mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine, comprising - a tower, - an energy conversion unit arranged on the tower, - a rotor, which is connected to the energy conversion unit and has two rotor blades (30a, 30b) fastened to a hub, - a measuring means arranged in the hub for measuring the mechanical deformation of the hub, and - an individual blade controller for setting the blade pitch angle of the rotor blades (30a, 30b), characterized in that the measuring means (50a, 60a, 50b, 60b) is designed to detect the distance between two defined locations opposite each other in the hub, and the individual blade controller is designed to set the blade pitch angle of both rotor blades, on the basis of the distance measured between the defined locations or the distance change measured between the defined locations, in such a way that a minimum rotor pitch torque M YR results. - a tower, - an energy conversion unit arranged on the tower, - a rotor, which is connected to the energy conversion unit and has two rotor blades (30a, 30b) fastened to a hub, - a measuring means arranged in the hub for measuring the mechanical deformation of the hub, and - an individual blade controller for setting the blade pitch angle of the rotor blades (30a, 30b), characterized in that the measuring means (50a, 60a, 50b, 60b) is designed to detect the distance between two defined locations opposite each other in the hub, and the individual blade controller is designed to set the blade pitch angle of both rotor blades, on the basis of the distance measured between the defined locations or the distance change measured between the defined locations, in such a way that a minimum rotor pitch torque M YR results.
3-[(3-{[4-(4-Morpholinylmethyl)-1 H -pyrrol-2-yl]methylene}-2-oxo-2,3-dihydro-1 H -indol-5-yl)methyl]-1,3-thiazolidine-2,4-dione methanesulphonate of formula: wherein the notation means that the double bond has the Z or E configuration.
A method for storing a file on a plurality of servers (S 1, S 2,..., S n), wherein the number of servers (S 1, S 2,..., S n) is n and the maximum number of servers (S 1, S 2,..., S n) which might fail is t, preferably including a predefined number b of byzantine failures and a number t-b of crashes of the servers (S 1, S 2,..., S n), and wherein n equals 2t+b+1, characterized by the steps of a) Encoding the file (F, Δ 1) into a plurality of chunks (C 1, C 2), wherein the number of chunks (n + δ 1, n) is equal to or greater than the number of servers n, b) Sending n chunks (C 1) of the file to the n servers (S 1, S 2,..., S n), wherein one chunk (C 1) is sent to each server (S 1, S 2,..., S n) c) Determining the number of replies r from the n servers (S 1, S 2,..., S n) indicating successful storage of the respective chunks (C 1), d) Checking if the number of replies r matches a terminating condition, and if not e) Generating a new file (Δ 2) comprising one or more chunks (C 1, C 2) of the old file, based on a reconstruction threshold (m 1, m 2,...) of the old file and the number of replies r, f) Perform steps a)-e) with the new file (Δ 2) as file for these steps, until the terminating condition in step d) is fulfilled, wherein the terminating condition is based on the difference between the reconstruction thresholds of the new file (Δ 1, Δ 2,..., Δ k) of step e), when step e) has been performed at least once, and the old file of step a), and based on the maximum number of servers t which might fail, wherein the reconstruction threshold indicates a minimum number of chunks necessary for reconstruction of a file (Δ 1, Δ 2, Δ 3). a) Encoding the file (F, Δ 1) into a plurality of chunks (C 1, C 2), wherein the number of chunks (n + δ 1, n) is equal to or greater than the number of servers n, b) Sending n chunks (C 1) of the file to the n servers (S 1, S 2,..., S n), wherein one chunk (C 1) is sent to each server (S 1, S 2,..., S n) c) Determining the number of replies r from the n servers (S 1, S 2,..., S n) indicating successful storage of the respective chunks (C 1), d) Checking if the number of replies r matches a terminating condition, and if not e) Generating a new file (Δ 2) comprising one or more chunks (C 1, C 2) of the old file, based on a reconstruction threshold (m 1, m 2,...) of the old file and the number of replies r, f) Perform steps a)-e) with the new file (Δ 2) as file for these steps, until the terminating condition in step d) is fulfilled,
A device for sensing the threshold voltage (Vth) of a driving TFT included in an organic light emitting display with a plurality of pixels each having an OLED and a driving TFT for controlling the amount of light emitted by the OLED, the device comprising: a data drive circuit adapted to apply a first data voltage (Vdata1') to the gate node (Ng) of the driving TFT during a first programming period, obtain the source node voltage (Vgs) of the driving TFT as a first sensing voltage (Vsen1) during a first sensing period in which the gate-source voltage (Vgs) of the driving TFT is constantly held at a first value higher than the threshold voltage (Vth) of the driving TFT, apply a second data voltage (Vdata2') to the gate node (Ng) of the driving TFT during a second programming period (T2'), and obtain the source node voltage (Vs) of the driving TFT as a second sensing voltage (Vsen2) during a second sensing period (T4') in which the gate-source voltage (Vgs) of the driving TFT is constantly held at a second value higher than the threshold voltage of the driving TFT; and a timing controller adapted to calculate an nth sensing ratio, n is a positive integer, based on the ratio between the first and second sensing voltages (Vsen1/Vsen2), calculate a change in sensing ratio by comparing the nth sensing ratio with a preset initial sensing ratio (VSRinit) by subtracting the sensing ratio from the preset initial sensing ratio (VSRinit), and then read a change (ΔVth) in the threshold voltage (Vth) of the driving TFT from a look-up table by using the change in sensing ratio as a read address. a data drive circuit adapted to apply a first data voltage (Vdata1') to the gate node (Ng) of the driving TFT during a first programming period, obtain the source node voltage (Vgs) of the driving TFT as a first sensing voltage (Vsen1) during a first sensing period in which the gate-source voltage (Vgs) of the driving TFT is constantly held at a first value higher than the threshold voltage (Vth) of the driving TFT, apply a second data voltage (Vdata2') to the gate node (Ng) of the driving TFT during a second programming period (T2'), and obtain the source node voltage (Vs) of the driving TFT as a second sensing voltage (Vsen2) during a second sensing period (T4') in which the gate-source voltage (Vgs) of the driving TFT is constantly held at a second value higher than the threshold voltage of the driving TFT; and a timing controller adapted to calculate an nth sensing ratio, n is a positive integer, based on the ratio between the first and second sensing voltages (Vsen1/Vsen2), calculate a change in sensing ratio by comparing the nth sensing ratio with a preset initial sensing ratio (VSRinit) by subtracting the sensing ratio from the preset initial sensing ratio (VSRinit), and then read a change (ΔVth) in the threshold voltage (Vth) of the driving TFT from a look-up table by using the change in sensing ratio as a read address.
A load bearing anti-vibration foot portion for mounting to a main body of a spectroscopic instrument for supporting the spectroscopic instrument on a surface, the foot portion comprising a load bearing elastomeric portion and an internal stub portion, the stub portion being generally cylindrical having a first cylindrical portion with a first external diameter and a second cylindrical portion with a second, smaller, external diameter, the elastomeric portion being generally cup shaped, and comprising a base portion for contacting with a surface on which the instrument is to be supported, the stub portion being provided within the elastomeric portion and being rigid compared to the elastomeric portion, wherein the elastomeric portion has a first hollow cylindrical portion with a first internal diameter, a second hollow cylindrical portion with a second, smaller, internal diameter and a flared portion between the first and second cylindrical portions, and the first hollow cylindrical portion of the elastomeric portion is mounted to the first cylindrical portion of the stub portion, the second cylindrical portion, of the stub portion being further from the body of the instrument than the first portion and extending down into the elastomeric portion, wherein, an internal wall of the second hollow cylindrical portion of the elastomeric portion is spaced from an external wall of the second portion of the stub portion such that the elastomeric portion is moveable transversely relative to the second portion of the stub portion to absorb vibration whilst presence of the second portion of the stub restricts transverse movement of the elastomeric portion and liquid is provided in the spacing between the internal wall of the elastomeric portion and the external wall of the stub portion to damp such movement.
A method comprising: receiving, by a processing device of a client device (110A-Z), a bandwidth parameter corresponding to aggregated network statistics, the bandwidth parameter representing a statistical measure of bandwidth experienced by other client devices when located at a current geographic location of the client device; initializing an upload quality parameter of an upload session based on the received bandwidth parameter, the upload session comprising upload of content from the client device; and modifying, by the processing device, the upload quality parameter during the upload session based on an updated bandwidth parameter, the updated bandwidth parameter corresponding to aggregated network statistics, the updated bandwidth parameter representing a statistical measure of bandwidth experienced by other client devices when located at a new geographic location of the client device, the upload quality parameter being used to control a format of the upload session. receiving, by a processing device of a client device (110A-Z), a bandwidth parameter corresponding to aggregated network statistics, the bandwidth parameter representing a statistical measure of bandwidth experienced by other client devices when located at a current geographic location of the client device; initializing an upload quality parameter of an upload session based on the received bandwidth parameter, the upload session comprising upload of content from the client device; and modifying, by the processing device, the upload quality parameter during the upload session based on an updated bandwidth parameter, the updated bandwidth parameter corresponding to aggregated network statistics, the updated bandwidth parameter representing a statistical measure of bandwidth experienced by other client devices when located at a new geographic location of the client device, the upload quality parameter being used to control a format of the upload session.
A solar cell that has a thin film of active material in which is defined a series or array of diffraction cells, wherein: each diffraction cell has a non-periodic series of diffraction features; each diffraction cell is configured to suppress only a first order diffraction mode, only a combination of the first order diffraction mode and a second order diffraction mode, or only a combination of the first order diffraction mode, the second order diffraction mode, and a third order diffraction mode; and transfer energy from one or more of the suppressed diffraction modes to one or more higher order diffraction modes that are guided within the thin film, so as to enhance at least one of the one or more higher order diffraction modes. each diffraction cell has a non-periodic series of diffraction features; each diffraction cell is configured to suppress only a first order diffraction mode, only a combination of the first order diffraction mode and a second order diffraction mode, or only a combination of the first order diffraction mode, the second order diffraction mode, and a third order diffraction mode; and transfer energy from one or more of the suppressed diffraction modes to one or more higher order diffraction modes that are guided within the thin film, so as to enhance at least one of the one or more higher order diffraction modes.
A baler comprising: a bale chamber; a plunger configured to compress crop material in said bale chamber in order to form a bale; a plurality of knotters; a needle yoke with a plurality of needles configured to deliver a plurality of lower strands through said bale chamber to said plurality of knotters; a tucker arm shaft carrying a plurality of tucker arms configured to deliver a plurality of upper strands to said plurality of knotters; a driving shaft located above the bale chamber and extending in a traverse direction of the baler; wherein the tucker arm shaft extends parallel to the driving shaft; a tucker arm coupling device (192, 193) configured to covert the rotation of the driving shaft into a rotation of the tucker arm shaft; a needle coupling device configured to convert a rotation of the driving shaft into a movement of the needle yoke from a rest position to a twine delivery position and back; such that the movement of the needle yoke is synchronized with the rotation of the tucker arm shaft; wherein said plurality of knotters is configured to receive the plurality of upper and lower strands from said plurality of tucker arms and from said plurality of needles, respectively; characterised by: a separate knotter coupling device between the driving shaft and a driveable knotter shaft coupled to the plurality of knotters, said knotter coupling device being configured to couple the driving shaft to the driveable knotter shaft. a bale chamber; a plunger configured to compress crop material in said bale chamber in order to form a bale; a plurality of knotters; a needle yoke with a plurality of needles configured to deliver a plurality of lower strands through said bale chamber to said plurality of knotters; a tucker arm shaft carrying a plurality of tucker arms configured to deliver a plurality of upper strands to said plurality of knotters; a driving shaft located above the bale chamber and extending in a traverse direction of the baler; wherein the tucker arm shaft extends parallel to the driving shaft; a tucker arm coupling device (192, 193) configured to covert the rotation of the driving shaft into a rotation of the tucker arm shaft; a needle coupling device configured to convert a rotation of the driving shaft into a movement of the needle yoke from a rest position to a twine delivery position and back; such that the movement of the needle yoke is synchronized with the rotation of the tucker arm shaft; wherein said plurality of knotters is configured to receive the plurality of upper and lower strands from said plurality of tucker arms and from said plurality of needles, respectively; characterised by: a separate knotter coupling device between the driving shaft and a driveable knotter shaft coupled to the plurality of knotters, said knotter coupling device being configured to couple the driving shaft to the driveable knotter shaft.
An endobronchial blocker catheter for use in blocking a selected mainstem bronchus under guidance of a bronchoscope, comprising: a tubular assembly, said tubular assembly comprising a tubular member and a loop disposed at a distal end of said tubular member, said loop sized such that said bronchoscope is passable therethrough; and an elongated body having a plurality of lumens (28, 29) therein, and an inflatable blocker balloon disposed about a distal portion of said elongated body, said balloon having a diameter upon inflation sufficient for blocking said mainstem bronchus, a first one of said lumens (28, 29) extending to an interior of the balloon to accomplish inflation of said balloon for retaining said blocker catheter in said mainstem bronchus, a second one of said lumens (28, 29) sized for receiving said tubular assembly in a manner such that said loop extends from a distal end of said elongated body, whereby the blocker catheter is guidable by the bronchoscope to the desired inflation site via the loop. a tubular assembly, said tubular assembly comprising a tubular member and a loop disposed at a distal end of said tubular member, said loop sized such that said bronchoscope is passable therethrough; and an elongated body having a plurality of lumens (28, 29) therein, and an inflatable blocker balloon disposed about a distal portion of said elongated body, said balloon having a diameter upon inflation sufficient for blocking said mainstem bronchus, a first one of said lumens (28, 29) extending to an interior of the balloon to accomplish inflation of said balloon for retaining said blocker catheter in said mainstem bronchus, a second one of said lumens (28, 29) sized for receiving said tubular assembly in a manner such that said loop extends from a distal end of said elongated body, whereby the blocker catheter is guidable by the bronchoscope to the desired inflation site via the loop.
A vehicle lid device, comprising: a housing having a fuel filling aperture portion and a concave portion; a lid opening and closing an opening of the housing; a base member disposed in the concave portion; characterized in that a link member includes a first link member and a second link member), the first link member including respective shaft portions on a lower side fitted and connected to corresponding shaft holes of the base member to be turnable, and respective shaft portions on an upper side fitted and connected to the corresponding shaft holes of the support member to be turnable, the second link member includes respective shaft portions on a lower side fitted and connected to the corresponding shaft holes of the base member to be turnable, and respective shaft portions on an upper side fitted and connected to the corresponding shaft holes of the support member to be turnable, and an urging device supported on the support shaft portions, and including one end disposed inside the cavity of the second link member and the other end disposed on a lower side of the first link member. a housing having a fuel filling aperture portion and a concave portion; a lid opening and closing an opening of the housing; a base member disposed in the concave portion; characterized in that a link member includes a first link member and a second link member), the first link member including respective shaft portions on a lower side fitted and connected to corresponding shaft holes of the base member to be turnable, and respective shaft portions on an upper side fitted and connected to the corresponding shaft holes of the support member to be turnable, the second link member includes respective shaft portions on a lower side fitted and connected to the corresponding shaft holes of the base member to be turnable, and respective shaft portions on an upper side fitted and connected to the corresponding shaft holes of the support member to be turnable, and an urging device supported on the support shaft portions, and including one end disposed inside the cavity of the second link member and the other end disposed on a lower side of the first link member.
A device for treating a mold surface limiting a mold cavity of a mold or being a surface of a mold core for producing a mold, the device comprising a treating carriage, the treating carriage comprises at least two treating drums (32A, 32B), the treating carriage comprising a support on which the treating drums (32A, 32B) are mounted to rotate, characterized in that the support comprises a joint allowing the two treating drums (32A, 32B) to be pivoted relative to each other, wherein the treating carriage comprises two support units (64A, 64B) on each of which one of the treating drums (32A, 32B) is mounted, wherein the two support units (64A, 64B) are connected to each other via said joint which axis is oriented at a right angle to the base plane of the treating carriage; and wherein the treating drums (32A, 32B) are each mounted between wheels on each of said support units (64A, 64B). joint allowing the two treating drums (32A, 32B) to be pivoted relative to each other, wherein the treating carriage comprises two support units (64A, 64B) on each of which one of the treating drums (32A, 32B) is mounted, wherein the two support units (64A, 64B) are connected to each other via said joint which axis is oriented at a right angle to the base plane of the treating carriage; and wherein the treating drums (32A, 32B) are each mounted between wheels on each of said support units (64A, 64B).
A substrate for graphene growth, comprising: a glass-ceramic body; and plural metallic islands disposed on a surface of the glass-ceramic body. a glass-ceramic body; and plural metallic islands disposed on a surface of the glass-ceramic body.
A system comprising: a Global Navigation Satellite System (GNSS) receiver configured to receive signals from satellites of the GNSS and to be installed on a vehicle; a processing system, where the memory circuitry comprises a three-dimensional map database; wherein the processing system is configured to: determine if the accuracy of position data provided by the GNSS receiver is greater than a threshold level; and only if the accuracy of the position data is greater than the threshold level, the processing system is configured to: receive at least one radar return image; correlate the at least one radar return image with the three-dimensional map database, wherein three-dimensional position data last received from the GNSS receiver when the accuracy was below the threshold level is used to determine a portion of the three-dimensional map database for comparison with the radar return image; and determine, based upon the correlation, at least one of a three-dimensional position and a velocity of the vehicle. a Global Navigation Satellite System (GNSS) receiver configured to receive signals from satellites of the GNSS and to be installed on a vehicle; a processing system, where the memory circuitry comprises a three-dimensional map database; wherein the processing system is configured to: determine if the accuracy of position data provided by the GNSS receiver is greater than a threshold level; and only if the accuracy of the position data is greater than the threshold level, the processing system is configured to: receive at least one radar return image; correlate the at least one radar return image with the three-dimensional map database, wherein three-dimensional position data last received from the GNSS receiver when the accuracy was below the threshold level is used to determine a portion of the three-dimensional map database for comparison with the radar return image; and determine, based upon the correlation, at least one of a three-dimensional position and a velocity of the vehicle. receive at least one radar return image; correlate the at least one radar return image with the three-dimensional map database, wherein three-dimensional position data last received from the GNSS receiver when the accuracy was below the threshold level is used to determine a portion of the three-dimensional map database for comparison with the radar return image; and determine, based upon the correlation, at least one of a three-dimensional position and a velocity of the vehicle.