mhurhangee/ep-ind-claims huggingface dataset:
Wind turbine blade oscillation preventer comprising an aperture and a sleeve and having a peripheral extent and a longitudinal extent, said preventer being configured for removable application over a wind turbine blade and configured to extend longitudinally thereover and peripherally thereabout; said preventer having a non-aerodynamic exterior surface which exhibits a rough surface capable of disrupting smooth or laminar airflow over a substantial portion of said longitudinal and peripheral extent of said sleeve when said preventer is in place on a wind turbine blade; characterised in that said preventer further comprises a smooth interior surface extending along a substantial portion of said longitudinal extent of said sleeve, wherein said smooth interior surface is provided in the form of a lining inside said sleeve and extending from an aperture region thereof, and wherein said preventer comprises a resilient collar at said aperture portion.
A reinforced composite material based on high alumina cement and tabular alumina or corundum, reinforced with glass-fibres, said composite material comprising: - high alumina cement with not less than 70% in Al 2 O 3 - tabular alumina or corundum - silica and zircon-based glass fibres - silicone resin - polyacrylic electrolyte and water as hydratation water. - high alumina cement with not less than 70% in Al 2 O 3 - tabular alumina or corundum - silica and zircon-based glass fibres - silicone resin - polyacrylic electrolyte
A sensing device comprising: a working electrode on a substrate; characterized in that: the working electrode comprises: a metallic layer contacting the substrate; an enzyme layer on the metallic layer; and a metallic porous layer on the enzyme layer wherein the metallic porous layer is electrically connected to the metallic layer, and the metallic layer, the metallic porous layer, and the enzyme layer are configured to detect a target analyte through an electrochemical reaction. a working electrode on a substrate; characterized in that: the working electrode comprises: a metallic layer contacting the substrate; an enzyme layer on the metallic layer; and a metallic porous layer on the enzyme layer wherein the metallic porous layer is electrically connected to the metallic layer, and the metallic layer, the metallic porous layer, and the enzyme layer are configured to detect a target analyte through an electrochemical reaction. a metallic layer contacting the substrate; an enzyme layer on the metallic layer; and a metallic porous layer on the enzyme layer wherein the metallic porous layer is electrically connected to the metallic layer, and the metallic layer, the metallic porous layer, and the enzyme layer are configured to detect a target analyte through an electrochemical reaction.
A lighting device, comprising a light exit chamber, delimited by a light exit body; a plurality of light sources, positioned within the light exit chamber, and arranged to emit light in the direction of the light exit body; an optical processing element, adapted to process the light emitted from the plurality of light sources; and a transparent antenna element, extending into the light exit chamber and positioned relative to the plurality of light sources such that each light source is arranged to transmit light toward the antenna element, wherein said transparent antenna element is separate from the optical processing elements, wherein the transparent antenna element being transparent for the light emitted by the plurality of light sources, and the antenna element comprises: a transparent conductive material that is self-supporting.
One or more computing devices for retrieving one or more output images, comprising: hardware logic circuitry, the hardware logic circuitry corresponding to: (a) one or more hardware processors that perform operations by executing machine-readable instructions stored in a memory, and/or (b) one or more other hardware logic components that perform operations using a task-specific collection of logic gates, the operations including: identifying a first-part image in response to at least one input signal provided by a user, using an input device; receiving first-part image information that describes the first-part image; using a generator component to transform the first-part image information into one or more instances of second-part generated image information, each instance of second-part generated image information complementing the first-part image information and being created by the generator component rather than being retrieved from a pre-existing empirical distribution of images, the generator component having been trained by a computer-implemented training system using a conditional generative adversarial network cGAN; retrieving one or more second-part output images from a data store based on said one more instances of second-part generated image information; generating a user interface presentation that presents the first-part image and said one or more second-part output images, the user interface presentation including one or more graphical prompts (608, 610, 612, 614) that allow a user to select any of said one or more second-part output images; and displaying the user interface presentation on a display device, for presentation to the user. identifying a first-part image in response to at least one input signal provided by a user, using an input device; receiving first-part image information that describes the first-part image; using a generator component to transform the first-part image information into one or more instances of second-part generated image information, each instance of second-part generated image information complementing the first-part image information and being created by the generator component rather than being retrieved from a pre-existing empirical distribution of images, the generator component having been trained by a computer-implemented training system using a conditional generative adversarial network cGAN; retrieving one or more second-part output images from a data store based on said one more instances of second-part generated image information; generating a user interface presentation that presents the first-part image and said one or more second-part output images, the user interface presentation including one or more graphical prompts (608, 610, 612, 614) that allow a user to select any of said one or more second-part output images; and displaying the user interface presentation on a display device, for presentation to the user.
A method of producing a SPM probe including a holding element, a cantilever, a scanning tip and a marking in the form of a protrusion (8") on the side of the cantilever opposite to the scanning tip, which positively identifies the position of the scanning tip, wherein the holding element with the cantilever is prefabricated cantilever in a conventional manner and the scanning tip and the marking are subsequently produced on the cantilever by gas-induced material deposition, characterised in that the scanning tip and the marking are fabricated in a self-aligning manner with the following steps: A providing a SPM probe, produced by a known method, with a holding element and a cantilever fastened to it without a scanning tip and marking; B initiating a local particle beam-induced material deposition on the cantilever, based on the gas-induced process, wherein the particle beam, preferably an electron beam, is directed and focused onto that position of the underside of the cantilever at which the scanning tip is to be formed. C adjusting the beam parameters of the particle beam such that the material deposition in the form of a marking occurs, preferably on the upper surface of the cantilever by forward scattered secondary particles. D altering the beam parameters of the particle beam such that the material deposition in the form of a scanning tip occurs, preferably on the underside of the cantilever, precisely opposite to the marking by rearward scattered secondary particles. A providing a SPM probe, produced by a known method, with a holding element and a cantilever fastened to it without a scanning tip and marking; B initiating a local particle beam-induced material deposition on the cantilever, based on the gas-induced process, wherein the particle beam, preferably an electron beam, is directed and focused onto that position of the underside of the cantilever at which the scanning tip is to be formed. C adjusting the beam parameters of the particle beam such that the material deposition in the form of a marking occurs, preferably on the upper surface of the cantilever by forward scattered secondary particles. D altering the beam parameters of the particle beam such that the material deposition in the form of a scanning tip occurs, preferably on the underside of the cantilever, precisely opposite to the marking by rearward scattered secondary particles.
A pan tilt camera comprising: a lens means including an image sensor, wherein the lens means can be tilted about a tilt rotation axis and rotated about a pan rotation axis; a rotating means configured to be rotatable about the pan rotation axis; a non-rotating means (42, 43, 44, 45) to which the rotating means is rotatably attached; and a flexible printed circuit (53, 54) configured to connect the lens means with the non-rotating means and including an arc-shaped first portion (53b, 54b) coaxial with the pan rotation axis in a plane perpendicular to the pan rotation axis, wherein the first portion is bent around an axis perpendicular to the pan rotation axis; characterized in that the flexible printed circuit (53, 54) further comprises an arc-shaped second portion (53d, 54d) coaxial with the tilt rotation axis in a plane perpendicular to the tilt rotation axis and bent around an axis perpendicular to the tilt rotation axis. a lens means including an image sensor, wherein the lens means can be tilted about a tilt rotation axis and rotated about a pan rotation axis; a rotating means configured to be rotatable about the pan rotation axis; a non-rotating means (42, 43, 44, 45) to which the rotating means is rotatably attached; and a flexible printed circuit (53, 54) configured to connect the lens means with the non-rotating means and including an arc-shaped first portion (53b, 54b) coaxial with the pan rotation axis in a plane perpendicular to the pan rotation axis, wherein the first portion is bent around an axis perpendicular to the pan rotation axis; characterized in that the flexible printed circuit (53, 54) further comprises an arc-shaped second portion (53d, 54d) coaxial with the tilt rotation axis in a plane perpendicular to the tilt rotation axis and bent around an axis perpendicular to the tilt rotation axis.
A method, performed by a first child access node, comprising: receiving, from a second access node via a first parent access node, a first message comprising configuration parameters indicating flexible resources for a cell served by the first child access node; receiving, from the first parent access node of the first child access node, a downlink control information comprising an activation indication of the flexible resources for the cell; and communicating, with a wireless device, transport blocks via the flexible resources of the cell based on the activation indication and the first message. receiving, from a second access node via a first parent access node, a first message comprising configuration parameters indicating flexible resources for a cell served by the first child access node; receiving, from the first parent access node of the first child access node, a downlink control information comprising an activation indication of the flexible resources for the cell; and communicating, with a wireless device, transport blocks via the flexible resources of the cell based on the activation indication and the first message.
A transaminase mutant, wherein an amino acid sequence of the transaminase mutant is an amino acid sequence as shown in SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 21, or SEQ ID NO: 29.
An active optical fiber comprising: (i) a silica based, rare-earth doped core having a first index of refraction n 1; (ii) a silica based inner cladding surrounding the core having a second index of refraction n 2 such that n 1 > n 2, wherein the inner cladding diameter is at least 125 μm (iii) a solid silica based outer cladding surrounding the first cladding having a third index of refraction n 3 such that n 2 > n 3 and comprising an index lowering dopant; characterized in that the silica based inner cladding has a numerical aperture NA defined as (n 2 2 -n 3 2) 1/2 between 0.3 and 0.45. (i) a silica based, rare-earth doped core having a first index of refraction n 1; (ii) a silica based inner cladding surrounding the core having a second index of refraction n 2 such that n 1 > n 2, wherein the inner cladding diameter is at least 125 μm (iii) a solid silica based outer cladding surrounding the first cladding having a third index of refraction n 3 such that n 2 > n 3 and comprising an index lowering dopant;
A method for determining a position of an oil-water contact with respect to a resistivity logging tool, the method comprising: drilling a horizontal wellbore above the oil-water contact in a subterranean formation, wherein the oil-water contact is a bounding surface in the subterranean formation above which predominantly oil occurs and below which predominantly water occurs; deploying the resistivity logging tool in the wellbore such that the oil-water contact is within a depth of investigation of the resistivity logging tool; causing the resistivity logging tool to make resistivity measurements of the subterranean formation while deployed in the wellbore; using a computer processor to process a 1D inversion of the resistivity measurements made by the resistivity tool to generate a resistivity profile of the subterranean formation; scanning the resistivity profile generated by the 1D inversion to obtain a vertical depth of the oil-water contact located below the resistivity logging tool; repeating said processing the 1D inversion and said scanning the resistivity profile to obtain a plurality of vertical depths of the oil-water contact located below the resistivity logging tool; applying a local residual weighted average of the plurality of vertical depths to generate an initial estimation of the position of the oil-water contact; inverting the initial estimation of the position of the oil-water contact to generate a resistivity of a water zone located below the oil-water contact and a modified position of the oil-water contact. drilling a horizontal wellbore above the oil-water contact in a subterranean formation, wherein the oil-water contact is a bounding surface in the subterranean formation above which predominantly oil occurs and below which predominantly water occurs; deploying the resistivity logging tool in the wellbore such that the oil-water contact is within a depth of investigation of the resistivity logging tool; causing the resistivity logging tool to make resistivity measurements of the subterranean formation while deployed in the wellbore; using a computer processor to process a 1D inversion of the resistivity measurements made by the resistivity tool to generate a resistivity profile of the subterranean formation; scanning the resistivity profile generated by the 1D inversion to obtain a vertical depth of the oil-water contact located below the resistivity logging tool; repeating said processing the 1D inversion and said scanning the resistivity profile to obtain a plurality of vertical depths of the oil-water contact located below the resistivity logging tool; applying a local residual weighted average of the plurality of vertical depths to generate an initial estimation of the position of the oil-water contact; inverting the initial estimation of the position of the oil-water contact to generate a resistivity of a water zone located below the oil-water contact and a modified position of the oil-water contact.
Braking device for an elevator installation for generating a frictional connection on a rail of the elevator installation and for stopping an elevator car in a parking position, the braking device comprising two legs (2, 3) having brake ends (4, 5), the first leg being articulated to a first articulation point of at least one transmission lever having a second articulation point which is spaced apart from the first articulation point in the longitudinal direction and is articulated to a first pivot point of at least one pressure lever, the second leg being articulated to a second pivot point of the pressure lever, and a third pivot point of the pressure lever being articulated to an articulation point of an actuating element such that, by means of a longitudinal movement of the actuating element, the braking device can be moved from a braking position, in which the brake ends (4, 5) have a minimum distance from one another, into an open position, in which the brake ends (4, 5) have a maximum distance from one another, and vice versa, the longitudinal movement of the actuating element being predetermined by a first end point and a second end point, characterized in that the end region (8, 9) of each leg (2, 3) opposite the brake end (4, 5) is articulated to a braking device frame. the second leg being articulated to a second pivot point of the pressure lever, and a third pivot point of the pressure lever being articulated to an articulation point of an actuating element such that, by means of a longitudinal movement of the actuating element, the braking device can be moved from a braking position, in which the brake ends (4, 5) have a minimum distance from one another, into an open position, in which the brake ends (4, 5) have a maximum distance from one another, and vice versa, the longitudinal movement of the actuating element being predetermined by a first end point and a second end point, characterized in that the end region (8, 9) of each leg (2, 3) opposite the brake end (4, 5) is articulated to a braking device frame.
Base structure for a device for transporting film wherein the base structure comprises: at least one upper guide unit and one lower guide unit, wherein the upper guide unit is designed to guide at least one upper movable cable, and the lower guide unit is designed to guide at least one lower movable cable (10-1, 10-2), wherein the at least one upper cable and the at least one lower cable (10-1, 10-2) can be arranged so as to clamp the film at least in places on the lateral edge thereof and to carry along said film, and wherein at least one guide unit of the guide units (50, 60) is designed to press the film, by means of the at least one cable guided by the guide unit, against the at least one cable (10-1, 10-2) guided by the other guide unit.
Use of a composition comprising one or more charge transport materials having a molecular weight of at most 5000 g/mol, one or more organic solvents, and one or more polymers, as coating or printing ink for the preparation of OLED devices, characterized in that said polymer is an inert binder and in that said inert binder is a polymer having a weight average molecular weight of at least 100000 g/mol, determined by gel permeation chromatography against polystyrene standards, wherein inert binder means that the polymer does not have semiconducting properties or chemically reacts with any of the semiconducting compounds in the composition and wherein said inert binder is a polymer comprising repeating units derived from olefin monomers consisting of hydrogen and carbon atoms and/or styrene monomers, and in that at least one solvent is selected from the group consisting of aromatic esters, aromatic ketones, heteroaromatic solvents and aniline derivatives, wherein said aniline derivatives are selected from aniline, N-methylaniline, N,N-dimethylaniline and N,N-diethylaniline.
A sensor material comprising: a plurality of conductive carbon nanotubes; a detector capable of interaction with an analyte of interest, the detector being an organic, an organometallic or an inorganic species, and the detector comprising a functional group capable of binding an analyte of interest in a solution, vapor phase or solid phase; and an ionic liquid, wherein the plurality of carbon nanotubes, the detector and the ionic liquid are combined to form a paste; the ionic liquid is selected to facilitate analyte interaction with the paste resulting in a change of the conductivity of the paste; and the carbon nanotubes are mixed with the detector in a ratio ranging from 3:1 to 1:10 by weight. a plurality of conductive carbon nanotubes; a detector capable of interaction with an analyte of interest, the detector being an organic, an organometallic or an inorganic species, and the detector comprising a functional group capable of binding an analyte of interest in a solution, vapor phase or solid phase; and an ionic liquid, wherein the plurality of carbon nanotubes, the detector and the ionic liquid are combined to form a paste; the ionic liquid is selected to facilitate analyte interaction with the paste resulting in a change of the conductivity of the paste; and the carbon nanotubes are mixed with the detector in a ratio ranging from 3:1 to 1:10 by weight.
A method on a first station comprising: transmitting, at a first time, a first Null Data Packet Announcement (NDPA) frame to one or more second stations (STAs), the first NDPA frame indicating that one or more subsequent frames comprise ranging information; and transmitting, after a Short Interval Frame Space (SIFS) time interval from the first time, a second frame, wherein the second frame is one of: a Null Data Packet az (NDP_az) frame with information about a time of transmission of the NDP_az frame, or a Null Data Packet frame, or a Beam Refinement Protocol frame. transmitting, at a first time, a first Null Data Packet Announcement (NDPA) frame to one or more second stations (STAs), the first NDPA frame indicating that one or more subsequent frames comprise ranging information; and transmitting, after a Short Interval Frame Space (SIFS) time interval from the first time, a second frame, wherein the second frame is one of: a Null Data Packet az (NDP_az) frame with information about a time of transmission of the NDP_az frame, or a Null Data Packet frame, or a Beam Refinement Protocol frame. a Null Data Packet az (NDP_az) frame with information about a time of transmission of the NDP_az frame, or a Null Data Packet frame, or a Beam Refinement Protocol frame.
A manufacturing method of a laminated mold (10, 10A) for molding a tire with vulcanisation comprising a laminate (11, 11A, 13) being formed by laminating a plurality of thin sheets (11a, 13a) in a widthwise direction or in a peripheral direction of a tire comprising the steps of, laminating the thin sheets under the condition that excess portions (L, K) of respective thin sheets on the side of a tire stepping face exceeding a profile of a tire crown portion are left, and after laminating the thin sheets removing the excess portions by means of a shot blast.