mhurhangee/ep-ind-claims huggingface dataset:
A method for assessing the performance impact of wind turbine upgrades, the method comprising: determining, with a computing device, a baseline power curve for a first wind turbine prior to the first wind turbine being upgraded, by plotting the first wind turbine's power output as a function of its measured local wind speed; determining a baseline wind speed transfer function for the first wind turbine prior to the first wind turbine being upgraded, the baseline wind speed transfer function relating a reference wind speed to a local wind speed for the first wind turbine; determining an upgraded wind speed transfer function for the first wind turbine after the first wind turbine is upgraded, the upgraded wind speed transfer function relating the reference wind speed to the local wind speed for the first wind turbine measured after the first wind turbine is upgraded; determining a corrected local wind speed for the first wind turbine based on a wind speed correction factor calculated as a function of the baseline and upgraded wind speed transfer functions; and determining an upgraded power curve for the first wind turbine based on the corrected local wind speed by plotting the first wind turbine's power output as a function of its corrected local wind speed. determining, with a computing device, a baseline power curve for a first wind turbine prior to the first wind turbine being upgraded, by plotting the first wind turbine's power output as a function of its measured local wind speed; determining a baseline wind speed transfer function for the first wind turbine prior to the first wind turbine being upgraded, the baseline wind speed transfer function relating a reference wind speed to a local wind speed for the first wind turbine; determining an upgraded wind speed transfer function for the first wind turbine after the first wind turbine is upgraded, the upgraded wind speed transfer function relating the reference wind speed to the local wind speed for the first wind turbine measured after the first wind turbine is upgraded; determining a corrected local wind speed for the first wind turbine based on a wind speed correction factor calculated as a function of the baseline and upgraded wind speed transfer functions; and determining an upgraded power curve for the first wind turbine based on the corrected local wind speed by plotting the first wind turbine's power output as a function of its corrected local wind speed.
A car sheet blanking method, comprising, firstly, determining a shape and size of a group sheet to be in compliance with a multi length of a car sheet, nesting the car sheet, and cutting it into group sheets, characterized by the steps of next, designing a backing die depending on scraps to be cut from the group sheet, and hollowing in areas corresponding to scraps to form blanking openings in the backing die, in which the dimensions of the blanking openings are greater than that of the actual scraps to be cut; then, placing a group sheet onto the backing die; laser cutting the group sheet based on the shape of car sheet, the cut scraps dropping through the blanking openings in the backing die onto a scrap conveyor belt underneath; stacking the cut sheets.
Packing process of at least two elements (6; 8; 106; 108; 206; 208) of a structure (4; 104; 204) of a vehicle, including a motor vehicle, the process comprising the following steps: (a) supply or manufacture of a first component; 106; 206), and a second element (8; 108; 208) covered with glue (12; 112); (c) gluing of the elements; 8; 106; 108; 206; 208) through glue (12; 112) by attaching the first element (6; 106; 206) and glue (12; 112); characterized in that at least one of the two elements (8; 108; 208) supplied is a sheet and includes a gage (10; 110; 210), the said spacer (10; 110; 210) being conformed in the sheet, the process including one step (b) stalling of the elements; 8; 106; 108; 206; 208) where the spacer (10; 110; 210) comes into contact with the other of the two elements (6; 106; 206) in such a way as to maintain the first element at a distance (6; 106; 206) glue (12; 112); then at step (c) gluing the spacer (10; 110; 210) is distorted in such a way as to allow the connection between the glue (12; 112) and the first element (6; 106; 206). (a) supply or manufacture of a first component; 106; 206), and a second element (8; 108; 208) covered with glue (12; 112); (c) gluing of the elements; 8; 106; 108; 206; 208) through glue (12; 112) by attaching the first element (6; 106; 206) and glue (12; 112); characterized in that at least one of the two elements (8; 108; 208) supplied is a sheet and includes a gage (10; 110; 210), the said spacer (10; 110; 210) being conformed in the sheet, the process including one step (b) stalling of the elements; 8; 106; 108; 206; 208) where the spacer (10; 110; 210) comes into contact with the other of the two elements (6; 106; 206) in such a way as to maintain the first element at a distance (6; 106; 206) glue (12; 112); then at step (c) gluing the spacer (10; 110; 210) is distorted in such a way as to allow the connection between the glue (12; 112) and the first element (6; 106; 206).
A position and orientation measurement method comprising: a first image input step of inputting a first image captured by a first image capture device which captures an image of a physical space; a second image input step of inputting a second image captured by a second image capture device which has a fixed position and orientation relative to the first image capture device and has a spatial resolution different from the first image capture device; and a first detection step of detecting, from the first image, a feature amount associated with image coordinates of an index on the physical space; a second detection step of detecting, from the second image, a feature amount associated with image coordinates of an index on the physical space; characterized in that the method further comprises a position and orientation calculation step of calculating a position and orientation of the first image capture device by multiplying a first weight value to the feature amount associated with the image coordinates of the index detected in one of the first and second detection steps that is associated with the image captured by the image capture device with the higher spatial resolution and a second weight value to the feature amount associated with the image coordinates of the index detected in the other of the first and second detection steps that is associated with the image captured by the image capture device with the lower spatial resolution, wherein the first weight value is larger than the second weight value. a first image input step of inputting a first image captured by a first image capture device which captures an image of a physical space; a second image input step of inputting a second image captured by a second image capture device which has a fixed position and orientation relative to the first image capture device and has a spatial resolution different from the first image capture device; and a first detection step of detecting, from the first image, a feature amount associated with image coordinates of an index on the physical space; a second detection step of detecting, from the second image, a feature amount associated with image coordinates of an index on the physical space; characterized in that the method further comprises a position and orientation calculation step of calculating a position and orientation of the first image capture device by multiplying a first weight value to the feature amount associated with the image coordinates of the index detected in one of the first and second detection steps that is associated with the image captured by the image capture device with the higher spatial resolution and a second weight value to the feature amount associated with the image coordinates of the index detected in the other of the first and second detection steps that is associated with the image captured by the image capture device with the lower spatial resolution, wherein the first weight value is larger than the second weight value.
A row unit (22, 122) for an agricultural harvester comprising: first and second longitudinally extending stripping plates (28, 30) mounted on a frame and having opposed stripping edges which define a gap between them; and an adjustment mechanism (36, 136) pivotably connected to one of the first and second stripping plates (28, 30), the adjustment mechanism comprising: a control arm; a linkage assembly connected to the control arm and pivotably connected to said one of the first and second stripping plates (28, 30); and a biasing member for biasing the linkage assembly along the control arm toward a predetermined position, characterized in that the adjustment mechanism further comprises: a pair of stops (48a, 48b) along a predetermined length of the control arm about opposite sides of the linkage assembly. first and second longitudinally extending stripping plates (28, 30) mounted on a frame and having opposed stripping edges which define a gap between them; and an adjustment mechanism (36, 136) pivotably connected to one of the first and second stripping plates (28, 30), the adjustment mechanism comprising: a control arm; a linkage assembly connected to the control arm and pivotably connected to said one of the first and second stripping plates (28, 30); and a biasing member for biasing the linkage assembly along the control arm toward a predetermined position, a control arm; a linkage assembly connected to the control arm and pivotably connected to said one of the first and second stripping plates (28, 30); and a biasing member for biasing the linkage assembly along the control arm toward a predetermined position, characterized in that the adjustment mechanism further comprises: a pair of stops (48a, 48b) along a predetermined length of the control arm about opposite sides of the linkage assembly.
Computer-implemented method for detecting an optical blockage of a camera of a vehicle, characterized in that - the camera is used to capture an image of a static scene from an environment of the vehicle, - capturing conditions present during the capturing of the image are determined, - the captured image is compared with a reference image which is retrieved from a vehicle-external server and is based on captures taken by a plurality of vehicles of the same static scene under the same or similar capturing conditions, - deviations in image features between the captured image and the reference image, if they exceed a specified tolerance level, are considered as an indication of the optical blockage of the camera. - the camera is used to capture an image of a static scene from an environment of the vehicle, - capturing conditions present during the capturing of the image are determined, - the captured image is compared with a reference image which is retrieved from a vehicle-external server and is based on captures taken by a plurality of vehicles of the same static scene under the same or similar capturing conditions, - deviations in image features between the captured image and the reference image, if they exceed a specified tolerance level, are considered as an indication of the optical blockage of the camera.
Lining carrier for a disc brake with a friction lining, which lining carrier has a front side which faces the friction lining, a rear side which faces away from the friction lining, and an edge face which runs around the rear side in plan view, and that region of the edge face which faces a lining carrier slot having a recess, characterized in that the edge face has a reinforcing rib (10; 10a) axially over a width of the lining carrier, in the region of the recess.
A stent delivery system having a first shaft and a second shaft, the second shaft movable relative to the first shaft and a control system for controlling movement of the stent delivery system, the control system comprising: a housing having a chamber formed therein; a first drive at least partially positioned within the housing and operably connected to the first shaft, the first drive being movable in response to a change in pressure within the chamber; a second drive at least partially positioned within the housing and operably connected to the second shaft, the second drive being movable in response to the change in pressure within the chamber; and a pressure controller operably connected to the housing and configured to change the pressure within the chamber to move the second drive relative to the first drive; wherein movement of the second drive relative to the first drive in a first direction causes the second shaft to move relative to the first shaft to expand a stent connected to the first shaft and the second shaft and movement of the second drive relative to the first drive in a second direction opposite to said first direction causes the second shaft to move relative to the first shaft to reconstrain the stent from an expanded configuration to a constrained configuration. a housing having a chamber formed therein; a first drive at least partially positioned within the housing and operably connected to the first shaft, the first drive being movable in response to a change in pressure within the chamber; a second drive at least partially positioned within the housing and operably connected to the second shaft, the second drive being movable in response to the change in pressure within the chamber; and a pressure controller operably connected to the housing and configured to change the pressure within the chamber to move the second drive relative to the first drive; wherein movement of the second drive relative to the first drive in a first direction causes the second shaft to move relative to the first shaft to expand a stent connected to the first shaft and the second shaft and movement of the second drive relative to the first drive in a second direction opposite to said first direction causes the second shaft to move relative to the first shaft to reconstrain the stent from an expanded configuration to a constrained configuration.
1. A system, comprising: a sensing arrangement configured to collect eye movement data of a user; an alerting arrangement configured to produce a perceptible alert in response to receipt of an alert signal; and a control unit in electronic communication with the sensing arrangement and the alerting arrangement, the control unit configured to: extract one or more current eye movement dynamics from the eye movement data, the current eye movement dynamics including one or more intersaccadic drift velocities of the user; identify a deceptive intent of the user by comparing the one or more current eye movement dynamics to one or more baseline eye movement dynamics accessible by the control unit, including comparing one or more of the intersaccadic drift velocities to one or more threshold drift velocities of the baseline eye movement dynamics; and send the alert signal to the alerting arrangement in response to an identification of the deceptive intent. a sensing arrangement configured to collect eye movement data of a user; an alerting arrangement configured to produce a perceptible alert in response to receipt of an alert signal; and a control unit in electronic communication with the sensing arrangement and the alerting arrangement, the control unit configured to: extract one or more current eye movement dynamics from the eye movement data, the current eye movement dynamics including one or more intersaccadic drift velocities of the user; identify a deceptive intent of the user by comparing the one or more current eye movement dynamics to one or more baseline eye movement dynamics accessible by the control unit, including comparing one or more of the intersaccadic drift velocities to one or more threshold drift velocities of the baseline eye movement dynamics; and send the alert signal to the alerting arrangement in response to an identification of the deceptive intent. extract one or more current eye movement dynamics from the eye movement data, the current eye movement dynamics including one or more intersaccadic drift velocities of the user; identify a deceptive intent of the user by comparing the one or more current eye movement dynamics to one or more baseline eye movement dynamics accessible by the control unit, including comparing one or more of the intersaccadic drift velocities to one or more threshold drift velocities of the baseline eye movement dynamics; and send the alert signal to the alerting arrangement in response to an identification of the deceptive intent.
An energy absorbing assembly, comprising: a foam stage having a first surface and a second surface, wherein the second surface comprises a recess; a thermoplastic stage comprising a frame and crush lobes; wherein the crush lobes extend from the frame of the thermoplastic stage into the recess; and wherein the frame of the thermoplastic stage further comprises traverse ribs disposed between longitudinal sides, wherein the crush lobes protrude from the traverse ribs. a foam stage having a first surface and a second surface, wherein the second surface comprises a recess; a thermoplastic stage comprising a frame and crush lobes; wherein the crush lobes extend from the frame of the thermoplastic stage into the recess; and wherein the frame of the thermoplastic stage further comprises traverse ribs disposed between longitudinal sides, wherein the crush lobes protrude from the traverse ribs.
A video encoder comprising: digital circuitry configured to perform, for each of a plurality of blocks of an input video stream, operations including: transforming one or more prediction residuals that correspond respectively to one or more coding modes in order to obtain one or more respective transform blocks for the one or more respective coding modes; for each coding mode Mk, processing the respective prediction residual and/or the respective transform block for the coding mode Mk to obtain rate modeling data for the coding mode Mk; wherein the digital circuitry is further configured to generate an encoded video stream that represents an encoded version of the input video stream; transmission circuitry configured to transmit a side information stream and the encoded video stream onto a communication medium, wherein the side information stream includes the rate modeling data for each coding mode and for each block, wherein the rate modeling data includes data characterizing a rate estimation function Rk(q) for at least one of the one or more coding modes, wherein q represents a quantization step size. digital circuitry configured to perform, for each of a plurality of blocks of an input video stream, operations including: transforming one or more prediction residuals that correspond respectively to one or more coding modes in order to obtain one or more respective transform blocks for the one or more respective coding modes; for each coding mode Mk, processing the respective prediction residual and/or the respective transform block for the coding mode Mk to obtain rate modeling data for the coding mode Mk; transforming one or more prediction residuals that correspond respectively to one or more coding modes in order to obtain one or more respective transform blocks for the one or more respective coding modes; for each coding mode Mk, processing the respective prediction residual and/or the respective transform block for the coding mode Mk to obtain rate modeling data for the coding mode Mk; wherein the digital circuitry is further configured to generate an encoded video stream that represents an encoded version of the input video stream; transmission circuitry configured to transmit a side information stream and the encoded video stream onto a communication medium, wherein the side information stream includes the rate modeling data for each coding mode and for each block, wherein the rate modeling data includes data characterizing a rate estimation function Rk(q) for at least one of the one or more coding modes, wherein q represents a quantization step size.
A computer-implemented method of processing digital image data, comprising: determining, by an encoder (12; 12a) configured to map a first digital image to an extended latent space (SP-W+) associated with a generator (14; 14a) of a generative adversarial network, GAN, system, a noise prediction (PRED-NOISE-x1) associated with the first digital image, determining, by the generator of the GAN system, at least one further digital image (x') based on the noise prediction (PRED-NOISE-x1) associated with the first digital image and a plurality (LAT-VAR) of latent variables associated with the extended latent space (SP-W+).
An apparatus for assembling a rolling bearing using an eccentric assembly method, comprising a clamping device designed for clamping an outer bearing ring, a force-generating device acting on the clamping device, and a calculation device that is data-technically coupled to the latter and is designed for calculating a radial force to be applied to the outer bearing ring by the force-generating device when the outer bearing ring is clamped in the clamping device, as a function of its dimensioning, wherein the force-generating device comprises a lever mechanism and the lever mechanism comprises a lever, which has at least one lever arm with an adjustably effective lever length.
Method for production of a fibrous pulp web, especially for production of a tissue or sanitary paper web, in which a fibrous pulp suspension is dewatered in a Crescent former to form a fibrous pulp web and the fibrous pulp web is dried with the aid of a Yankee, where the fibrous pulp suspension is fed through a headbox in between a forming wire and a felt in the Crescent former and is dewatered by centrifugal force in the area of a forming roll, where the fibrous pulp web is guided over a suction roll together with the forming wire and the felt directly after the forming roll, characterized in that the felt is between the suction roll and the fibrous pulp web and in that the forming wire is wrapped round the fibrous pulp web on the outside in the area of the suction roll.
A method for purifying and drying a polymer hydrogel, the method comprising: a) washing the polymer hydrogel with a water wash medium until the measured conductivity of the resulting slurry comprising the hydrogel and wash water medium is less than 5 mS/cm; and b) spray drying the resulting slurry, wherein said wash water medium is added in an amount resulting in a slurry comprising at least 80% by weight water and wherein said wash water medium is at a temperature of between 0°C and 100°C. a) washing the polymer hydrogel with a water wash medium until the measured conductivity of the resulting slurry comprising the hydrogel and wash water medium is less than 5 mS/cm; and b) spray drying the resulting slurry,
An electrode forming apparatus comprising a liquid discharge apparatus, the liquid discharge apparatus comprising: a conveyor to convey a substrate, wherein the substrate is an electrode substrate; a liquid adherence member disposed on the conveyor and partially held between the conveyor and an end of the substrate; and a discharger (4, 7) to discharge a liquid composition to the substrate and the liquid adherence member, wherein, when the substrate is conveyed by the conveyor, a portion of the liquid adherence member is held between an end of the substrate and the conveyor, such that the substrate is inclined with respect to a conveyance surface of the conveyor on which to convey the substrate. a conveyor to convey a substrate, wherein the substrate is an electrode substrate; a liquid adherence member disposed on the conveyor and partially held between the conveyor and an end of the substrate; and a discharger (4, 7) to discharge a liquid composition to the substrate and the liquid adherence member, wherein, when the substrate is conveyed by the conveyor, a portion of the liquid adherence member is held between an end of the substrate and the conveyor, such that the substrate is inclined with respect to a conveyance surface of the conveyor on which to convey the substrate.