mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a rotorcraft rotor comprising: obtaining data from at least one sensor , wherein the data pertains to at least one of the following parameters: temperature, pressure, density, speed, and advance ratio; processing, by a processor , the data to determine an independent rotor phase lag for each of a pitch axis and a roll axis of the rotorcraft through separate phase scheduling of each of the pitch axis and roll axis, wherein the data is processed using at least one table that maps values obtained from the at least one sensor to rotor phase lag values; issuing, by the processor , at least one command to one or more actuators to provide for on-axis moments in accordance with the determined rotor phase lag value for each of the axes; and adjusting rotor phasing separately for each of the pitch axis and roll axis as the rotor phasing changes with one or more of the parameters, wherein the at least one command corresponds to a cyclic command associated with a swashplate of the rotorcraft , or the at least one command provides for individual blade control. obtaining data from at least one sensor , wherein the data pertains to at least one of the following parameters: temperature, pressure, density, speed, and advance ratio; processing, by a processor , the data to determine an independent rotor phase lag for each of a pitch axis and a roll axis of the rotorcraft through separate phase scheduling of each of the pitch axis and roll axis, wherein the data is processed using at least one table that maps values obtained from the at least one sensor to rotor phase lag values; issuing, by the processor , at least one command to one or more actuators to provide for on-axis moments in accordance with the determined rotor phase lag value for each of the axes; and adjusting rotor phasing separately for each of the pitch axis and roll axis as the rotor phasing changes with one or more of the parameters, wherein the at least one command corresponds to a cyclic command associated with a swashplate of the rotorcraft , or the at least one command provides for individual blade control.
A method for producing a plated article, comprising immersing a substrate made of a conductive metal in a plating solution, and forming a plating layer on the substrate by electroplating, wherein the plating solution is a solution containing 0.01 to 1 mol/L of Ni ions with a pH of 6 or more; and a porous Ni plating layer is formed by performing the electroplating at a cathode current density of 10 A/dm 2 or more, wherein the porous Ni plating layer has a plurality of pores recessed toward the substrate, wherein the plating solution is formed by only dissolving a Ni salt and an ammonium salt in ion-exchanged water and adjusting the pH of the plating solution to 6 or more by adding 0.2 to 30 mol of ammonia per one liter of the plating solution to the plating solution, wherein the Ni salt consists of at least one type of salts selected from the group consisting of nickel chloride, nickel sulfate, nickel sulfamate and nickel acetate, and the ammonium salt consists of at least one type of salts selected from the group consisting of ammonium chloride, ammonium sulfate, ammonium sulfamate and ammonium acetate, wherein a molar ratio of ammonia to Ni ions in the plating solution is 1 or more, and wherein ammonia coordinates the Ni ion in the plating solution to form an ammine complex. immersing a substrate made of a conductive metal in a plating solution, and forming a plating layer on the substrate by electroplating, wherein the plating solution is a solution containing 0.01 to 1 mol/L of Ni ions with a pH of 6 or more; and a porous Ni plating layer is formed by performing the electroplating at a cathode current density of 10 A/dm 2 or more, wherein the porous Ni plating layer has a plurality of pores recessed toward the substrate, wherein the plating solution is formed by only dissolving a Ni salt and an ammonium salt in ion-exchanged water and adjusting the pH of the plating solution to 6 or more by adding 0.2 to 30 mol of ammonia per one liter of the plating solution to the plating solution, wherein the Ni salt consists of at least one type of salts selected from the group consisting of nickel chloride, nickel sulfate, nickel sulfamate and nickel acetate, and the ammonium salt consists of at least one type of salts selected from the group consisting of ammonium chloride, ammonium sulfate, ammonium sulfamate and ammonium acetate, wherein a molar ratio of ammonia to Ni ions in the plating solution is 1 or more, and wherein ammonia coordinates the Ni ion in the plating solution to form an ammine complex.
A method of preparing an organic material sample for laser induced breakdown spectroscopy comprising the steps of: a. obtaining a sample of granular organic material , the organic material having an organic matrix; and b. searing the sample of granular organic material to produce a searing event during which the organic matrix undergoes a thermochemical decomposition; wherein searing the sample of granular organic material comprises the step of: (i) supplying heat to the sample of granular organic material for one or more known exposure times (T N ) to produce a same number (N) of searing instances (S n ); characterized in that searing the sample of granular organic material further comprises the steps of: (ii) measuring reflectance values (R N ) of the sample of granular organic material before and after one or more of the one or more searing instances (S n ); (iii) determining by a data processor a searing parameter (X) as an indicator of a susceptibility of the organic matrix to searing determined based on the measured reflectance values (R N ); (iv) calculating by the data processor a time value (T corr ) indicative of a time to achieve an optimum exposure time from the application by the data processor of a predictive model derived from an empirical analysis of reference data comprising time values indexed against searing parameter to the determined searing parameter (X), the predictive model linking the searing parameter (X) to time value (T corr ); (v) generating a new exposure time (T N+1 ) using the calculated time value (T corr ); and (vi) heating the sample of granular organic material for the new exposure time (T N+1 ) to produce a new searing instance. a. obtaining a sample of granular organic material , the organic material having an organic matrix; and b. searing the sample of granular organic material to produce a searing event during which the organic matrix undergoes a thermochemical decomposition; (i) supplying heat to the sample of granular organic material for one or more known exposure times (T N ) to produce a same number (N) of searing instances (S n ); (ii) measuring reflectance values (R N ) of the sample of granular organic material before and after one or more of the one or more searing instances (S n ); (iii) determining by a data processor a searing parameter (X) as an indicator of a susceptibility of the organic matrix to searing determined based on the measured reflectance values (R N ); (iv) calculating by the data processor a time value (T corr ) indicative of a time to achieve an optimum exposure time from the application by the data processor of a predictive model derived from an empirical analysis of reference data comprising time values indexed against searing parameter to the determined searing parameter (X), the predictive model linking the searing parameter (X) to time value (T corr ); (v) generating a new exposure time (T N+1 ) using the calculated time value (T corr ); and (vi) heating the sample of granular organic material for the new exposure time (T N+1 ) to produce a new searing instance.
Active compound combination comprising at least one compound of the formula (I) and at least one active compound of group (II) which is selected from the group consisting of (II-1) abamectin, (II-2) emamectin benzoate, (II-4) milbemectin, (II-6) spiromesifen, (II-7) spirotetramat, (II-8) cyenopyrafen, (II-9) cyflumetofen, (11-10) spinosad and (II-14) pyflubumide, or is selected from the group consisting of compound of formula (IIa) and compound of formula (IIb). and at least one active compound of group (II) which is selected from the group consisting of (II-1) abamectin, (II-2) emamectin benzoate, (II-4) milbemectin, (II-6) spiromesifen, (II-7) spirotetramat, (II-8) cyenopyrafen, (II-9) cyflumetofen, (11-10) spinosad and (II-14) pyflubumide, or is selected from the group consisting of compound of formula (IIa) and compound of formula (IIb).
A tire , comprising a tread portion , the tread portion having at least one main groove continuously extending in a tire circumferential direction, the tread portion having a S 50 /S 0 ratio of more than 1, wherein S 0 denotes a sea proportion (%) in a tread ground contact surface of the new tire, and S 50 denotes a sea proportion (%) when the tread portion is worn until a depth of the main groove reaches 50% of that of the new tire, characterized in that the tread portion comprises a rubber having, as measured in accordance with JIS K 6253-3 , a JIS-A hardness at 60°C of 58 or higher and a JIS-A hardness at 0°C of not more than 115% of the hardness at 60°C. the tread portion having at least one main groove continuously extending in a tire circumferential direction, the tread portion having a S 50 /S 0 ratio of more than 1, wherein S 0 denotes a sea proportion (%) in a tread ground contact surface of the new tire, and S 50 denotes a sea proportion (%) when the tread portion is worn until a depth of the main groove reaches 50% of that of the new tire, characterized in that the tread portion comprises a rubber having, as measured in accordance with JIS K 6253-3 , a JIS-A hardness at 60°C of 58 or higher and a JIS-A hardness at 0°C of not more than 115% of the hardness at 60°C.
Seed drill comprising: - a front chassis , - a rear chassis , - a hopper mounted on the front chassis and intended to be filled with granulates, - a wheel-train mounted on the front chassis and on which the seed drill rests in a work configuration, - a seedbar mounted on the rear chassis - a dispensing system intended to transport the granulates from the hopper to the seedbar , the seedbar being intended to put the granulates coming from the hopper into the ground, in which, in its work configuration, wheels of the wheel-train are arranged on at least three successive levels in a direction of advance (B), the three levels having axes (Al, A2, A3) which are distinct and transverse to a median plane (M) of the seed drill, the three wheel levels all belonging to the front chassis , characterised in that the rear chassis is mounted in an articulated manner to the front chassis by means of a pivot pin with a vertical axis (V), and in which the vertical axis (V) of the pivot pin is arranged between the vertical plane (P1) passing through the axis (A1) of the foremost wheel level and the vertical plane (P3) passing through the axis (A3) of the rearmost wheel level. - a front chassis , - a rear chassis , - a hopper mounted on the front chassis and intended to be filled with granulates, - a wheel-train mounted on the front chassis and on which the seed drill rests in a work configuration, - a seedbar mounted on the rear chassis - a dispensing system intended to transport the granulates from the hopper to the seedbar , the seedbar being intended to put the granulates coming from the hopper into the ground,
A seat unit comprising: - a seat , - at least one environmental element associated with the seat , and - a noise attenuating panel fixed to a face of the environmental element , said noise attenuating panel comprising a covering layer , characterized in that said noise attenuating panel further comprises a support plate comprising at least one sound-permeable portion provided with at least one through-hole , said support plate being arranged such that an empty space is provided between said sound-permeable portion and the face of the environmental element of the seat . - a seat , - at least one environmental element associated with the seat , and - a noise attenuating panel fixed to a face of the environmental element , said noise attenuating panel comprising a covering layer ,
A method for disinfecting medical waste on-site at a medical facility, the method comprising: shredding the medical waste via a shredder until the medical waste has a predetermined particle size; spreading the medical waste onto a heating conveyor; conveying the spread medical waste through a heating chamber via the heating conveyor; and heating the shredded medical waste via one or more infrared heating elements ; characterized by the heating conveyor being an open-cell conveyor , wherein the open-cell conveyor is configured to provide heat to the medical waste and by at least one additional induction heating source within the heating chamber such that the medical waste is heated from a plurality of directions for disinfecting the medical waste. shredding the medical waste via a shredder until the medical waste has a predetermined particle size; spreading the medical waste onto a heating conveyor; conveying the spread medical waste through a heating chamber via the heating conveyor; and heating the shredded medical waste via one or more infrared heating elements ; characterized by the heating conveyor being an open-cell conveyor , wherein the open-cell conveyor is configured to provide heat to the medical waste and by at least one additional induction heating source within the heating chamber such that the medical waste is heated from a plurality of directions for disinfecting the medical waste.
A method for performing beam searching or beam transmission by a first user equipment, UE, in a wireless communication system, the method comprising: receiving location information from a second UE; and performing either or both of the beam searching and beam transmission for an area determined based on the received location information, wherein a beam width for the beam searching or beam transmission is determined according to a service, and wherein when the service relates to a safety message, the beam width increases compared to when the service relates to other messages rather than the safety message. receiving location information from a second UE; and performing either or both of the beam searching and beam transmission for an area determined based on the received location information, wherein a beam width for the beam searching or beam transmission is determined according to a service, and wherein when the service relates to a safety message, the beam width increases compared to when the service relates to other messages rather than the safety message.
A ranging apparatus comprising; a first array comprising a plurality of different zones, each zone comprising a plurality of light sensitive detectors configured to receive light from a light source which has been reflected by an object, wherein said first array comprises a field of view , with each zone being associated with a sub area in said field of view; a readout circuitry having a plurality of read out channels, each readout channel associated with a respective zone, and configured to read out data in parallel from some or all of the zones; and a processor configured in dependence on data outputs of the plurality of read out channels to determine a position information associated with said object, wherein said processor is configured to determine a position of said object with respect to one or more of said sub areas, wherein said processor is configured to determine movement of said object by using successive data outputs of the plurality of read out channels. a first array comprising a plurality of different zones, each zone comprising a plurality of light sensitive detectors configured to receive light from a light source which has been reflected by an object, wherein said first array comprises a field of view , with each zone being associated with a sub area in said field of view; a readout circuitry having a plurality of read out channels, each readout channel associated with a respective zone, and configured to read out data in parallel from some or all of the zones; and a processor configured in dependence on data outputs of the plurality of read out channels to determine a position information associated with said object, wherein said processor is configured to determine a position of said object with respect to one or more of said sub areas, wherein said processor is configured to determine movement of said object by using successive data outputs of the plurality of read out channels.
- A method for producing a high strength steel sheet having an improved strength and an improved formability, the sheet having a yield strength YS of at least 850 MPa, a tensile strength TS of at least 1180 MPa, a total elongation of at least 13 % and a hole expansion ratio HER, measured according to the ISO standard 16630:2009, of at least 30%, by heat treating a steel sheet wherein the chemical composition of the steel contains in weight %: 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 1.8% 1.8% ≤ Mn ≤ 2.2% 0.10% ≤ Mo ≤ 0.20% Nb ≤ 0.05 % Ti ≤ 0.05 % Al ≤ 0.5% the remainder being Fe and unavoidable impurities, including less than 0.05% Ni, less than 0.10% Cr, less than 0.03% Cu, less than 0.007% V, less than 0.0010% B, less than 0.005% S, less than 0.02% P and less than 0.010% N, and wherein the heat treatment comprises the following steps: - annealing the sheet at an annealing temperature TA higher than 865°C but less than 1000°C for a time of more than 30 s, - quenching the sheet by cooling it down to a quenching temperature QT between 310°C and 375°C, at a cooling speed of at least 30°C/s in order to have, just after quenching, a structure consisting of austenite and at least 50% of martensite, the austenite content being such that the final structure i.e. after treatment and cooling to the room temperature, contains between 3 % and 15% of residual austenite and between 85 % and 97% of the sum of martensite and bainite without ferrite, the structure containing at least 65% of martensite, - heating the sheet up to a partitioning temperature PT between 370°C and 470°C and maintaining the sheet at this temperature for a partitioning time Pt between 50 s and 150 s, the temperature of the sheet remaining between PT-10°C and PT+10°C during partitioning, and, - cooling the sheet down to the room temperature. - annealing the sheet at an annealing temperature TA higher than 865°C but less than 1000°C for a time of more than 30 s, - quenching the sheet by cooling it down to a quenching temperature QT between 310°C and 375°C, at a cooling speed of at least 30°C/s in order to have, just after quenching, a structure consisting of austenite and at least 50% of martensite, the austenite content being such that the final structure i.e. after treatment and cooling to the room temperature, contains between 3 % and 15% of residual austenite and between 85 % and 97% of the sum of martensite and bainite without ferrite, the structure containing at least 65% of martensite, - heating the sheet up to a partitioning temperature PT between 370°C and 470°C and maintaining the sheet at this temperature for a partitioning time Pt between 50 s and 150 s, the temperature of the sheet remaining between PT-10°C and PT+10°C during partitioning, and, - cooling the sheet down to the room temperature.
Antiallergen patch comprising at least a first, adhesive layer having a first surface intended to fasten the patch to an article and a second surface to which a second, continuous allergen-proof barrier layer is attached, characterised in that the second, barrier layer comprises a metallised plastic film, a layer of nanostructured polymers or a plastics film comprising a ceramic coating or is a metal or metal-alloy layer, and characterised in that it comprises a third layer made of a breathable material, designed to absorb water vapour and dry quickly, said third layer being intended to be in contact with the skin of a person wearing the article, and a fourth, bonding layer , which is placed between the second and third layers and secures said second and third layers to one another, said patch having a total thickness of between 0.3 mm and 0.8 mm and the thickness of the second, barrier layer being less than 50 μm.
A single-axis teeter-totter MEMS accelerometer , comprising: a substrate ; a proof mass suspended above the substrate; and a plurality of anchors arranged in-line with each other parallel to a rotation axis of the proof mass or on the rotation axis of the proof mass, and coupling the proof mass to the substrate, wherein each of at least two anchors of the plurality of anchors is coupled to an interior edge of the proof mass by two respective, in-line torsional springs , characterized in that the in-line torsion springs are arranged on opposite sides of the anchor. a substrate ; a proof mass suspended above the substrate; and a plurality of anchors arranged in-line with each other parallel to a rotation axis of the proof mass or on the rotation axis of the proof mass, and coupling the proof mass to the substrate, wherein each of at least two anchors of the plurality of anchors is coupled to an interior edge of the proof mass by two respective, in-line torsional springs , characterized in that the in-line torsion springs are arranged on opposite sides of the anchor.
An enclosure for installation in an interior of a rotor blade , the enclosure comprising: a first element having a first flange , said first flange being configured for engagement with a peripheral edge of an opening in said rotor blade ; and an upper element ; said first element having an upper surface ; said upper element having a lower surface which has a second angle with respect to an upper surface of said upper element in a direction extending from an inboard direction to an outboard direction, said lower surface being in contact with said upper surface of said first element ; and said first element and said upper element defining a cavity ; characterized in that: said upper surface of said first element has a first angle with respect to a lower surface of said first flange in a direction extending from the inboard direction to the outboard direction, said first angle being in a direction which is opposite to the direction of said second angle ; and said upper surface of said upper element is configured for mating with an interior surface of said rotor blade . a first element having a first flange , said first flange being configured for engagement with a peripheral edge of an opening in said rotor blade ; and an upper element ; said first element having an upper surface ; said upper element having a lower surface which has a second angle with respect to an upper surface of said upper element in a direction extending from an inboard direction to an outboard direction, said lower surface being in contact with said upper surface of said first element ; and said first element and said upper element defining a cavity ; characterized in that: said upper surface of said first element has a first angle with respect to a lower surface of said first flange in a direction extending from the inboard direction to the outboard direction, said first angle being in a direction which is opposite to the direction of said second angle ; and said upper surface of said upper element is configured for mating with an interior surface of said rotor blade . said upper surface of said first element has a first angle with respect to a lower surface of said first flange in a direction extending from the inboard direction to the outboard direction, said first angle being in a direction which is opposite to the direction of said second angle ; and said upper surface of said upper element is configured for mating with an interior surface of said rotor blade .