mhurhangee/ep-ind-claims huggingface dataset:
Polymer composition comprising a) 100 parts by weight of a polyamide; b) 0.5 to 20 parts by weight of one or more adhesion-promoting additives of the formula: M a M' b D c D' d with M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] where each R is independently methyl or phenyl and R' is a glycidyloxypropyl radical of the formula and where the indices are as follows: a = 0 to 2 b = 0 to 2 c = 15 to 100 d = 0 to 50 a + b = 2 and b + d ≥ 2, where a ratio of the sum total of the indices a + c to the sum total of the indices b + d is in the range from 4 to 20. a) 100 parts by weight of a polyamide; b) 0.5 to 20 parts by weight of one or more adhesion-promoting additives of the formula: M a M' b D c D' d with M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] where each R is independently methyl or phenyl and R' is a glycidyloxypropyl radical of the formula and where the indices are as follows: a = 0 to 2 b = 0 to 2 c = 15 to 100 d = 0 to 50 a + b = 2 and b + d ≥ 2, where a ratio of the sum total of the indices a + c to the sum total of the indices b + d is in the range from 4 to 20. M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] a = 0 to 2 b = 0 to 2 c = 15 to 100 d = 0 to 50 a + b = 2 and b + d ≥ 2,
A mobile grandmaster clock comprising: a Global Navigation Satellite System, GNSS, interface configured to receive GNSS time sync data; a Real Time Clock, RTC, with a crystal oscillator; one or more communication interfaces configured to exchange data with clock correction sources; and a clock correction host configured to compute clock drift based on the GNSS time sync data and the data from the clock correction sources, configured to generate adjusted clock data, and configured to write the adjusted clock data to the Real Time Clock, RTC, from different geographic locations, the grandmaster clock configured to support multiple time domains. a Global Navigation Satellite System, GNSS, interface configured to receive GNSS time sync data; a Real Time Clock, RTC, with a crystal oscillator; one or more communication interfaces configured to exchange data with clock correction sources; and a clock correction host configured to compute clock drift based on the GNSS time sync data and the data from the clock correction sources, configured to generate adjusted clock data, and configured to write the adjusted clock data to the Real Time Clock, RTC, from different geographic locations, the grandmaster clock configured to support multiple time domains.
Superconductor heating point monitoring system including: - a superconductor; - a first optical waveguide attached to the superconductor for providing a first optical signal; and characterized by a second optical waveguide for providing a reference signal; and by - interference means configured to overlay or superimpose the first optical signal and the reference optical signal to produce an optical interference signal. - a superconductor; - a first optical waveguide attached to the superconductor for providing a first optical signal; and characterized by a second optical waveguide for providing a reference signal; and by - interference means configured to overlay or superimpose the first optical signal and the reference optical signal to produce an optical interference signal.
An environmental control system for a space vehicle, comprising: an oxygen supply (206, 306); a nitrogen supply (208, 308); a supervisory controller configured to control the first pressure nitrogen supply and thereby to adjust a partial pressure of oxygen and an ambient pressure of an oxygen/nitrogen gas mixture within a first module, characterized by a first pressure control panel (212, 312) including a first oxygen control board (252, 352) configured to receive an oxygen gas from the oxygen supply (206, 306) the first oxygen control board including an oxygen pressure transducer configured to determine an oxygen pressure within the first oxygen control board, and an oxygen solenoid valve configured to regulate and to release the oxygen gas into the first module, and a first nitrogen control board (256, 356) configured to receive a nitrogen gas from the nitrogen supply (208, 308), the first nitrogen control board including a nitrogen pressure transducer configured to determine a nitrogen pressure within the first nitrogen control board, and a nitrogen solenoid valve configured to regulate and to release the nitrogen gas into the first module. an oxygen supply (206, 306); a nitrogen supply (208, 308); a supervisory controller configured to control the first pressure nitrogen supply and thereby to adjust a partial pressure of oxygen and an ambient pressure of an oxygen/nitrogen gas mixture within a first module, characterized by a first pressure control panel (212, 312) including a first oxygen control board (252, 352) configured to receive an oxygen gas from the oxygen supply (206, 306) the first oxygen control board including an oxygen pressure transducer configured to determine an oxygen pressure within the first oxygen control board, and an oxygen solenoid valve configured to regulate and to release the oxygen gas into the first module, and a first nitrogen control board (256, 356) configured to receive a nitrogen gas from the nitrogen supply (208, 308), the first nitrogen control board including a nitrogen pressure transducer configured to determine a nitrogen pressure within the first nitrogen control board, and a nitrogen solenoid valve configured to regulate and to release the nitrogen gas into the first module.
A method of producing boron trichloride, comprising performing reaction between chlorine gas in a gas containing the chlorine gas and particulate boron carbide in a state in which the boron carbide flows in the gas containing the chlorine gas, wherein the boron carbide is dropped from the upper portion of the reaction container toward the bottom portion of the reaction container and the gas containing the chlorine gas is introduced into the reaction container in the opposite direction of the movement of the boron carbide, wherein the reaction between the chlorine gas in the gas containing the chlorine gas and the boron carbide is continuously performed while continuously supplying the gas containing the chlorine gas and the boron carbide into a reaction container and continuously exhausting a reaction product of the gas containing the chlorine gas and the boron carbide from the reaction container, and wherein unreacted boron carbide is recovered in a receiving container that is placed below the reaction container and that communicates with the lower end of the reaction container.
Method for controlling a wind turbine using an estimated wind speed ( V̂ W), the wind turbine having - a rotor rotatable with a variable rotor speed (n) and having rotor blades (108, 158) with adjustable pitch angles (θ 1, θ 2 and θ 3), and - a generator (202, 130) adapted to control a generator torque (m) or a generator output power, the method comprises the steps - measuring the rotor speed (n), - determining a common pitch angle (Θ) representative of at least one or all pitch angles (θ 1, θ 2 and θ 3) of the rotor blades (108, 158), - determining the generator torque (m) or an output power of the generator (202, 130), - estimating the wind speed by means of an observer, wherein - the observer - uses a model of the wind turbine as an observer model, - uses as input variables, - the measured rotor speed (n), - the determined common pitch angle (Θ) and - the determined generator torque (m) or the determined output power, and - incorporates expected variations of the wind as at least one stochastic variable (V ar V w), and wherein - the observer is provided as a Kalman filter and - the observer model provides as output variables - an estimated rotor speed (n), - an estimated common pitch angle (Θ) and - an estimated generator torque (m) or an estimated output power, to be compared with the corresponding input variables of the observer. - a rotor rotatable with a variable rotor speed (n) and having rotor blades (108, 158) with adjustable pitch angles (θ 1, θ 2 and θ 3), and - a generator (202, 130) adapted to control a generator torque (m) or a generator output power, - measuring the rotor speed (n), - determining a common pitch angle (Θ) representative of at least one or all pitch angles (θ 1, θ 2 and θ 3) of the rotor blades (108, 158), - determining the generator torque (m) or an output power of the generator (202, 130), - estimating the wind speed by means of an observer, wherein - the observer - uses a model of the wind turbine as an observer model, - uses as input variables, - the measured rotor speed (n), - the determined common pitch angle (Θ) and - the determined generator torque (m) or the determined output power, and - incorporates expected variations of the wind as at least one stochastic variable (V ar V w), and wherein - uses a model of the wind turbine as an observer model, - uses as input variables, - the measured rotor speed (n), - the determined common pitch angle (Θ) and - the determined generator torque (m) or the determined output power, and - the measured rotor speed (n), - the determined common pitch angle (Θ) and - the determined generator torque (m) or the determined output power, and - incorporates expected variations of the wind as at least one stochastic variable (V ar V w), and wherein - the observer is provided as a Kalman filter and - the observer model provides as output variables - an estimated rotor speed (n), - an estimated common pitch angle (Θ) and - an estimated generator torque (m) or an estimated output power, - an estimated rotor speed (n), - an estimated common pitch angle (Θ) and - an estimated generator torque (m) or an estimated output power,
A mobile radio communications device, for a communications system, the mobile radio communications device comprising: a non-access-stratum layer, NAS, and an access-stratum layer, AS; wherein the mobile radio communications device is arranged for: storing a whitelist of closed subscriber group, CSG, identities, CSG IDs, wherein the CSG whitelist is provided by the non-access-stratum layer to the access-stratum layer, and wherein the CSG whitelist is a combination of an Operator CSG list and an Allowed CSG list, the Operator CSG list comprising an operator controlled list of CSG IDs, and the Allowed CSG list comprising a list of CSG IDs that is manually modifiable by a user; and indicating, to the user as part of a manual CSG selection procedure, a list of CSG IDs to allow the user to make a selection of a CSG ID for an attempted network registration by the mobile radio communications device in a cell, of the selected CSG, reselected by the mobile radio communications device; and for said NAS to provide to said AS an updated closed subscriber group whitelist when the contents of the CSG whitelist is modified by the addition of a selected CSG ID (step 2E) or by the removal of a selected CSG ID (step 2G). storing a whitelist of closed subscriber group, CSG, identities, CSG IDs, wherein the CSG whitelist is provided by the non-access-stratum layer to the access-stratum layer, and wherein the CSG whitelist is a combination of an Operator CSG list and an Allowed CSG list, the Operator CSG list comprising an operator controlled list of CSG IDs, and the Allowed CSG list comprising a list of CSG IDs that is manually modifiable by a user; and indicating, to the user as part of a manual CSG selection procedure, a list of CSG IDs to allow the user to make a selection of a CSG ID for an attempted network registration by the mobile radio communications device in a cell, of the selected CSG, reselected by the mobile radio communications device; and for said NAS to provide to said AS an updated closed subscriber group whitelist when the contents of the CSG whitelist is modified by the addition of a selected CSG ID (step 2E) or by the removal of a selected CSG ID (step 2G).
A lighting instrument constituted of a light-emitting source and a phosphor, wherein the phosphor comprises a compound including an AlN crystal or an AlN solid-solution crystal including, at least: a metallic element M and oxygen, both dissolved in the crystal in a solid state, and an element A, wherein the AlN crystal or AlN solid-solution crystal has a wurtzite-type AlN crystal structure and the compound is represented by a compositional formula M a Al b A c N d O e (where a+b+c+d+e=1) satisfying the following conditions: 0.00001 ≤ a ≤ 0.1 0.4 ≤ b ≤ 0.55 0.001 ≤ c ≤ 0.1 0.4 ≤ d ≤ 0.55 and 0.001 ≤ e ≤ 0.1 wherein M is divalent Eu and A is Si, wherein the compound emits fluorescence having a peak at a wavelength within a range of between 450nm inclusive and 520nm inclusive, by irradiation of the light-emitting source, and wherein the light-emitting source is a light emitting diode or laser diode for emitting light at a wavelength of 330 to 500nm.
An aerodynamic rail cover for an operating room with laminar airflow, the rail cover comprising at least one cover component, wherein the cover component comprises: - a base element; and - an air guiding surface element connected to the base element; wherein the air guiding surface element forms an air guide to be mounted at least temporarily to cover a portion of a support rail of a ceiling mounted support arrangement of a medical imaging system, the air guiding surface element comprising two surface parts that are extending from starting edges on opposite sides of the base element to a common trailing edge; and wherein the base element is configured to be attached to the portion of the support rail such that the cover component is movably connected to the support rail to be movable along the support rail. - a base element; and - an air guiding surface element connected to the base element; wherein the air guiding surface element forms an air guide to be mounted at least temporarily to cover a portion of a support rail of a ceiling mounted support arrangement of a medical imaging system, the air guiding surface element comprising two surface parts that are extending from starting edges on opposite sides of the base element to a common trailing edge; and wherein the base element is configured to be attached to the portion of the support rail such that the cover component is movably connected to the support rail to be movable along the support rail. wherein the air guiding surface element forms an air guide to be mounted at least temporarily to cover a portion of a support rail of a ceiling mounted support arrangement of a medical imaging system, the air guiding surface element comprising two surface parts that are extending from starting edges on opposite sides of the base element to a common trailing edge; and wherein the base element is configured to be attached to the portion of the support rail such that the cover component is movably connected to the support rail to be movable along the support rail.
A method for coding video data, comprising: receiving video data comprising one or more subpictures; identifying a network abstraction layer, NAL, unit type associated with each of the one or more subpictures based on checking a first flag corresponding to mixed NAL units in the one or more subpictures within a single picture, wherein the first flag is positioned in the Picture Parameter Set, PPS and decoding the video data based on the identified NAL unit types, wherein a second flag being equal to one indicates a current picture is a start point of a current coded video sequence, wherein based on a presence of mixed NAL unit types according to the first flag and a video coding layer NAL unit having a clean random access type, the second flag and a NoOutputBeforeRecoveryFlag flag for the video data are both set equal to 0. receiving video data comprising one or more subpictures; identifying a network abstraction layer, NAL, unit type associated with each of the one or more subpictures based on checking a first flag corresponding to mixed NAL units in the one or more subpictures within a single picture, wherein the first flag is positioned in the Picture Parameter Set, PPS and decoding the video data based on the identified NAL unit types, wherein a second flag being equal to one indicates a current picture is a start point of a current coded video sequence, wherein based on a presence of mixed NAL unit types according to the first flag and a video coding layer NAL unit having a clean random access type, the second flag and a NoOutputBeforeRecoveryFlag flag for the video data are both set equal to 0.
An actuating drive for driving a flap of an item of furniture, including: - at least one actuating arm for moving the flap, - a base member on which the actuating arm, in the mounting position on a furniture carcass, is pivotally mounted about a horizontal bearing axis, - a spring device by which the actuating arm is pressurized about the bearing axis towards the opening direction, - an assembly securing device for the vacant actuating arm, on which no flap has yet been fitted, wherein the assembly securing device includes a braking or latching device for limiting the opening speed of the vacant actuating arm so that an unintentional opening or kicking-out of the vacant actuating arm towards the opening direction is prevented, wherein the operation of the braking or latching device depends on the pivotal speed of the actuating arm, characterized in that the actuating arm is substantially freely movable below a pre-set pivotal speed and that the braking or latching device brakes the actuating arm when the pivotal speed reaches or exceeds the pre-set pivotal speed, wherein the braking or latching device includes a mechanical coupling device with a centrifugal clutch. - at least one actuating arm for moving the flap, - a base member on which the actuating arm, in the mounting position on a furniture carcass, is pivotally mounted about a horizontal bearing axis, - a spring device by which the actuating arm is pressurized about the bearing axis towards the opening direction, - an assembly securing device for the vacant actuating arm, on which no flap has yet been fitted, wherein the assembly securing device includes a braking or latching device for limiting the opening speed of the vacant actuating arm so that an unintentional opening or kicking-out of the vacant actuating arm towards the opening direction is prevented, wherein the operation of the braking or latching device depends on the pivotal speed of the actuating arm,
Rotating electrical machine, notably an alternator or an alternator-starter for a motor vehicle, comprising: - at least one bearing provided with at least one opening emerging outside the bearing, - a stator comprising an electrical winding, this winding comprising a plurality of electrical conductors and at least one of these conductors comprising an end forming an electrical neutral point of the winding, - an electrical insulation member arranged to prevent any contact between the bearing and said neutral point-forming conductor end, characterized in that, this insulation member extending at least partially through the opening of the bearing and being at least partially outside the bearing, this electrical insulation member further being arranged to be at least partially bearing on an outer surface of the plate of the bearing, - the insulation member is arranged to plug at least partially, using a radially protruding portion, at least one aeration opening, notably a plurality of openings, of the bearing. - at least one bearing provided with at least one opening emerging outside the bearing, - a stator comprising an electrical winding, this winding comprising a plurality of electrical conductors and at least one of these conductors comprising an end forming an electrical neutral point of the winding, - an electrical insulation member arranged to prevent any contact between the bearing and said neutral point-forming conductor end, characterized in that, this insulation member extending at least partially through the opening of the bearing and being at least partially outside the bearing, this electrical insulation member further being arranged to be at least partially bearing on an outer surface of the plate of the bearing, - the insulation member is arranged to plug at least partially, using a radially protruding portion, at least one aeration opening, notably a plurality of openings, of the bearing.
A marine vehicle capable of being submerged, comprising a body having an elongated shape along an axis x and a mast extending longitudinally along an axis xm, the mast being provided with a payload intended to be used above the surface of the water, the marine vehicle being able to assume a panoramic configuration, in which the mast extends at least partially above the surface of the water and extends longitudinally in a substantially vertical direction (z), with the axis xm of the mast being inclined relative to the axis x, the mast being in an operational configuration, in which it extends beyond the body along the axis x, the marine vehicle comprising a propulsion unit capable of generating a rotation torque about the axis xm, when the marine vehicle is in the panoramic configuration, so as to cause the body and the mast to rotate about the axis xm, with a lever arm between the axis xm and the propulsion unit being non-zero, the mast being connected to the body by a pivot link allowing the mast to be pivoted relative to the body between a stowed configuration, in which the mast is folded down along the body, and the operational configuration, the marine vehicle comprising rotation means configured to implement a rotation step upon reception of a rotation command, during which step the propulsion unit generates a rotation torque about the axis xm so as to cause the body and the mast to rotate about the axis xm, with the marine vehicle being in a panoramic configuration.
Travel vehicle device, in particular motorhome device, with at least one driver's cab unit comprising at least one module carrier for receiving components of the driver's cab unit and at least one cooling unit wherein, viewed parallel to a vehicle vertical direction, the cooling unit is arranged at least section-wise below the module carrier, and wherein in a ready-to-travel and non-loaded state, at least one upper edge of the cooling unit is arranged more than 95 cm above a vehicle stand surface when viewed parallel to the vehicle vertical direction, characterized in that in the ready-to-travel and non-loaded state, at least one upper edge of the module carrier is arranged less than 118.5 cm above the vehicle stand surface when viewed parallel to the vehicle vertical direction. with at least one driver's cab unit comprising at least one module carrier for receiving components of the driver's cab unit and at least one cooling unit wherein, viewed parallel to a vehicle vertical direction, the cooling unit is arranged at least section-wise below the module carrier, and wherein in a ready-to-travel and non-loaded state, at least one upper edge of the cooling unit is arranged more than 95 cm above a vehicle stand surface when viewed parallel to the vehicle vertical direction, characterized in that in the ready-to-travel and non-loaded state, at least one upper edge of the module carrier is arranged less than 118.5 cm above the vehicle stand surface when viewed parallel to the vehicle vertical direction.