mhurhangee/patent-ind-claim-en huggingface dataset:
A method for damping an oscillation of a tower of a wind turbine comprising: - Preparing for each rotor blade a precursor signal, where each precursor signal comprises: ∘ A first periodic component with a first amplitude which is larger than zero, and where the first frequency of the first periodic component corresponds to the frequency difference between the tower frequency and the rotor frequency, and ∘ a second periodic component with a second amplitude which is larger than zero, and where a second frequency of the second periodic component corresponds to a frequency sum of the tower frequency and the rotor frequency, - Preparing for each rotor blade a tower damping pitch control signal as a result of the precursor signal wherein the second amplitude of the second periodic component has been partially or fully reduced relative to the first amplitude of the first periodic component, - Damping the oscillation of the tower by pitching each rotor blade individually according to the tower damping pitch control signals. - Preparing for each rotor blade a precursor signal, where each precursor signal comprises: ∘ A first periodic component with a first amplitude which is larger than zero, and where the first frequency of the first periodic component corresponds to the frequency difference between the tower frequency and the rotor frequency, and ∘ a second periodic component with a second amplitude which is larger than zero, and where a second frequency of the second periodic component corresponds to a frequency sum of the tower frequency and the rotor frequency, ∘ A first periodic component with a first amplitude which is larger than zero, and where the first frequency of the first periodic component corresponds to the frequency difference between the tower frequency and the rotor frequency, and ∘ a second periodic component with a second amplitude which is larger than zero, and where a second frequency of the second periodic component corresponds to a frequency sum of the tower frequency and the rotor frequency, - Preparing for each rotor blade a tower damping pitch control signal as a result of the precursor signal wherein the second amplitude of the second periodic component has been partially or fully reduced relative to the first amplitude of the first periodic component, - Damping the oscillation of the tower by pitching each rotor blade individually according to the tower damping pitch control signals.
Computer-implemented method for training a machine learning system for generating driving profiles and/or driving routes, in particular speed profiles, profiles of accelerator pedal positions or profiles of a gear ratio, of a vehicle, characterized by the steps of: - a generator of the machine learning system obtaining first random vectors as input variables and generating first driving routes and associated first driving profiles each relating to the first random vectors, - driving routes and respectively associated driving profiles recorded in driving mode being stored in a database , - second driving routes and also respectively associated second driving profiles recorded in driving mode being selected from the database , - a discriminator of the machine learning system obtaining as input variables first pairs made up of first generated driving routes and respectively associated first, generated driving profiles and second pairs made up of second driving routes and respectively associated second driving profiles recorded in driving mode, - the discriminator calculating, as a function of the input variables, outputs which characterize for each pair, obtained as input variables, whether the pair is a first pair made up of a first generated driving route and a respectively associated first, generated driving profile or a second pair made up of a second driving route and a respectively associated second driving profile recorded in driving mode, - a target function being optimized as a function of the outputs of the discriminator , the target function representing a distance between the distribution of the first pairs and the distribution of the second pairs. - a generator of the machine learning system obtaining first random vectors as input variables and generating first driving routes and associated first driving profiles each relating to the first random vectors, - driving routes and respectively associated driving profiles recorded in driving mode being stored in a database , - second driving routes and also respectively associated second driving profiles recorded in driving mode being selected from the database , - a discriminator of the machine learning system obtaining as input variables first pairs made up of first generated driving routes and respectively associated first, generated driving profiles and second pairs made up of second driving routes and respectively associated second driving profiles recorded in driving mode, - the discriminator calculating, as a function of the input variables, outputs which characterize for each pair, obtained as input variables, whether the pair is a first pair made up of a first generated driving route and a respectively associated first, generated driving profile or a second pair made up of a second driving route and a respectively associated second driving profile recorded in driving mode, - a target function being optimized as a function of the outputs of the discriminator , the target function representing a distance between the distribution of the first pairs and the distribution of the second pairs.
A wireline assembly configured to be operatively secured to a mast of a drill rig , the wireline assembly comprising: a drum configured for engagement with a drilling cable , wherein the drum has a rotational axis and defines an interior chamber extending axially relative to the rotational axis; a base portion ; opposed first and second support brackets , wherein the drum is positioned between the first and second support brackets and configured to rotate relative to the first and second support brackets ; a hydraulic motor positioned at least partially within the interior chamber of the drum and operatively coupled to the drum , wherein upon activation of the hydraulic motor , the drum is configured to rotate about the rotational axis relative to the first and second support brackets ; and a spooling device configured to receive the drilling cable from the drum and direct the drilling cable to a roller assembly of the drill rig , wherein the spooling device comprises a mounting bracket secured to the first and second support brackets , and wherein the mounting bracket and the first and second support brackets ) define respective openings in communication with the interior chamber of the drum , wherein the spooling device is configured for selective rotation relative to the drum . a drum configured for engagement with a drilling cable , wherein the drum has a rotational axis and defines an interior chamber extending axially relative to the rotational axis; a base portion ; opposed first and second support brackets , wherein the drum is positioned between the first and second support brackets and configured to rotate relative to the first and second support brackets ; a hydraulic motor positioned at least partially within the interior chamber of the drum and operatively coupled to the drum , wherein upon activation of the hydraulic motor , the drum is configured to rotate about the rotational axis relative to the first and second support brackets ; and a spooling device configured to receive the drilling cable from the drum and direct the drilling cable to a roller assembly of the drill rig , wherein the spooling device comprises a mounting bracket secured to the first and second support brackets , and wherein the mounting bracket and the first and second support brackets ) define respective openings in communication with the interior chamber of the drum , wherein the spooling device is configured for selective rotation relative to the drum .
Method for controlling recharging of a traction battery for a hybrid motor vehicle comprising a heat engine and an electric traction machine , in which the recharging of the traction battery is controlled by a recharging torque setpoint which varies according to the speed of the combustion engine and is executed when the vehicle is stationary, the method being characterized in that the activation of the recharging is triggered: - upon detection of the reaching of a predetermined position for triggering the recharging (Prec) by the accelerator pedal of the vehicle, and - Only in the event of detection of the positioning of the control lever of a gearbox of the vehicle in a neutral position or in a parking position of the vehicle. - Only in the event of detection of the positioning of the control lever of a gearbox of the vehicle in a neutral position or in a parking position of the vehicle.
A vessel device, in particular bottle device and/or canister device, which is formed at least partially and/or at least area by area as blow molded plastics mold , and has at least one plastics connecting seam for the fluid-tight, preferably gas-tight connection of at least two plastics workpiece areas , which are formed in a flat manner at least area by area, characterized in that the plastics connecting seam is embodied at least in sections as engage-behind device, which supports strength under a load in such a way that, at least under a tensile load acting in a standard load direction, the connection strength of the plastics connecting seam increases.
An adjustable support for seat belts, comprising: - a slider configured for coupling with a loop (TL) for the routing of a seat belt (SB); and - a guide path , which develops in a first direction of adjustment and is configured for guiding the slider along said first direction of adjustment (z), said slider having a plurality of operating positions along said first direction of adjustment, wherein said guide path develops in a second direction of adjustment (x), incident to said first direction of adjustment (z), and is configured for guiding the slider along said second direction of adjustment (x), said slider having further operating positions along said second direction of adjustment (x), wherein said second direction of adjustment (x) is orthogonal to said first direction of adjustment, wherein said guide path includes at least one first portion developing in said first direction of adjustment (z) and second portions developing in said second direction of adjustment (x), the adjustable support being characterized in that the slider is engaged and movable along the first portions and the second portions , and in that along said first portions the guide path includes a plurality of discrete position references configured for coupling with said slider for defining operating positions in the first direction of adjustment (z). - a slider configured for coupling with a loop (TL) for the routing of a seat belt (SB); and - a guide path , which develops in a first direction of adjustment and is configured for guiding the slider along said first direction of adjustment (z), said slider having a plurality of operating positions along said first direction of adjustment,
A method of fabricating an appliance , the method comprising: directly fabricating an aligner body including a support formed in a tooth-receiving cavity the tooth receiving cavity configured to receive a tooth; directly fabricating one or more coupling structures to the support ; and directly fabricating an attachment to the coupling structure , wherein the attachment is attachable to a tooth, the aligner configured to align the attachment at a predetermined location on a tooth; wherein the one or more coupling structures comprises one or more extensions extending between the support and the attachment , wherein said one or more extensions is configured to release the attachment with removal of the aligner body from the tooth. directly fabricating an aligner body including a support formed in a tooth-receiving cavity the tooth receiving cavity configured to receive a tooth; directly fabricating one or more coupling structures to the support ; and directly fabricating an attachment to the coupling structure , wherein the attachment is attachable to a tooth, the aligner configured to align the attachment at a predetermined location on a tooth; wherein the one or more coupling structures comprises one or more extensions extending between the support and the attachment , wherein said one or more extensions is configured to release the attachment with removal of the aligner body from the tooth.
A method implemented by a first network device, said method comprising the steps of : obtaining a Flow Specification, FlowSpec, rule with redirect indication information, wherein the redirect indication information comprises identification information uniquely identifying a first virtual private network (VPN) instance configured on a second network device, and wherein the identification information is a route distinguisher, RD, of the first VPN instance or a name of the first VPN instance; and wherein the redirect indication information is used for the second network device to redirect a data stream matching the FlowSpec rule to the first VPN instance ; and advertising the FlowSpec rule with the redirect indication information to the second network device. obtaining a Flow Specification, FlowSpec, rule with redirect indication information, wherein the redirect indication information comprises identification information uniquely identifying a first virtual private network (VPN) instance configured on a second network device, and wherein the identification information is a route distinguisher, RD, of the first VPN instance or a name of the first VPN instance; and wherein the redirect indication information is used for the second network device to redirect a data stream matching the FlowSpec rule to the first VPN instance ; and advertising the FlowSpec rule with the redirect indication information to the second network device.
A method of fitting a hearing instrument to a user's ear, the method comprising - taking an impression of the user's ear canal by an impression tool, wherein said impression tool comprises at least one measurement tube connected to an outside and opening into a remaining volume between the impression tool and the eardrum , and - manufacturing, based on geometrical data of the impression, an earmold , characterized in that the impression tool further comprises a receiver and a microphone , both in acoustic communication with the measurement tube , and the method comprises the further steps of - producing a sound signal in the ear canal and - performing an acoustic measurement of a response to this sound signal while the impression is being taken prior to removal of the impression, wherein the step of performing an acoustic measurement comprises the sub-steps of using the receiver to impinge the ear canal with the sound signal, and of using the microphone to measure a response acoustic signal in the ear canal, wherein the sound signal is emitted by the receiver into the measurement tube , and from there into the remaining volume , and the sound signal comes back from the remaining volume through the measurement tube and is picked up by the microphone . - taking an impression of the user's ear canal by an impression tool, wherein said impression tool comprises at least one measurement tube connected to an outside and opening into a remaining volume between the impression tool and the eardrum , and - manufacturing, based on geometrical data of the impression, an earmold , characterized in that the impression tool further comprises a receiver and a microphone , both in acoustic communication with the measurement tube , and - producing a sound signal in the ear canal and - performing an acoustic measurement of a response to this sound signal while the impression is being taken prior to removal of the impression, wherein the step of performing an acoustic measurement comprises the sub-steps of
A composition comprising (a) DHA; (b) uridine or its equivalent, wherein said uridine or its equivalent are selected from the group consisting of uridine, deoxyuridine, uridine phosphates and nucleobase uracil; and (c) folic acid, vitamin B12 and vitamin B6, for use in the treatment of a human being suffering from Alzheimer's disease, thereby supporting activities of daily living of said human as measured using the Alzheimer's Disease Cooperative Study Activities of Daily Living Inventory (ADCS-ADL).
An injection molding system , comprising: a mixing unit configured to mix a polymeric material with a blowing agent and to form a mixture of the polymeric material and the blowing agent; and an injection unit coupled to the mixing unit and configured to inject the mixture, characterized in that the mixing unit includes a mixing cartridge , a first mixing screw and a second mixing screw , the first and second mixing screws are disposed in the mixing cartridge , and the mixture is conveyable within and along the mixing cartridge to sequentially be in contact with the first mixing screw and the second mixing screw . a mixing unit configured to mix a polymeric material with a blowing agent and to form a mixture of the polymeric material and the blowing agent; and an injection unit coupled to the mixing unit and configured to inject the mixture, characterized in that the mixing unit includes a mixing cartridge , a first mixing screw and a second mixing screw , the first and second mixing screws are disposed in the mixing cartridge , and the mixture is conveyable within and along the mixing cartridge to sequentially be in contact with the first mixing screw and the second mixing screw . the mixing unit includes a mixing cartridge , a first mixing screw and a second mixing screw , the first and second mixing screws are disposed in the mixing cartridge , and the mixture is conveyable within and along the mixing cartridge to sequentially be in contact with the first mixing screw and the second mixing screw .
A planetary rotary rack device for nano coating equipment, characterized in that the planetary rotary rack device comprises a chamber, an air exhausting port connected to a top of the chamber , a vacuum pump connected to the air exhausting port, an air inlet valve connected to the chamber via an air inlet pipeline, a feeding valve connected to the chamber via a feeding pipeline, a radio frequency power supply connected to an electrode in the chamber via a wire, and a hollow tube installed at a central axis location of the chamber; wherein through holes are formed on the hollow tube, the air exhausting port is connected to an upper end of the hollow tube, a rotary motor is installed at a bottom of the chamber, and a planetary rotary rack is installed on the rotary motor; the planetary rotary rack comprises a rotary shaft and a rotary rack , wherein the rotary shaft is connected to the rotary motor; the rotary shaft and the hollow tube are coaxial; the rotary rack is fixed to the rotary shaft; at least two planetary rotary shafts are disposed on the rotary rack, symmetrically; at least one rack layer is disposed on the planetary rotary shafts; the planetary rotary shafts are perpendicular to the rotary rack and are capable of rotating; and a work piece to be processed is placed on the rack layer.
A method for selecting a sample removing area of an unstained tissue sample to be removed for molecular diagnostic , comprising the following steps: a) selecting a reference removing area in a reference image of a reference slice of an object; wherein biological material in the reference slice is a stained tissue sample; b) obtaining a digital sample image of a sample slice of the object under an imaging setting; wherein the biological material in the sample slice is an unstained tissue sample embedded in paraffin; wherein the sample slice is received on a sample slide and positioned in an optical path between a light source and an image detector of a bright field microscope, wherein in the optical path between the light source and the image detector it is further provided a contrast enhancing arrangement for improving contrast between the unstained biological material embedded in paraffin and background; and wherein light is provided passing through the sample slice to be received by the image detector; c) registering the digital sample image with the reference image, and translating the reference removing area in the reference image to the digital sample image; and d) identifying a sample removing area in the digital sample image based on the translated reference removing area. a) selecting a reference removing area in a reference image of a reference slice of an object; wherein biological material in the reference slice is a stained tissue sample; b) obtaining a digital sample image of a sample slice of the object under an imaging setting; wherein the biological material in the sample slice is an unstained tissue sample embedded in paraffin; wherein the sample slice is received on a sample slide and positioned in an optical path between a light source and an image detector of a bright field microscope, wherein in the optical path between the light source and the image detector it is further provided a contrast enhancing arrangement for improving contrast between the unstained biological material embedded in paraffin and background; and wherein light is provided passing through the sample slice to be received by the image detector; wherein the sample slice is received on a sample slide and positioned in an optical path between a light source and an image detector of a bright field microscope, wherein in the optical path between the light source and the image detector it is further provided a contrast enhancing arrangement for improving contrast between the unstained biological material embedded in paraffin and background; and wherein light is provided passing through the sample slice to be received by the image detector; c) registering the digital sample image with the reference image, and translating the reference removing area in the reference image to the digital sample image; and d) identifying a sample removing area in the digital sample image based on the translated reference removing area.