 a R 15 b SiC 2 H 4 n, wherein R 14 is an alkoxy, acetoxy or chloro group and where a is 2 or 3, and wherein R 15 is an alkyl group where b is 0 or 1, and wherein n is an integer from 3 to 25; and a third monomer having the chemical formula R 16 c R 17 d SiC 2 H 4 SiR 18 e R 19 f, wherein R 16 is a an alkoxy, acetoxy or chloro group and wherein c = 2 or 3, wherein R 17 is an alkyl group or H and wherein d = 0 or 1, wherein R 18 is an alkoxy, acetoxy or chloro group and wherein e = 2 or 3, and wherein R 19 is an alkyl group or H and wherein f = 0 or 1. providing glass to be coated; coating the glass with a liquid phase coating; baking and/or UV hardening the coating on the glass; a first monomer having the chemical formula R 11 x R 12 y SiC 3 H 6 R 13, wherein R 11 is an alkoxy, acetoxy or chloro group and where x is 2 or 3, and wherein R 12 is an alkyl group where y is 0 or 1, and wherein R 13 is an epoxy, acrylate, or methacrylate group; a second monomer having the chemical formula R 14 a R 15 b SiC 2 H 4 n, wherein R 14 is an alkoxy, acetoxy or chloro group and where a is 2 or 3, and wherein R 15 is an alkyl group where b is 0 or 1, and wherein n is an integer from 3 to 25; and a third monomer having the chemical formula R 16 c R 17 d SiC 2 H 4 SiR 18 e R 19 f,
A communications apparatus, comprising: a first radio module, being configured to communicate with a first wireless network to provide wireless communications services in compliance with a first radio access technology, RAT; a second radio module, being configured to communicate with a second wireless network to provide wireless communications services in compliance with a second RAT; and at least two antennas (ANT1, ANT2), shared by the first radio module and the second radio module for transmitting and receiving radio frequency, RF, signals to and from an air interface, characterized in that, when the first radio module operates in a connected mode using the at least two antennas (ANT1, ANT2), and when the timing of a first receiving activity to be performed by the first radio module coincides with the timing of a second receiving activity to be performed by the second radio module the second radio module is configured to use one of the at least two antennas (ANT1, ANT2) to perform the second receiving activity. a first radio module, being configured to communicate with a first wireless network to provide wireless communications services in compliance with a first radio access technology, RAT; a second radio module, being configured to communicate with a second wireless network to provide wireless communications services in compliance with a second RAT; and at least two antennas (ANT1, ANT2), shared by the first radio module and the second radio module for transmitting and receiving radio frequency, RF, signals to and from an air interface, characterized in that, when the first radio module operates in a connected mode using the at least two antennas (ANT1, ANT2), and when the timing of a first receiving activity to be performed by the first radio module coincides with the timing of a second receiving activity to be performed by the second radio module the second radio module is configured to use one of the at least two antennas (ANT1, ANT2) to perform the second receiving activity.