mhurhangee/patent-ind-claim-en huggingface dataset:
Cold gas thruster comprising: - a tank suitable for containing a solid propellant, and - a tank heating device suitable for sublimating said solid propellant and forming gaseous propellant, wherein the tank has an aperture for transferring said gaseous propellant outside said tank , characterized in that the cold gas thruster comprises means for measuring an amount of remaining solid propellant in the tank , said means comprising: - at least one tank temperature sensor , said means being adapted for calculating an enthalpy change when heating the tank from a temperature T1 to a temperature T2 and comparing the obtained enthalpy value with enthalpy values in a pre-established ΔH vs mass table, or alternatively said means comprising a shock generator configured to generate a shock, a displacement or acoustic sensor in contact with the tank and a frequency filter , said means configured for measuring a frequency response with the displacement or acoustic sensor and comparing the obtained frequency response with the frequency values in a pre-established mass vs oscillation frequency response table. - a tank suitable for containing a solid propellant, and - a tank heating device suitable for sublimating said solid propellant and forming gaseous propellant, wherein the tank has an aperture for transferring said gaseous propellant outside said tank , characterized in that the cold gas thruster comprises means for measuring an amount of remaining solid propellant in the tank , said means comprising: - at least one tank temperature sensor , said means being adapted for calculating an enthalpy change when heating the tank from a temperature T1 to a temperature T2 and comparing the obtained enthalpy value with enthalpy values in a pre-established ΔH vs mass table, or alternatively said means comprising a shock generator configured to generate a shock, a displacement or acoustic sensor in contact with the tank and a frequency filter , said means configured for measuring a frequency response with the displacement or acoustic sensor and comparing the obtained frequency response with the frequency values in a pre-established mass vs oscillation frequency response table. - at least one tank temperature sensor , said means being adapted for calculating an enthalpy change when heating the tank from a temperature T1 to a temperature T2 and comparing the obtained enthalpy value with enthalpy values in a pre-established ΔH vs mass table, or alternatively said means comprising a shock generator configured to generate a shock, a displacement or acoustic sensor in contact with the tank and a frequency filter , said means configured for measuring a frequency response with the displacement or acoustic sensor and comparing the obtained frequency response with the frequency values in a pre-established mass vs oscillation frequency response table.
An interference power measurement method, wherein the method comprises: receiving , by a terminal, first signaling that carries first indication information, wherein the first indication information is used to indicate n first channel state information-reference signal CSI RS resources, a j th first CSI RS resource is associated with a power parameter P c ,, j , the power parameter P c , j is a ratio of a transmit power on each resource element EPRE of a downlink shared channel to an EPRE of the j th first CSI RS resource, j = 1, 2, ..., n , and n is a positive integer; and sending , by the terminal, a channel quality indicator CQI, wherein the CQI is determined based on a total interference power, the total interference power is a linear weighting result of an interference power measured on each of the n first CSI RS resources and an interference power I 0 measured on a zero power CSI RS resource, a weighting coefficient of an interference power I j measured on the j th first CSI RS resource is a function of the power parameter P c , j , and a weighting coefficient of I 0 is a function of 1 − ∑ j = 1 n P c , j . receiving , by a terminal, first signaling that carries first indication information, wherein the first indication information is used to indicate n first channel state information-reference signal CSI RS resources, a j th first CSI RS resource is associated with a power parameter P c ,, j , the power parameter P c , j is a ratio of a transmit power on each resource element EPRE of a downlink shared channel to an EPRE of the j th first CSI RS resource, j = 1, 2, ..., n , and n is a positive integer; and sending , by the terminal, a channel quality indicator CQI, wherein the CQI is determined based on a total interference power, the total interference power is a linear weighting result of an interference power measured on each of the n first CSI RS resources and an interference power I 0 measured on a zero power CSI RS resource, a weighting coefficient of an interference power I j measured on the j th first CSI RS resource is a function of the power parameter P c , j , and a weighting coefficient of I 0 is a function of 1 − ∑ j = 1 n P c , j .
A power machine comprising: a frame ; a cab mounted on the frame; a lift arm assembly pivotally coupled to the frame rearward of at least a portion of the cab and extending forward of the frame; a first axle assembly and a second axle assembly each having an axle tube with an axle (228A, 528A, 228B, positioned therein and each disposed on a first side of the frame; a first track assembly operably coupled to the first axle and a second track assembly operably coupled to the second axle on the first side of the frame; a third axle assembly and a fourth axle assembly each having an axle tube with an axle positioned therein and each disposed on a second side of the frame; a third track assembly operably coupled to the third axle and a fourth track assembly operably coupled to the fourth axle on the second side of the frame, wherein the power machine is characterized by further comprising: a first drive motor operably coupled to each of the first and second axles and configured to rotate the first and second axles to drive the first and second track assemblies; a second drive motor operably coupled to each of the third and fourth axles and configured to rotate the third and fourth axles to drive the third and fourth track assemblies. a first drive motor operably coupled to each of the first and second axles and configured to rotate the first and second axles to drive the first and second track assemblies; a second drive motor operably coupled to each of the third and fourth axles and configured to rotate the third and fourth axles to drive the third and fourth track assemblies.
An airfield light comprising: a support including a support base and a support module , the support module being formed separately from the support base and connected to an upper portion of the support base, the support base including a first light module mounting surface , the support module including a second light module mounting surface spaced above the first light module mounting surface; and first and second light modules , the first light module being mounted on the first light module mounting surface of the support base, the second light module being mounted on the second light module mounting surface of the support module; wherein the support module further includes first and second columns and a bridge extending between and interconnecting the first and second columns, the second light module mounting surface being positioned on top of the bridge. a support including a support base and a support module , the support module being formed separately from the support base and connected to an upper portion of the support base, the support base including a first light module mounting surface , the support module including a second light module mounting surface spaced above the first light module mounting surface; and first and second light modules , the first light module being mounted on the first light module mounting surface of the support base, the second light module being mounted on the second light module mounting surface of the support module; wherein the support module further includes first and second columns and a bridge extending between and interconnecting the first and second columns, the second light module mounting surface being positioned on top of the bridge.
A method of battery testing, the method comprising: applying a stimulus to a battery module , the battery module having one or more batteries ; turning off use of the battery module including removing the stimulus to the battery module; after turning off use of and removing the stimulus to the battery module , autonomously recording signals from the battery module for a battery settling time of several hours after removing the stimulus using monitoring electronics attached to the battery module; and outputting the recorded signals from which one or more electrochemical parameters or one or more electrical parameters of the battery module or the one or more batteries arranged in the battery module are calculated using the recorded signals. applying a stimulus to a battery module , the battery module having one or more batteries ; turning off use of the battery module including removing the stimulus to the battery module; after turning off use of and removing the stimulus to the battery module , autonomously recording signals from the battery module for a battery settling time of several hours after removing the stimulus using monitoring electronics attached to the battery module; and outputting the recorded signals from which one or more electrochemical parameters or one or more electrical parameters of the battery module or the one or more batteries arranged in the battery module are calculated using the recorded signals.
A process for batch-wise cooking of a food product in a treatment chamber, wherein the treatment chamber has two opposite side walls each forming an electrode, wherein each electrode has an angle with the vertical plane of at most 45°, the process comprising the following steps: placing an amount of the food product, optionally in a surrounding liquid, in the treatment chamber between the two electrodes such that the food product and/or the surrounding liquid is in direct contact with the electrodes; applying electric pulses generated by a pulsed electric field generator to the electrodes such that the food product is subjected to a pulsed electric field having a field strength in the range of from 10 V/cm to 10 kV/cm, wherein the number of pulses is in the range of from 1 to 2,000,000 and the pulses each have a duration in the range of from 1 to 20,000 μseconds, wherein the food product and, if present, the surrounding liquid, has an electric conductivity in the range of from 0.01 to 10 S/m. placing an amount of the food product, optionally in a surrounding liquid, in the treatment chamber between the two electrodes such that the food product and/or the surrounding liquid is in direct contact with the electrodes; applying electric pulses generated by a pulsed electric field generator to the electrodes such that the food product is subjected to a pulsed electric field having a field strength in the range of from 10 V/cm to 10 kV/cm, wherein the number of pulses is in the range of from 1 to 2,000,000 and the pulses each have a duration in the range of from 1 to 20,000 μseconds,
A method of performing size exclusion chromatography comprising the steps of a) providing a housing having at least one wall defining a chamber having an entrance and an exit ; and a stationary phase material comprising a core and surface composition held in said chamber ; wherein said stationary phase material comprises particles having a mean size, i.e. diameter, of less than 2.0 micrometers and wherein the housing comprises a wide bore column of a bore size of 7.8 mm inner diameter, i.d., or more; b) loading a sample on said stationary phase material in said chamber at a column inlet pressure of greater than 3 MPa (500 psi) and flowing the sample through said stationary phase material; and c) separating the sample into one or more biomolecule analytes by size, wherein the flowing the sample through said stationary phase material is carried out at a flow rate of about 1mL/min or more a) providing a housing having at least one wall defining a chamber having an entrance and an exit ; and a stationary phase material comprising a core and surface composition held in said chamber ; wherein said stationary phase material comprises particles having a mean size, i.e. diameter, of less than 2.0 micrometers and wherein the housing comprises a wide bore column of a bore size of 7.8 mm inner diameter, i.d., or more; b) loading a sample on said stationary phase material in said chamber at a column inlet pressure of greater than 3 MPa (500 psi) and flowing the sample through said stationary phase material; and c) separating the sample into one or more biomolecule analytes by size, wherein the flowing the sample through said stationary phase material is carried out at a flow rate of about 1mL/min or more
A welding machine for welding free ends of bar conductors of a stator of an electrical machine, in particular an electric motor, comprising: - a support structure for directly or indirectly fixing the stator , having a welding mask which can be opened and closed; - a welding device , in particular a laser welding device, wherein the welding device is arranged above the support structure , and wherein the support structure can be moved between a welding position and a loading position, wherein a first side of the welding mask is oriented towards the welding device in the welding position and is oriented downward in the loading position. - a support structure for directly or indirectly fixing the stator , having a welding mask which can be opened and closed; - a welding device , in particular a laser welding device, wherein the welding device is arranged above the support structure , and wherein the support structure can be moved between a welding position and a loading position, wherein a first side of the welding mask is oriented towards the welding device in the welding position and is oriented downward in the loading position.
Light-emitting diode arrangement, comprising a light-emitting diode and a coding resistor (R C ) for coding the light-emitting diode , wherein the coding resistor (R C ) comprises a plurality of interconnected resistors (R 1 , R 2 , R 3 ), comprising a carrier comprising an uppermost layer and a further layer , wherein the light-emitting diode is arranged on the uppermost layer , characterized in that one or more of the resistors (R 1 , R 2 , R 3 ) are buried in the carrier , comprising one or more supply lines connected to the resistors (R 1 , R 2 , R 3 ) buried in the carrier , wherein the supply lines each have a first portion that is arranged on the uppermost layer laterally of the light-emitting diode and each have a second portion that is embodied in the form of a via , wherein the coding resistor (R C ) is implemented for coding by the implementation of an interruption or the non-implementation of an interruption of the respective first portions of the supply lines . wherein the light-emitting diode is arranged on the uppermost layer , characterized in that one or more of the resistors (R 1 , R 2 , R 3 ) are buried in the carrier , comprising one or more supply lines connected to the resistors (R 1 , R 2 , R 3 ) buried in the carrier , wherein the supply lines each have a first portion that is arranged on the uppermost layer laterally of the light-emitting diode and each have a second portion that is embodied in the form of a via , wherein the coding resistor (R C ) is implemented for coding by the implementation of an interruption or the non-implementation of an interruption of the respective first portions of the supply lines .
A headgear assembly for stabilizing and positioning a respiratory mask assembly on a patient's head, comprising: a pair of side portions , each comprising an upper side strap for being positioned above a patient's ear and a lower side strap for being positioned below a patient's ear; at least two rear straps , one of the at least two rear straps being an upper rear strap and the other of the at least two rear straps being a lower rear strap ; and an intermediate strap arrangement comprising: a pair of upper intermediate straps , each having upper and lower ends, each upper end being connected to a respective upper side strap and the pair of upper intermediate straps being angled with respect to the upper rear strap and being connected at their lower ends, characterized in that the upper rear strap has an upwardly curved portion with a radius of curvature in the range of 145-170 mm ± 10% or 166 mm ± 10%, the upper rear strap being structured to engage a posterior portion of the parietal bone of the patient's head in order to prevent downward movement of the headgear assembly in use, and wherein the straps of the headgear assembly are constructed from a soft, flexible composite material. a pair of side portions , each comprising an upper side strap for being positioned above a patient's ear and a lower side strap for being positioned below a patient's ear; at least two rear straps , one of the at least two rear straps being an upper rear strap and the other of the at least two rear straps being a lower rear strap ; and an intermediate strap arrangement comprising: a pair of upper intermediate straps , each having upper and lower ends, each upper end being connected to a respective upper side strap and the pair of upper intermediate straps being angled with respect to the upper rear strap and being connected at their lower ends, characterized in that the upper rear strap has an upwardly curved portion with a radius of curvature in the range of 145-170 mm ± 10% or 166 mm ± 10%, the upper rear strap being structured to engage a posterior portion of the parietal bone of the patient's head in order to prevent downward movement of the headgear assembly in use, and wherein the straps of the headgear assembly are constructed from a soft, flexible composite material.
Method for applying a spray liquid to an agricultural area by means of an agricultural sprayer , comprising the steps of: - providing a spray liquid to be applied at one or more application elements of the agricultural sprayer ; - automatically controlling the delivery pressure (p) of the spray liquid at the one or more application elements during the application process by means of the agricultural sprayer ; and - automatic controlling the opening and closing times of the one or more application elements by pulse width modulation (PWM) by means of the agricultural sprayer , wherein the automatic control of the supply pressure of the spray liquid and the automatic control of the opening and closing times of the one or more application elements are carried out simultaneously and/or in coordination with one another by means of pulse width modulation. - providing a spray liquid to be applied at one or more application elements of the agricultural sprayer ; - automatically controlling the delivery pressure (p) of the spray liquid at the one or more application elements during the application process by means of the agricultural sprayer ; and - automatic controlling the opening and closing times of the one or more application elements by pulse width modulation (PWM) by means of the agricultural sprayer , wherein the automatic control of the supply pressure of the spray liquid and the automatic control of the opening and closing times of the one or more application elements are carried out simultaneously and/or in coordination with one another by means of pulse width modulation.
A door system for a vehicle , comprising - a door assembly , and - a lateral roof assembly , the door assembly comprising a door frame body , at least a first sealing member and a glazing element , the lateral roof assembly comprising a lateral roof portion and at least a second sealing member , the door frame body surrounding at least partially the glazing element , the door frame body being movable between an open position and a closed position relative to the lateral roof assembly , the glazing element being adjustable between an open position and a closed position, the first sealing member being arranged between the glazing element and the door frame body and configured to seal the glazing element in the closed position of the glazing element , the second sealing member being arranged at the lateral roof portion and configured to receive at least one edge of the glazing element in the closed position of the glazing element and the door frame body , the lateral roof assembly further comprising a roof trim member , the roof trim member being arranged at the lateral roof portion , the roof trim member receiving at least partially the second sealing member , characterized in the edge of the glazing element to be received by the first sealing member in the closed position of the glazing element and in the closed position of the door frame body being an upper horizontal edge of the glazing element . - a door assembly , and - a lateral roof assembly , the door assembly comprising a door frame body , at least a first sealing member and a glazing element , the lateral roof assembly comprising a lateral roof portion and at least a second sealing member , the door frame body surrounding at least partially the glazing element , the door frame body being movable between an open position and a closed position relative to the lateral roof assembly , the glazing element being adjustable between an open position and a closed position, the first sealing member being arranged between the glazing element and the door frame body and configured to seal the glazing element in the closed position of the glazing element , the second sealing member being arranged at the lateral roof portion and configured to receive at least one edge of the glazing element in the closed position of the glazing element and the door frame body , the lateral roof assembly further comprising a roof trim member , the roof trim member being arranged at the lateral roof portion , the roof trim member receiving at least partially the second sealing member , characterized in the edge of the glazing element to be received by the first sealing member in the closed position of the glazing element and in the closed position of the door frame body being an upper horizontal edge of the glazing element .
A particulate precursor compound for manufacturing a lithium transition metal M-oxide powder usable as an active positive electrode material in lithium-ion batteries, wherein M is Ni x Mn y Co z A v , A being a dopant, wherein 0.20≤y≤0.33, and 0.20≤z≤0.33, v≤0.05, and x+y+z+v=1, the precursor having a specific surface area PBET in m 2 /g, a tapped density PTD in g/cm 3 , a median particle size PD50 in μm, and wherein PBET PTD ∗ PD 50 ≥ 0.021 0.1566 ∗ x − 0.0466 , wherein 0.33≤x≤0.35 and 2.5≤PD50≤3.5 and 0.90≤PTD<1.30 and 20<PBET<40, or wherein 0.35<x≤0.45 and 2.5≤PD50≤3.5 and 1.30<PTD<1.45 and 12<PBET<20, or wherein 0.45<x≤0.55 and 5.0≤PD50≤9.0 and 1.25<PTD<1.45 and 15<PBET<25. 0.20≤y≤0.33, and 0.20≤z≤0.33, v≤0.05, and x+y+z+v=1, the precursor having a specific surface area PBET in m 2 /g, a tapped density PTD in g/cm 3 , a median particle size PD50 in μm, and wherein PBET PTD ∗ PD 50 ≥ 0.021 0.1566 ∗ x − 0.0466 , wherein 0.33≤x≤0.35 and 2.5≤PD50≤3.5 and 0.90≤PTD<1.30 and 20<PBET<40, or wherein 0.35<x≤0.45 and 2.5≤PD50≤3.5 and 1.30<PTD<1.45 and 12<PBET<20, or wherein 0.45<x≤0.55 and 5.0≤PD50≤9.0 and 1.25<PTD<1.45 and 15<PBET<25.
A two part material composition comprising: a. an epoxy component including a first flame retardant; and b. a curing component which includes - an adhesion promoter including methoxypropanol, and - a second flame retardant; wherein an adhesive is formed when the epoxy component is combined with the curing component. a. an epoxy component including a first flame retardant; and b. a curing component which includes - an adhesion promoter including methoxypropanol, and - a second flame retardant; - an adhesion promoter including methoxypropanol, and - a second flame retardant;