mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing information comprising, by a computer : acquiring (S4) at least a temperature and a humidity measured by a sensor disposed in a space where a sleeping person exists and an air conditioner is provided; acquiring (S14) falling-asleep decision information for deciding whether the person falls asleep; determining (S23) air blow control information concerning an air blow to bring an indicative value indicating a thermal condition to a target value by using at least the acquired temperature and humidity after deciding based on the acquired falling-asleep decision information that the person falls asleep; and controlling the air blow of the air conditioner by using the determined air blow control information; characterized by raising (S46) the target value as time elapses after deciding based on the acquired falling-asleep decision information that the person falls asleep; and reducing an amount of air to blow out of the air conditioner after a lapse of a predetermined time from the decision based on the acquired falling-asleep decision information that the person falls asleep. acquiring (S4) at least a temperature and a humidity measured by a sensor disposed in a space where a sleeping person exists and an air conditioner is provided; acquiring (S14) falling-asleep decision information for deciding whether the person falls asleep; determining (S23) air blow control information concerning an air blow to bring an indicative value indicating a thermal condition to a target value by using at least the acquired temperature and humidity after deciding based on the acquired falling-asleep decision information that the person falls asleep; and controlling the air blow of the air conditioner by using the determined air blow control information; characterized by raising (S46) the target value as time elapses after deciding based on the acquired falling-asleep decision information that the person falls asleep; and reducing an amount of air to blow out of the air conditioner after a lapse of a predetermined time from the decision based on the acquired falling-asleep decision information that the person falls asleep.
A microneedle patch , characterized by comprising a substrate part and multiple needle parts protruding from the substrate part ; the substrate part consisting of a diffusion-proof layer and a base; each needle part consisting of a needle tip , a diffusion-proof layer and a base, and the diffusion-proof layer of each needle part formed between the needle tip and the base of the corresponding needle part ; wherein the diffusion-proof layer of the substrate part and the diffusion-proof layer of the needle parts are one-piece structures, and the base of the substrate part and the base of the needle parts are one-piece structures; a thickness of each needle part is 300 μm to 1000 μm, and a thickness of the substrate part is 200 μm to 400 μm; along a thickness measuring line (L) from the base of the substrate part toward a tip of the needle part , a thickness ratio of a sum of a thickness of the base of the needle part and a thickness of the diffusion-proof layer of the needle part relative to a thickness of the needle part is 0.54 to 0.81; wherein, a material of the needle tip comprises hyaluronic acid, polyvinylpyrrolidone and a first carbohydrate, wherein a molecular weight of hyaluronic acid ranges from 2000 Dalton to 500000 Dalton, and a weight ratio of hyaluronic acid relative to polyvinylpyrrolidone is 1:0.8 to 1:2; a material of the diffusion-proof layer comprises a second carbohydrate, poly(vinyl alcohol) and 2-hydroxypropyl-β-cyclodextrin, wherein a weight ratio of the second carbohydrate relative to poly(vinyl alcohol) is 1:1.8 to 1:3, and a weight ratio of the second carbohydrate relative to 2-hydroxypropyl-β-cyclodextrin is 1: 1.8 to 1:3; and a material of the base comprises a third carbohydrate, poly(vinyl alcohol) and 2-hydroxypropyl-β-cyclodextrin, wherein a weight ratio of the third carbohydrate relative to poly(vinyl alcohol) is 1:1.8 to 1:3, and a weight ratio of the third carbohydrate relative to 2-hydroxypropyl-β-cyclodextrin is 1: 1.8 to 1:3.
A method performed by a UE (10-1) in a Long Term Evolution, LTE, system, comprising: sending a MAC layer signalling to indicate a silence state; sending a layer 1 scheduling request using a pre-allocated uplink transmission resource, wherein the pre-allocated uplink transmission resource is specific to the UE (10-1), the layer 1 scheduling request indicating that the UE (10-1) is requesting to use an uplink resource; resending the layer 1 scheduling request at least one time, using the pre-allocated uplink transmission resource, wherein transmissions occur on the pre-allocated uplink transmission resource only when the UE (10-1) is sending a layer 1 scheduling request on the pre-allocated uplink transmission resource; sending a Voice over Internet Protocol, VOIP, packet using the uplink resource; wherein the layer 1 scheduling request indicates an end to the silence state. sending a MAC layer signalling to indicate a silence state; sending a layer 1 scheduling request using a pre-allocated uplink transmission resource, wherein the pre-allocated uplink transmission resource is specific to the UE (10-1), the layer 1 scheduling request indicating that the UE (10-1) is requesting to use an uplink resource; resending the layer 1 scheduling request at least one time, using the pre-allocated uplink transmission resource, wherein transmissions occur on the pre-allocated uplink transmission resource only when the UE (10-1) is sending a layer 1 scheduling request on the pre-allocated uplink transmission resource; sending a Voice over Internet Protocol, VOIP, packet using the uplink resource; wherein the layer 1 scheduling request indicates an end to the silence state.
An apparatus for treating reflux disease in a human or animal mammal patient, characterized in that the apparatus comprises two or more separate movement restriction device segments (561a - 561d) adapted to be placed in contact with each other and be assembled to an implantable assembled movement restriction device (560; 561) of a controlled size, wherein the assembled movement restriction device is adapted to: rest with at least a part of its outer surface against the patient's stomach fundus wall such that movement of the cardiac notch of the patient's stomach towards the patient's diaphragm is restricted, when the movement restriction device is implanted in the patient, to thereby prevent the cardia from sliding through the patient's diaphragm opening into the patient's thorax, so as to maintain the supporting pressure against the patient's cardia sphincter muscle exerted from the patient's abdomen. two or more separate movement restriction device segments (561a - 561d) adapted to be placed in contact with each other and be assembled to an implantable assembled movement restriction device (560; 561) of a controlled size, wherein the assembled movement restriction device is adapted to: rest with at least a part of its outer surface against the patient's stomach fundus wall such that movement of the cardiac notch of the patient's stomach towards the patient's diaphragm is restricted, when the movement restriction device is implanted in the patient, to thereby prevent the cardia from sliding through the patient's diaphragm opening into the patient's thorax, so as to maintain the supporting pressure against the patient's cardia sphincter muscle exerted from the patient's abdomen.
A polycarbonate resin composition for a thin optical component, said composition comprising: 100 parts by mass of an aromatic polycarbonate resin (A) having a viscosity average molecular weight (Mv) of 10,000 to 15,000, wherein (Mv) is determined as indicated in the description; and 2 to 100 parts by mass of an aromatic polycarbonate copolymer (B) including a carbonate structural unit (i) represented by the following Formula : (wherein in Formula , R 1 represents C 8 -C 24 alkyl or alkenyl; R 2 and R 3 each independently represent a C 1 -C 15 monovalent hydrocarbon group; and a and b each independently represent an integer of 0 to 4) and a carbonate structural unit (ii) represented by the following Formula : wherein the ratio of the carbonate structural unit (i) to a total of 100 mol% of the carbonate structural unit (i) and the carbonate structural unit (ii) in the aromatic polycarbonate copolymer (B) is more than 10 mol% and less than 39 mol%. 100 parts by mass of an aromatic polycarbonate resin (A) having a viscosity average molecular weight (Mv) of 10,000 to 15,000, wherein (Mv) is determined as indicated in the description; and 2 to 100 parts by mass of an aromatic polycarbonate copolymer (B) including a carbonate structural unit (i) represented by the following Formula : (wherein in Formula , R 1 represents C 8 -C 24 alkyl or alkenyl; R 2 and R 3 each independently represent a C 1 -C 15 monovalent hydrocarbon group; and a and b each independently represent an integer of 0 to 4) and a carbonate structural unit (ii) represented by the following Formula : wherein the ratio of the carbonate structural unit (i) to a total of 100 mol% of the carbonate structural unit (i) and the carbonate structural unit (ii) in the aromatic polycarbonate copolymer (B) is more than 10 mol% and less than 39 mol%.
A method for determining spectral calibration data (λ cal (S d ), S d,cal (λ)) of a Fabry-Perot interferometer , the method comprising: - forming a plurality of filtered spectral peaks (P' 1 , P' 2 ) by filtering input light (LB1) with a Fabry-Perot etalon such that a first filtered peak (P' 1 ) corresponds to a first transmittance peak (P 1 ) of the etalon , and such that a second filtered peak (P' 2 ) corresponds to a second transmittance peak (P 2 ) of the etalon , - using the Fabry-Perot interferometer for measuring a spectral intensity distribution (M(S d )) of the filtered spectral peaks (P' 1 , P' 2 ), wherein the spectral intensity distribution (M(S d )) is measured by varying the mirror gap (d FP ) of the Fabry-Perot interferometer , and by providing a control signal (S d ) indicative of the mirror gap (d FP ), and - determining the spectral calibration data (λ cal (S d ), S d,cal (λ)) by matching the measured spectral intensity distribution (M(S d )) with the spectral transmittance (T E (λ)) of the etalon , wherein the minimum spectral transmittance (T E,MIN ) of the etalon is lower than or equal to 90% of the maximum spectral transmittance (T E,MAX ) of the etalon , and wherein the matching comprises comparing the measured spectral intensity distribution M(S d ) with the spectral transmittance (T E (λ)) of the etalon by using cross-correlation analysis to determine a spectral calibration function. - forming a plurality of filtered spectral peaks (P' 1 , P' 2 ) by filtering input light (LB1) with a Fabry-Perot etalon such that a first filtered peak (P' 1 ) corresponds to a first transmittance peak (P 1 ) of the etalon , and such that a second filtered peak (P' 2 ) corresponds to a second transmittance peak (P 2 ) of the etalon , - using the Fabry-Perot interferometer for measuring a spectral intensity distribution (M(S d )) of the filtered spectral peaks (P' 1 , P' 2 ), wherein the spectral intensity distribution (M(S d )) is measured by varying the mirror gap (d FP ) of the Fabry-Perot interferometer , and by providing a control signal (S d ) indicative of the mirror gap (d FP ), and - determining the spectral calibration data (λ cal (S d ), S d,cal (λ)) by matching the measured spectral intensity distribution (M(S d )) with the spectral transmittance (T E (λ)) of the etalon , wherein the minimum spectral transmittance (T E,MIN ) of the etalon is lower than or equal to 90% of the maximum spectral transmittance (T E,MAX ) of the etalon , and wherein the matching comprises comparing the measured spectral intensity distribution M(S d ) with the spectral transmittance (T E (λ)) of the etalon by using cross-correlation analysis to determine a spectral calibration function.
A transmission comprising at least one rim (1; 1a, 1b) and at least one wheel (2; 2a, 2b), an outside surface of said at least one wheel (2; 2a, 2b) engaging an inside surface of said at least one rim (1; 1a, 1b), said at least one wheel (2; 2a, 2b) being rotatable about a first axis (B) and said at least one rim (1; 1a, 1b ) being rotatable about a second axis (A), one of said at least one wheel (2; 2a, 2b) and said at least one rim (1; 1a, 1b) being the input element of the transmission and the other of said at least one wheel (2; 2a, 2b) and said at least one rim (1; 1a, 1b) being the output element of said transmission, said at least one wheel (2; 2a, 2b) and said at least one rim (1; 1a, 1b) being mounted so that said second axis (A) is at a distance from said first axis (B), said inside surface of said at least one rim (1; 1a, 1b) having a cyclic polygonal shape comprising first sides , with an angle between each adjoining first side of said polygon being greater than 90°, characterised in that said outer surface of said at least one wheel (2; 2a, 2b) having a cyclic polygonal shape comprising second sides , with an angle between each adjoining second side of said polygon being greater than 90°; each second side of said at least one wheel (2; 2a, 2b) engaging with a first side of said at least one rim (1; 1a, 1b) of equal length during rotation of said transmission.
Method for the fine adjustment of the rate of a mechanical horological oscillator including at least one inertial mass , for example but not restricted to: a balance, arranged to oscillate about an axis of rotation (D) and returned to a rest position by elastic return means, characterised in that , in a first step , said oscillator is equipped with at least one inertial mass including an actuator in a material suitable for irreversible local micro-expansion under the effect of laser fires, said actuator being arranged to impart to an inertia-block a radial linear travel with respect to the axis of rotation (D), directly or by means of at least one travel amplifier , when a writing zone (39; 391; 392), included in the actuator is subjected to suitable laser fires, in a second step , a first rough setting of the initial rate of said oscillator is performed in a first rate range and said rate is measured, in a third step , the direction and the value of the rate deviation to be imparted to said oscillator are calculated to bring it into a predetermined second rate range, and the direction and the value of the travel to be imparted to each said inertia-block included in said oscillator are calculated, in a fourth step , at least one said writing zone (39; 391; 392) is subjected to femtosecond laser fires to create at least one expansion line by local molecular expansion of said material to deform said actuator radially with respect to said axis of rotation (D), in a fifth step , the rate of said oscillator is measured, and if required said third step and said fourth step are repeated until the rate of said oscillator is within said second rate range.
Filter element, in particular for gas filtration, for example for an air filter, having a filter medium body , characterized in that, for supporting the filter element in a receiving filter housing , a supporting element is connected to the filter medium body which is located on the clean side of the filter medium body , wherein the supporting element is separated from the raw side via the material of the filter medium body , wherein the supporting element on the filter medium body features a convexly outwardly curved exterior side for being received in a concavely inwardly curved end face of a counter-supporting element on the filter housing and wherein the supporting element on the filter medium body features a circumferential support collar, which surrounds a central section of the supporting element , for abutment against a frontal edge area of the counter-supporting element .
Method for the amplification of nucleic acids, comprising the following method steps: a. providing a solid phase having a microstructure, wherein the microstructure divides the solid phase so that multiple compartments result and wherein capture molecules are connected to the solid phase, and wherein the solid phase is a picotiter plate, b. introducing at least one sample fragment into at least one compartment, wherein the at least one sample fragment has adapters at both ends, wherein the adapters have a uniform sequence having a length of up to 1000 nucleotides and/or have different functional units, c. introducing a reaction mix for the amplification into at least one compartment, d. covering the individual compartments using a cover on which the capture molecules are immobilized, e. amplification step, whereby each sample fragment is independently amplified in the corresponding closed compartment, f. wherein the amplicons generated by the amplification step are immobilized on the capture molecules wherein the amplicons are sequenced after immobilization on the solid phase. a. providing a solid phase having a microstructure, wherein the microstructure divides the solid phase so that multiple compartments result and wherein capture molecules are connected to the solid phase, and wherein the solid phase is a picotiter plate, b. introducing at least one sample fragment into at least one compartment, wherein the at least one sample fragment has adapters at both ends, wherein the adapters have a uniform sequence having a length of up to 1000 nucleotides and/or have different functional units, c. introducing a reaction mix for the amplification into at least one compartment, d. covering the individual compartments using a cover on which the capture molecules are immobilized, e. amplification step, whereby each sample fragment is independently amplified in the corresponding closed compartment, f. wherein the amplicons generated by the amplification step are immobilized on the capture molecules
A method for determining usable capacity of a battery of an active implantable medical device, in particular a cardiac stimulator, comprising a radiofrequency (RF) communication unit for transmitting data by RF over a transmitting period, and wherein the usable capacity of the battery of the active implantable medical device allows for data transmission by RF via the RF communication unit, the method comprising: a) a step for triggering a current draw being defined with a duration and an intensity which is representative of a peak current required by the data transmission by RF from the active implantable medical device; b) a step for measuring a value of the voltage VB i of the battery which is representative of an instantaneous voltage drop dVB i of the battery of said device as a result of a current load on the battery corresponding to the current draw thereon; c) a step for comparing said voltage VB i of the battery with a predetermined threshold voltage VB s ; and d) a step for transmitting an alert message to another device when said measured voltage VB i of the battery crosses the predetermined threshold voltage VB s . a) a step for triggering a current draw being defined with a duration and an intensity which is representative of a peak current required by the data transmission by RF from the active implantable medical device; b) a step for measuring a value of the voltage VB i of the battery which is representative of an instantaneous voltage drop dVB i of the battery of said device as a result of a current load on the battery corresponding to the current draw thereon; c) a step for comparing said voltage VB i of the battery with a predetermined threshold voltage VB s ; and d) a step for transmitting an alert message to another device when said measured voltage VB i of the battery crosses the predetermined threshold voltage VB s .
A springless lower closeout system for a passenger seat, comprising: a left-side seat spreader and a right-side seat spreader configured to define a lower aft portion of a passenger seat , each seat spreader including a restrictive channel extending along an aft portion thereof; a dress cover configured to extend across the lower aft portion of the passenger seat, the dress cover having a left side and a right side , each side terminating in a cord element configured to retain the left side or the right side within the restrictive channel of the left-side or right-side seat spreader; and at least one fastener connecting the dress cover to either the left side or right side cord element, the at least one fastener configured to facilitate insertion of the left side or right side cord element by adjusting a tension of the dress cover across the lower aft portion. a left-side seat spreader and a right-side seat spreader configured to define a lower aft portion of a passenger seat , each seat spreader including a restrictive channel extending along an aft portion thereof; a dress cover configured to extend across the lower aft portion of the passenger seat, the dress cover having a left side and a right side , each side terminating in a cord element configured to retain the left side or the right side within the restrictive channel of the left-side or right-side seat spreader; and at least one fastener connecting the dress cover to either the left side or right side cord element, the at least one fastener configured to facilitate insertion of the left side or right side cord element by adjusting a tension of the dress cover across the lower aft portion.
Method for extraction of a polyester polymer composed of a complex mixture of interesterified, long-chain -hydroxy acid with typically a 16- or 18-carbon skeleton from the waste of tomato peels, characterized in that said method comprising the step of: a. Thermal treatment of the tomatoes peels, in which tomato peels are immerged in an alkaline solution, b. Filtration, for separating solid residue by liquid; then the filtrated liquid is kept for a step of c. Acidification adding an inorganic acid until the solution changes its color so that the pH of the solution after the color changing is comprises in the interval 5 - 6 d. Centrifugation phase, in which the solution is centrifuged at a range of 10000-14000 rpm for 15-20 minutes; after the centrifugation the supernatant is discarded or reintroduced in the process for another extraction, while the solid residue is kept and centrifuged with water DDW from 1 to 3 times in the same conditions; these further steps having the scope of washed/cleaned the solid residue. a. Thermal treatment of the tomatoes peels, in which tomato peels are immerged in an alkaline solution, b. Filtration, for separating solid residue by liquid; then the filtrated liquid is kept for a step of c. Acidification adding an inorganic acid until the solution changes its color so that the pH of the solution after the color changing is comprises in the interval 5 - 6 d. Centrifugation phase, in which the solution is centrifuged at a range of 10000-14000 rpm for 15-20 minutes; after the centrifugation the supernatant is discarded or reintroduced in the process for another extraction, while the solid residue is kept and centrifuged with water DDW from 1 to 3 times in the same conditions; these further steps having the scope of washed/cleaned the solid residue.
An elastic sealing body for a plug connector, comprising a sealing ring , wherein the sealing ring is transparent, characterized in that at least one light guide arm is connected with the sealing ring at an inner face of the sealing ring and extends away from the sealing ring in an axial direction. comprising a sealing ring , wherein the sealing ring is transparent, characterized in that at least one light guide arm is connected with the sealing ring at an inner face of the sealing ring and extends away from the sealing ring in an axial direction.