mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a wind turbine for an uptower repair procedure, the method comprising: removing a rotor of the wind turbine ; removing a main shaft of the wind turbine so as to expose an opening in a front wall of a nacelle of the wind turbine ; characterized by : securing an external platform assembly to a bedplate of the wind turbine at the opening of the front wall of the nacelle to create a working surface for personnel during the repair procedure. removing a rotor of the wind turbine ; removing a main shaft of the wind turbine so as to expose an opening in a front wall of a nacelle of the wind turbine ; characterized by : securing an external platform assembly to a bedplate of the wind turbine at the opening of the front wall of the nacelle to create a working surface for personnel during the repair procedure.
A method for the cultivation of the microalgae of the genus Chlorella Vulgaris without genetic modification comprising: - cultivating a mass of said microalgae in a photo-bioreactor; Characterized in that said cultivating comprises: - exposing said microalgae to stress conditions by ultrasonic technique, to obtain a stressed microalgae, said stress conditions comprising: - immersing said microalgae in a tank surrounded by low-frequency ultrasonic transducers with adjustable frequency and power and containing a water-soluble conductive gel deprived of nitrogenated nutrients or deprived of phosphorus, whereby reduction of the thickness of the chloroplast of the stressed microalgae with respect of the thickness of the chloroplast of a Chlorella Vulgaris is obtained, so as to avoid absorbing of excess of light and whereby contemporarily increasing of the volume of the cytoplasm of the stressed microalgae with respect of the volume of the cytoplasm of a Chlorella Vulgaris is obtained, so as to storage an increased amount of lipids. - cultivating a mass of said microalgae in a photo-bioreactor; - exposing said microalgae to stress conditions by ultrasonic technique, to obtain a stressed microalgae, said stress conditions comprising: - immersing said microalgae in a tank surrounded by low-frequency ultrasonic transducers with adjustable frequency and power and containing a water-soluble conductive gel deprived of nitrogenated nutrients or deprived of phosphorus, whereby reduction of the thickness of the chloroplast of the stressed microalgae with respect of the thickness of the chloroplast of a Chlorella Vulgaris is obtained, so as to avoid absorbing of excess of light and whereby contemporarily increasing of the volume of the cytoplasm of the stressed microalgae with respect of the volume of the cytoplasm of a Chlorella Vulgaris is obtained, so as to storage an increased amount of lipids.
Full body climbing harness comprising: • a pair of leg loops , • a belt , • a pair of shoulder straps comprising first and second shoulder straps , • a hasp connected to the pair of leg loops , the hasp closing the belt et defining a frontal fixing point, • a first strap forming at least a part of the belt and at least a part of the first shoulder strap , • a second strap forming at least a part of the belt and at least a part of the second shoulder strap , • a first adjustment device configured to adjust both the circumference of the belt and the length of the first shoulder strap , • a second adjustment device configured to adjust both the circumference of the belt and the length of the second shoulder strap , characterized in that the hasp comprises : - a first deflecting element through which the first strap passes so that the portion of first strap forming a front part of the first shoulder strap is in contact with the part of strap forming the belt , the part of strap forming the belt leaving the first deflecting element in the direction of a lumbar part of the belt ; - a second deflecting element formed in the hasp and through which the second strap passes so that the second adjustment device is configured to adjust both both the circumference of the belt and the length of the second shoulder strap and in that the first strap and the second strap do not participate in the adjustment of the leg loops . • a pair of leg loops , • a belt , • a pair of shoulder straps comprising first and second shoulder straps , • a hasp connected to the pair of leg loops , the hasp closing the belt et defining a frontal fixing point, • a first strap forming at least a part of the belt and at least a part of the first shoulder strap , • a second strap forming at least a part of the belt and at least a part of the second shoulder strap , • a first adjustment device configured to adjust both the circumference of the belt and the length of the first shoulder strap , • a second adjustment device configured to adjust both the circumference of the belt and the length of the second shoulder strap , - a first deflecting element through which the first strap passes so that the portion of first strap forming a front part of the first shoulder strap is in contact with the part of strap forming the belt , the part of strap forming the belt leaving the first deflecting element in the direction of a lumbar part of the belt ; - a second deflecting element formed in the hasp and through which the second strap passes so that the second adjustment device is configured to adjust both both the circumference of the belt and the length of the second shoulder strap and
A process for the preparation of FUDR in a diastereoisomeric purity of greater than 95%: the process comprising step a) and optionally step b): a) reacting a compound of Formula Ia with a compound of Formula IIa in the presence of an acid A1 to provide a compound of Formula IIIa in a diastereoisomeric purity of greater than 95%: wherein R 1 and R 2 are each independently trialkylsilyl groups; R 3 and R 4 are each a substituted or unsubstituted benzoyl group; and X is a leaving group; and b) removing the protecting group R 3 and R 4 from the compound of formula IIIa to provide FUDR in a diastereoisomeric purity of greater than 95%; wherein the step of reacting a compound of Formula Ia with a compound of Formula IIa is carried out at a temperature T1 in the range from 9 °C to 15 °C. a) reacting a compound of Formula Ia with a compound of Formula IIa in the presence of an acid A1 to provide a compound of Formula IIIa in a diastereoisomeric purity of greater than 95%: wherein R 1 and R 2 are each independently trialkylsilyl groups; R 3 and R 4 are each a substituted or unsubstituted benzoyl group; and X is a leaving group; and b) removing the protecting group R 3 and R 4 from the compound of formula IIIa to provide FUDR in a diastereoisomeric purity of greater than 95%;
A positron emission tomography (PET)-scanning device comprising a detector ring for detecting emitted PET-radiation; and a main supporting structure which has or to which is attached a U-shaped portion with two arms for holding the detector ring between the arms ; wherein the detector ring is held by the two arms in such a way that the detector ring can be rotated about an axis of rotation (R) that extends through the U-shaped portion , in particular through the two arms of the U-shaped portion and can be displaced relative to the two arms and wherein a guide rail is provided on each of the two arms , and wherein the detector ring is held in these guide rails in such a way, that it can be displaced along the guide rails . a detector ring for detecting emitted PET-radiation; and a main supporting structure which has or to which is attached a U-shaped portion with two arms for holding the detector ring between the arms ; wherein the detector ring is held by the two arms in such a way that the detector ring can be rotated about an axis of rotation (R) that extends through the U-shaped portion , in particular through the two arms of the U-shaped portion and can be displaced relative to the two arms and wherein a guide rail is provided on each of the two arms , and wherein the detector ring is held in these guide rails in such a way, that it can be displaced along the guide rails .
A method for preparing a cellulose rich fibre fraction, said method comprising the steps of: (a) providing straw (b) subjecting the straw to a dry mechanical treatment selected from the group consisting of shredding, hammer milling, disc milling grinding and combinations thereof (c) subjecting the material obtained in (b) to a sieving treatment and obtaining at least two fractions, the first fraction passing through the sieve mesh and the second fraction being retained by the sieve mesh and comprises an amount of fines below 0.2mm in the range from 10-30 w/w% (d) suspending the second fraction in an aqueous solution having a pH in the range from 9-12.5 and a temperature in the range from 60-120°C, and (e) separating the material obtained in step (d) into a cellulose rich fibre fraction and a liquid fraction comprising suspended and/or dissolved lignin, hemicellulose and oligosaccharides. (a) providing straw (b) subjecting the straw to a dry mechanical treatment selected from the group consisting of shredding, hammer milling, disc milling grinding and combinations thereof (c) subjecting the material obtained in (b) to a sieving treatment and obtaining at least two fractions, the first fraction passing through the sieve mesh and the second fraction being retained by the sieve mesh and comprises an amount of fines below 0.2mm in the range from 10-30 w/w% (d) suspending the second fraction in an aqueous solution having a pH in the range from 9-12.5 and a temperature in the range from 60-120°C, and (e) separating the material obtained in step (d) into a cellulose rich fibre fraction and a liquid fraction comprising suspended and/or dissolved lignin, hemicellulose and oligosaccharides.
A method of controlling propulsion of a marine vessel , the method comprising: receiving proximity measurements from one or more proximity sensors on the marine vessel ; limiting user input authority over propulsion output in a direction of an object (O) by at least one propulsion device based on the proximity measurements so as to maintain the marine vessel at least a buffer distance from the object (O); characterised by : controlling a user input device to present a user input option to select at least one of a port side, a starboard side, a rear side, or a front side of the marine vessel for suspending the maintenance of the buffer distance ; suspending the maintenance of the buffer distance from the object (O) in response to a user-generated instruction, wherein the user-generated instruction specifies at least a selected one of the port side, the starboard side, the rear side, or the front side of the marine vessel ; receiving user control input via a user input device to move the marine vessel in the direction of the object (O); and controlling the at least one propulsion device based on the user control input such that the marine vessel approaches and impacts the object (O). receiving proximity measurements from one or more proximity sensors on the marine vessel ; limiting user input authority over propulsion output in a direction of an object (O) by at least one propulsion device based on the proximity measurements so as to maintain the marine vessel at least a buffer distance from the object (O); characterised by : controlling a user input device to present a user input option to select at least one of a port side, a starboard side, a rear side, or a front side of the marine vessel for suspending the maintenance of the buffer distance ; suspending the maintenance of the buffer distance from the object (O) in response to a user-generated instruction, wherein the user-generated instruction specifies at least a selected one of the port side, the starboard side, the rear side, or the front side of the marine vessel ; receiving user control input via a user input device to move the marine vessel in the direction of the object (O); and controlling the at least one propulsion device based on the user control input such that the marine vessel approaches and impacts the object (O). controlling a user input device to present a user input option to select at least one of a port side, a starboard side, a rear side, or a front side of the marine vessel for suspending the maintenance of the buffer distance ; suspending the maintenance of the buffer distance from the object (O) in response to a user-generated instruction, wherein the user-generated instruction specifies at least a selected one of the port side, the starboard side, the rear side, or the front side of the marine vessel ; receiving user control input via a user input device to move the marine vessel in the direction of the object (O); and controlling the at least one propulsion device based on the user control input such that the marine vessel approaches and impacts the object (O).
A fiber comprising a blend of from 30 to 85 wt% of an impact copolymer and from 15 to 70 wt% of a propylene-based elastomer, wherein the impact copolymer is a reactor blend and comprises a propylene homopolymer component and a copolymer component, where the propylene homopolymer component has a molecular weight distribution (MWD) of greater than 4.5, and where the copolymer component comprises from 20 to 80 wt% propylene-derived units and from 20 to 80 wt% ethylene-derived units; and wherein the propylene-based elastomer comprises propylene and from 5 to 25 wt% units derived from one or more C 2 or C 4 -C 12 alpha-olefins and has a triad tacticity greater than 90% and a heat of fusion less than 75 . J/g; and where the parameter values are determined according to the methods specified in the description.
Water-absorbing composition comprising water-absorbing polymer structures, on the surface of which is at least one tannin fraction which has a number-average molecular weight, determined in accordance with the test method described herein, of at least 1,000 g/mol or which has a weight-average molecular weight, determined in accordance with the test method described herein, of at least 1,000 g/mol, wherein the water-absorbing composition comprises the tannin in an amount in a range of from 0.001 to 10 wt. %, based on the total weight of the water-absorbing composition.
Automatic system for control and management of hydroponic and aeroponic cultivation of plants, for the management of a water-based solution contained in a general tank, comprising: - A pump connected to the general tank; - An analysis chamber connected to the pump ; - A sensor module comprising sensing probes configured to be immersed into the analysis chamber , a handling support of the sensing probes and a calibration support containing liquids necessary for the calibration of the sensing probes ; - An additive module comprising at least one liquid nutritional bottle and at least one liquid pH corrector bottle to add the liquids to the water-based solution; - An injection module comprising at least one injector for each bottle able to channel the liquids of said bottles and send them to the analysis chamber ; - An electronic control board configured to: receive from the sensing probes the data of the analysis of the solution sent from the general tank to the analysis chamber by means of the pump ; driving the addition of the liquids from the bottles ; enabling the injectors to send a predetermined amount of additive liquids in the analysis chamber ; and adjusting the operation of further external devices; and - A user interface configured to wireless communicate with the electronic control board; characterized in that the sensor module comprises a conveyor plane displaceable horizontally by a motor to accurately position the sensing probes and two linear actuators provided with rack and managed, in turn, by two corresponding servo-motors configured to immerse and independently remove the sensing probes , moving them on two axes. - A pump connected to the general tank; - An analysis chamber connected to the pump ; - A sensor module comprising sensing probes configured to be immersed into the analysis chamber , a handling support of the sensing probes and a calibration support containing liquids necessary for the calibration of the sensing probes ; - An additive module comprising at least one liquid nutritional bottle and at least one liquid pH corrector bottle to add the liquids to the water-based solution; - An injection module comprising at least one injector for each bottle able to channel the liquids of said bottles and send them to the analysis chamber ; - An electronic control board configured to: receive from the sensing probes the data of the analysis of the solution sent from the general tank to the analysis chamber by means of the pump ; driving the addition of the liquids from the bottles ; enabling the injectors to send a predetermined amount of additive liquids in the analysis chamber ; and adjusting the operation of further external devices; and - A user interface configured to wireless communicate with the electronic control board; characterized in that the sensor module comprises a conveyor plane displaceable horizontally by a motor to accurately position the sensing probes and two linear actuators provided with rack and managed, in turn, by two corresponding servo-motors configured to immerse and independently remove the sensing probes , moving them on two axes.
A process for purifying propylene oxide, comprising (i) providing a stream S0 comprising propylene oxide, acetonitrile, water, and an organic compound comprising a carbonyl group -C(=O)-, wherein said organic compound comprising a carbonyl group -C(=O)- comprises one or more of acetone and propionaldehyde; (ii) separating propylene oxide from the stream S0 by distillation, comprising subjecting the stream S0 to distillation conditions in a distillation column, obtaining a gaseous top stream S1c which is enriched in propylene oxide compared to the stream S0, a liquid bottoms stream S1a which is enriched in acetonitrile and water compared to the stream S0, and a side stream S1b comprising propylene oxide which is enriched in the carbonyl compound compared to the stream S0; wherein the distillation column is operated at an absolute pressure at the top of the distillation column in the range of from 0.01 to 0.2 MPa (0.1 to 2 bar) and an internal reflux ratio in the range of from 2.0 to 6.0; wherein the distillation column exhibits at least 100 theoretical trays, the rectifying section of the distillation column consists of from 30 to 70 % of the theoretical trays and the stripping section of the distillation column consists of from 70 to 30 % of the theoretical trays. (i) providing a stream S0 comprising propylene oxide, acetonitrile, water, and an organic compound comprising a carbonyl group -C(=O)-, wherein said organic compound comprising a carbonyl group -C(=O)- comprises one or more of acetone and propionaldehyde; (ii) separating propylene oxide from the stream S0 by distillation, comprising subjecting the stream S0 to distillation conditions in a distillation column, obtaining a gaseous top stream S1c which is enriched in propylene oxide compared to the stream S0, a liquid bottoms stream S1a which is enriched in acetonitrile and water compared to the stream S0, and a side stream S1b comprising propylene oxide which is enriched in the carbonyl compound compared to the stream S0;
A construct comprising a cas gene and a regulatory sequence, wherein said cas gene is as set forth in SEQ ID NO:505 or has a nucleotide sequence which is at least 75% identical to SEQ ID NO:505, wherein the construct comprises one or more cas gene(s) and one or more CRISPR repeat(s) which naturally co-occur within the same CRISPR locus of a genome.
Use of calcium oxide as an expanding agent in combination with a shrinkage reducing agent for producing a low-shrinkage concrete, characterized in that - the calcium oxide has a particle size distribution characterized by a residue of at least 6 wt.-% on a 45 μm mesh sieve, and at least one of the following: - the calcium oxide has a reactivity that is characterized by a conductivity of < 11 mS/cm when dissolved in water, determined as defined in Example 1, - the calcium oxide has a reactivity that is characterized by an average temperature increase of < 0,5°C/min during the first 15 minutes after the addition of the calcium oxide into water, determined as defined in the description, - the calcium oxide has a reactivity that is characterized by a temperature increase of < 10°C during the first 5 minutes after the addition of the calcium oxide into water, determined as defined in the description, wherein the expanding agent, namely the calcium oxide, is present in an amount of 2-6 wt.-%, preferably 3-5 wt.-% of the hydraulic binder. - the calcium oxide has a particle size distribution characterized by a residue of at least 6 wt.-% on a 45 μm mesh sieve, and at least one of the following: - the calcium oxide has a reactivity that is characterized by a conductivity of < 11 mS/cm when dissolved in water, determined as defined in Example 1, - the calcium oxide has a reactivity that is characterized by an average temperature increase of < 0,5°C/min during the first 15 minutes after the addition of the calcium oxide into water, determined as defined in the description, - the calcium oxide has a reactivity that is characterized by a temperature increase of < 10°C during the first 5 minutes after the addition of the calcium oxide into water, determined as defined in the description,
A laundry treatment appliance comprising a drawer for containing at least one laundry treatment agent, and at least two components ( 210 P1 ,210 P2 ; 210 E ; 215 1,AD ; 245; 250 ) associated with said drawer and configured to be manually actuated by a user while the user is interacting with the drawer , characterized in that said at least two components ( 210 P1 ,210 P2 ; 210 E ; 215 1,AD ; 245; 250 ) comprise, at least on respective portions ( 210 P1 ,210 P2 ; 210 E,ACT ; 215 1,AD ; 245 G1 ,245 G2 ,245 AB ; 250 ACT ) thereof, respective markers with at least one common appearance feature, which stands out from a generally uniform appearance of the drawer , for allowing the user to visually identify said at least two components ( 210 P1 ,210 P2 ; 210E; 215 1,AD ; 245; 250 ) in the drawer , wherein said markers comprise, for at least one of said at least two components ( 210 P1 ,210 P2 ; 210 E ; 215 1,AD ; 245; 250 ), a function indicator allowing the user to recognize a function of the respective marked component ( 210 P1 ,210 P2 ; 210 E ; 215 1,AD ; 245; 250 ) or of a drawer part associated therewith.