mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor balance adjustment method (S1) in which a rotor includes a rotor main body extending in an axial direction (Da) and a plurality of impellers fixed to the rotor main body, the method comprising: an impeller adjustment process (S3) of adjusting a balance of a position of the center of gravity of the impeller as one body by separately adjusting weight with respect to each of the plurality of impellers before being attached to the rotor main body; a fixing process (S4) of fixing the plurality of impeller to the rotor main body after the impeller adjustment process is performed; an inclination adjustment process (S6) of adjusting an inclination of a large-sized impeller with respect to the rotor main body after the fixing process is performed, the large-sized impeller being an impeller having large weight among the plurality of impellers fixed to the rotor main body; and a rotor adjustment process (S7) of adjusting a balance of a position of the center of gravity of the rotor by adjusting weight of impellers other than the large-sized impeller among the plurality of impellers after the inclination adjustment process is performed. an impeller adjustment process (S3) of adjusting a balance of a position of the center of gravity of the impeller as one body by separately adjusting weight with respect to each of the plurality of impellers before being attached to the rotor main body; a fixing process (S4) of fixing the plurality of impeller to the rotor main body after the impeller adjustment process is performed; an inclination adjustment process (S6) of adjusting an inclination of a large-sized impeller with respect to the rotor main body after the fixing process is performed, the large-sized impeller being an impeller having large weight among the plurality of impellers fixed to the rotor main body; and a rotor adjustment process (S7) of adjusting a balance of a position of the center of gravity of the rotor by adjusting weight of impellers other than the large-sized impeller among the plurality of impellers after the inclination adjustment process is performed.
A false tooth assembly for a stator core of a generator , wherein the stator core comprises a lamination comprising a tooth , wherein the lamination comprises a damaged area , wherein the damaged area comprises a cutout starting from a tip of the tooth and radially extending into the lamination, the damaged area having a tapered shape having a narrow opening at the tip and a wide opening as the damaged area radially extending deeper into the lamination , the false tooth assembly comprising: a plurality of tapered false tooth pieces comprising a first false tooth having a tapered shape and a second false tooth having a tapered shape, wherein the plurality of tapered false tooth pieces are configured to be assembled together to form the false tooth assembly , wherein the false tooth assembly comprises a tapered shape, and wherein the tapered shape of the false tooth assembly is configured to enable the false tooth assembly to fill the damaged area and to lock the false tooth assembly into the damaged area, and wherein the plurality of false tooth pieces are configured to be assembled together in the damaged area such that a wide end of the tapered false tooth assembly is disposed into the wide opening of the damaged area and a narrow end of the tapered false tooth assembly is flushed with the narrow opening of the damaged area at the tip of the tooth . a plurality of tapered false tooth pieces comprising a first false tooth having a tapered shape and a second false tooth having a tapered shape, wherein the plurality of tapered false tooth pieces are configured to be assembled together to form the false tooth assembly , wherein the false tooth assembly comprises a tapered shape, and wherein the tapered shape of the false tooth assembly is configured to enable the false tooth assembly to fill the damaged area and to lock the false tooth assembly into the damaged area, and wherein the plurality of false tooth pieces are configured to be assembled together in the damaged area such that a wide end of the tapered false tooth assembly is disposed into the wide opening of the damaged area and a narrow end of the tapered false tooth assembly is flushed with the narrow opening of the damaged area at the tip of the tooth .
Non-aqueous ink composition for continuous deflected ink jet printing comprising: - a vehicle comprising one or several organic solvent compound(s) that is (are) liquid at ambient temperature; - one or several dye(s), preferably soluble, and/or pigment(s); - a binder, comprising at least one binding resin consisting of a cellulose derivative chosen from among cellulose esters, cellulose hydroxyethers, cellulose carboxyethers and mixtures thereof, with an average molecular mass by weight Mw greater than or equal to 120 kDa; in which said composition has a viscosity greater than 10 mPa.s at 20°C, measured at a shear rate of less than 1000 s -1 . - a vehicle comprising one or several organic solvent compound(s) that is (are) liquid at ambient temperature; - one or several dye(s), preferably soluble, and/or pigment(s); - a binder, comprising at least one binding resin consisting of a cellulose derivative chosen from among cellulose esters, cellulose hydroxyethers, cellulose carboxyethers and mixtures thereof, with an average molecular mass by weight Mw greater than or equal to 120 kDa;
A compound of formula I or a pharmacologically acceptable salt thereof: for use in the treatment of a brain cancer selected from a MGMT positive astrocytic brain tumour, a metastatic brain cancer and primary CNS lymphoma.
Running rail for a conveyor, in particular for a gravity-type conveyor, having a cross-sectional profile comprising a. at least three interconnected profiled portions comprising b. a first profiled portion , laterally open to the outside, for receiving first rollers of a carriage c. a second profiled portion , laterally open to the outside, for receiving second rollers of a carriage d. a third profiled portion , open in the vertical direction, for receiving third rollers of a carriage e. wherein the first and the second profiled portion are disposed in a reflection-symmetrical manner to a vertical central plane of the running rail , f. wherein the running rail is integrally formed and manufactured by bending a metal band or a metal strip, characterized in that g. the first , the second , and the third profiled portion each have a cross-sectional profile in a U-shape, comprising a connection portion (8a-c) and legs (5a,b; 6a,b; 7a,b) contiguous thereto on both sides. a. at least three interconnected profiled portions comprising b. a first profiled portion , laterally open to the outside, for receiving first rollers of a carriage c. a second profiled portion , laterally open to the outside, for receiving second rollers of a carriage d. a third profiled portion , open in the vertical direction, for receiving third rollers of a carriage e. wherein the first and the second profiled portion are disposed in a reflection-symmetrical manner to a vertical central plane of the running rail , f. wherein the running rail is integrally formed and manufactured by bending a metal band or a metal strip, characterized in that g. the first , the second , and the third profiled portion each have a cross-sectional profile in a U-shape, comprising a connection portion (8a-c) and legs (5a,b; 6a,b; 7a,b) contiguous thereto on both sides.
Method for processing data captured by a motor vehicle , comprising the steps of: - receiving data (D) captured along a route (WS) traveled by the motor vehicle ; - dividing the captured data (D) into segments (S i ) of the route (WS) traveled; - applying a local concealment to the data (D) of the segments (S i ) of the route (WS) traveled; and - passing on the concealed data (VD) for further processing; characterized in that the segments (S i ) have a length l seg and are each separated from each other by a gap (L i ), the data (D) corresponding to the gaps (Li) being deleted and the lengths l gap of the gaps (L i ) between the segments (S i ) being randomly selected from a length interval of length l gap_rand , with l gap +l gap_rand <l seg , and in that during local concealment, starting points (SP i ) of the segments (S i ) are shifted by an offset l rausch from a given interval, with l gap +l gap_rand +l rausch >l seg . - receiving data (D) captured along a route (WS) traveled by the motor vehicle ; - dividing the captured data (D) into segments (S i ) of the route (WS) traveled; - applying a local concealment to the data (D) of the segments (S i ) of the route (WS) traveled; and - passing on the concealed data (VD) for further processing;
Method for sensing a weld seam geometry of a plastic butt weld seam between pipeline components, preferably plastic pipes , including the following steps: • rough manual positioning of an optical sensor in relation to a butt weld seam between pipeline components, preferably plastic pipes, preferably at the pipe external diameter, wherein the sensor is aligned approximately perpendicularly to the pipe centre axis , • automatic approaching by the sensor of measurement positions along or around a sensor axis , • acquiring the visible weld seam geometry and/or the data by means of the sensor in each approached measurement position, • determining the optimum measurement position (opt. M) by way of the acquired data, preferably by means of an algorithm, • automatic approaching by the sensor of the optimum measurement position (opt. M) along or around the sensor axis , • acquiring the weld seam geometry to determine the quality of the weld seam, • analyzing and judging the measurement of the acquired weld seam geometry at the optimized measurement position. • rough manual positioning of an optical sensor in relation to a butt weld seam between pipeline components, preferably plastic pipes, preferably at the pipe external diameter, wherein the sensor is aligned approximately perpendicularly to the pipe centre axis , • automatic approaching by the sensor of measurement positions along or around a sensor axis , • acquiring the visible weld seam geometry and/or the data by means of the sensor in each approached measurement position, • determining the optimum measurement position (opt. M) by way of the acquired data, preferably by means of an algorithm, • automatic approaching by the sensor of the optimum measurement position (opt. M) along or around the sensor axis , • acquiring the weld seam geometry to determine the quality of the weld seam, • analyzing and judging the measurement of the acquired weld seam geometry at the optimized measurement position.
Non-therapeutic method of feeding a pregnant mammal, comprising administering a composition comprising sorbic acid or an ester or salt thereof and betaine to the pregnant mammal, wherein the dosage of sorbic acid or an ester or salt thereof is in a range of 0.02 - 100 grams per day, and the dosage of betaine is in a range of 0.02 - 100 grams per day. wherein the dosage of sorbic acid or an ester or salt thereof is in a range of 0.02 - 100 grams per day, and the dosage of betaine is in a range of 0.02 - 100 grams per day.
A method of manufacturing a self-expanding fire-fighting foam solution, the method comprising: purging air from a container, wherein the purging is performed via flowing an inert gas into the container, such that a substantially inert environment is created within the container; dispensing or filling a pre-determined amount of foam concentrate into the purged container; dispensing or filling a pre-determined amount of water into the purged container; and mixing the foam concentrate and water within the purged container, wherein the mixed foam and water within the inert purged container provide the self expanding fire-fighting foam solution. purging air from a container, wherein the purging is performed via flowing an inert gas into the container, such that a substantially inert environment is created within the container; dispensing or filling a pre-determined amount of foam concentrate into the purged container; dispensing or filling a pre-determined amount of water into the purged container; and mixing the foam concentrate and water within the purged container, wherein the mixed foam and water within the inert purged container provide the self expanding fire-fighting foam solution.
A tone bar woody material, wherein at least a partial region of a surface layer of a wood material was impregnated with a resin composition, the wood material comprises in the partial region, a plurality of pores , and the pores have been formed in the wood material by a production method, characterized in that : an average diameter of the plurality of pores is less than 1.2 times an average diameter of vessels in the wood material , and an average diameter of the plurality of pores is no less than 10 μm and no greater than 500 μm. at least a partial region of a surface layer of a wood material was impregnated with a resin composition, the wood material comprises in the partial region, a plurality of pores , and the pores have been formed in the wood material by a production method, characterized in that : an average diameter of the plurality of pores is less than 1.2 times an average diameter of vessels in the wood material , and an average diameter of the plurality of pores is no less than 10 μm and no greater than 500 μm. an average diameter of the plurality of pores is less than 1.2 times an average diameter of vessels in the wood material , and an average diameter of the plurality of pores is no less than 10 μm and no greater than 500 μm.
A self cooling light source comprising: at least one light-emitting diode for emitting light; and at least one light transmitting thermally conductive translucent element , said at least one light-emitting diode being mounted on said at least one light transmitting thermally conductive translucent element , said at least one light transmitting thermally conductive translucent element having a heat emitting surface through which most of the heat from said at least one light-emitting diode is dissipated; wherein said at least one light transmitting thermally conductive translucent element has a higher light reflectivity than light transmissivity; the self cooling light source further comprising: a reflective enclosure (2424; 2450; 2470; 2510, 2512, 2516, 2560, 2570; 2734, 2736, 2738; 2832, 2836, 2842; 2942, 2944, 2946, 2920, 2930) forming, with the at least one light transmitting thermally conductive translucent element , a light recycling cavity (2575; 2520; 2820; 2910) that redirects most of the light emitted by said at least one light- emitting diode to pass through and exit from said light transmitting thermally conductive translucent element through said heat emitting surface, wherein the light extraction efficiency of said light recycling cavity exceeds the light transmissivity of the at least one light transmitting thermally conductive translucent element . at least one light-emitting diode for emitting light; and at least one light transmitting thermally conductive translucent element , said at least one light-emitting diode being mounted on said at least one light transmitting thermally conductive translucent element , said at least one light transmitting thermally conductive translucent element having a heat emitting surface through which most of the heat from said at least one light-emitting diode is dissipated; wherein said at least one light transmitting thermally conductive translucent element has a higher light reflectivity than light transmissivity; the self cooling light source further comprising: a reflective enclosure (2424; 2450; 2470; 2510, 2512, 2516, 2560, 2570; 2734, 2736, 2738; 2832, 2836, 2842; 2942, 2944, 2946, 2920, 2930) forming, with the at least one light transmitting thermally conductive translucent element , a light recycling cavity (2575; 2520; 2820; 2910) that redirects most of the light emitted by said at least one light- emitting diode to pass through and exit from said light transmitting thermally conductive translucent element through said heat emitting surface, wherein the light extraction efficiency of said light recycling cavity exceeds the light transmissivity of the at least one light transmitting thermally conductive translucent element .
A compound having the structure of formula (I): or a salt thereof, wherein: represents a carbon-carbon single bond or a carbon-carbon double bond; R 1 is absent or a hydroxy group and R 2 is hydrogen, or R 1 and R 2 , together with the carbon atom to which they are attached, form an oxo group; R 3 is selected from -OH and each of n 1 , n 2 , n 3 , and n 5 are independently an integer from 0 to 3; n 4 is an integer of 1, 2, or 3; each G, G 1 , G 2 , G 3 , G 4 , and G 5 is independently a furanose or pyranose moiety; each L 1 , L 2 , L 3 , L 4 , and L 5 is independently a glycosidic bond, wherein at least one of L 1 , L 2 , L 3 , L 4 , and L 5 is an α glycosidic bond; wherein L 4 is selected from an α-1,2, α-1,3, β-1,2, β-1,3, β-1,4, and β-1,6 glycosidic bond; and when is a carbon-carbon double bond, R 1 is absent; wherein the compound is in isolated and purified form. represents a carbon-carbon single bond or a carbon-carbon double bond; R 1 is absent or a hydroxy group and R 2 is hydrogen, or R 1 and R 2 , together with the carbon atom to which they are attached, form an oxo group; R 3 is selected from -OH and each of n 1 , n 2 , n 3 , and n 5 are independently an integer from 0 to 3; n 4 is an integer of 1, 2, or 3; each G, G 1 , G 2 , G 3 , G 4 , and G 5 is independently a furanose or pyranose moiety; each L 1 , L 2 , L 3 , L 4 , and L 5 is independently a glycosidic bond, wherein at least one of L 1 , L 2 , L 3 , L 4 , and L 5 is an α glycosidic bond; wherein L 4 is selected from an α-1,2, α-1,3, β-1,2, β-1,3, β-1,4, and β-1,6 glycosidic bond; and when is a carbon-carbon double bond, R 1 is absent; wherein the compound is in isolated and purified form.
NC program that is run on a laser machine, a punching machine, or a laser punching combination machine for machining a plurality of different workpiece parts from a flat starting material by means of different tools, wherein the NC program comprises an NC production program with the NC program steps (31a-31e) required to produce the workpiece parts, characterised in that in addition to the NC production program , the NC program comprises for each of the producible different workpiece parts an extractable data set in the form of prefabricated individual part NC codes, in which there are stored the types of tools and tool steps including the associated machining parameters, necessary for the post-production of such an individual workpiece part .
Stacking storage arrangement comprising at least one container receiving space , a loading space arranged below the container receiving space , a frame assembly between the container receiving space and the loading space , and a stand at at least one corner of the container receiving space which is connected to the frame assembly by at least one connecting device , characterized in that the connecting device bridges an angle between the frame assembly and the stand and abuts the frame assembly in a clamping manner, wherein the frame assembly comprises at least two beams having different thicknesses, wherein the connecting device comprises at least two different clamping areas adapted to the different thicknesses.
A system for determining biological or physiological aspects relating to stiffness of at least one artery, the system comprising: a weighing scale including and integrating a first sensor and a second sensor; the first sensor configured and arranged to capture, from at least one foot of a user in an upright position while the user is standing on the weighing scale, a ballistocardiogram (BCG) signal indicative of at least one of physical movement and mechanical output of the user's heart and of the mechanical movement of blood through an aorta of the user, and to provide an output characterizing the BCG signal; the second sensor configured and arranged to detect a photoplethysmogram (PPG) or impedance cardiogram (ICG) signal indicative of characteristics of the user at a distal artery location, the characteristics including a measurement of the volumetric change of an artery or organ of the user, and to provide an output characterizing the PPG or ICG signal; and a logic circuit that is configured and arranged to process the BCG signal and the PPG or ICG signal provided from the first sensor and from the second sensor by: using the BCG signal as a T1 timing and the PPG or ICG signal as a T2 timing, computing a pulse transit time (PTT) based on a difference between the T2 timing and the T1 timing, wherein the PTT is indicative of the biological or physiological aspects relating to the arterial stiffness. a weighing scale including and integrating a first sensor and a second sensor; the first sensor configured and arranged to capture, from at least one foot of a user in an upright position while the user is standing on the weighing scale, a ballistocardiogram (BCG) signal indicative of at least one of physical movement and mechanical output of the user's heart and of the mechanical movement of blood through an aorta of the user, and to provide an output characterizing the BCG signal; the second sensor configured and arranged to detect a photoplethysmogram (PPG) or impedance cardiogram (ICG) signal indicative of characteristics of the user at a distal artery location, the characteristics including a measurement of the volumetric change of an artery or organ of the user, and to provide an output characterizing the PPG or ICG signal; and a logic circuit that is configured and arranged to process the BCG signal and the PPG or ICG signal provided from the first sensor and from the second sensor by: using the BCG signal as a T1 timing and the PPG or ICG signal as a T2 timing, computing a pulse transit time (PTT) based on a difference between the T2 timing and the T1 timing, wherein the PTT is indicative of the biological or physiological aspects relating to the arterial stiffness. using the BCG signal as a T1 timing and the PPG or ICG signal as a T2 timing, computing a pulse transit time (PTT) based on a difference between the T2 timing and the T1 timing, wherein the PTT is indicative of the biological or physiological aspects relating to the arterial stiffness.