mhurhangee/ep-ind-claims huggingface dataset:
A fingerprint sensing module comprising: a fingerprint sensor device having a sensing array arranged on a first side of the device, the sensing array comprising an array of fingerprint sensing elements, wherein said fingerprint sensor device comprises connection pads for connecting said fingerprint sensor device to external circuitry, wherein said connection pads are arranged on a second side of said fingerprint sensor device, opposite of said first side of said fingerprint sensor device, said fingerprint sensor device further comprising a substrate comprising via connections reaching from said first side of said fingerprint sensor device to said connection pads of said second side of said fingerprint sensor device; a fingerprint sensor device cover structure arranged to cover said fingerprint sensor device, said cover structure having a first side configured to be touched by a finger, thereby forming a sensing surface of said sensing module, and a second side facing said sensing array, wherein said cover structure comprises conductive traces arranged on the second side of the cover structure, for electrically connecting said fingerprint sensing module to external circuitry, and wherein a surface area of said cover structure is larger than a surface area of said sensor device; wherein said fingerprint sensor device further comprises wire-bonds (40, 66) electrically connecting said connection pads of said fingerprint sensor device to said conductive traces of said cover structure. a fingerprint sensor device having a sensing array arranged on a first side of the device, the sensing array comprising an array of fingerprint sensing elements, wherein said fingerprint sensor device comprises connection pads for connecting said fingerprint sensor device to external circuitry, wherein said connection pads are arranged on a second side of said fingerprint sensor device, opposite of said first side of said fingerprint sensor device, said fingerprint sensor device further comprising a substrate comprising via connections reaching from said first side of said fingerprint sensor device to said connection pads of said second side of said fingerprint sensor device; a fingerprint sensor device cover structure arranged to cover said fingerprint sensor device, said cover structure having a first side configured to be touched by a finger, thereby forming a sensing surface of said sensing module, and a second side facing said sensing array, wherein said cover structure comprises conductive traces arranged on the second side of the cover structure, for electrically connecting said fingerprint sensing module to external circuitry, and wherein a surface area of said cover structure is larger than a surface area of said sensor device; wherein said fingerprint sensor device further comprises wire-bonds (40, 66) electrically connecting said connection pads of said fingerprint sensor device to said conductive traces of said cover structure.
Pneumatic vehicle tyre with two sidewalls and, on at least one sidewall, at least one hatched surface element, which comprises a multiplicity of adjacent and arc-shaped extending elevations, which extend from radially inside to radially outside at an increasing acute angle to the radial direction and parallel to one another, characterized in that the radius of curvature of the arc-shaped course of the elevations becomes smaller from radially outside to radially inside, the elevations running in continuous curves along lines of a set of lines, which lines are made up of line segments (l a), which join points of intersection (S, S 1, S 2, S 3, S 4) between adjacent, equally spaced-apart concentric circles, the centre point of which lies on the axis of the tyre, and adjacent radial auxiliary lines (l r), which run at equal centre angles (φ).
An indicating device, particularly a pressure gauge, comprising: - a basic housing comprising a drive mechanism that drives a rotary indicator needle that is mobile relative to a dial, - an interface housing attached to the basic housing, - at least one rotary screen borne by the interface housing, for identifying an operating zone, of which the angular position about the axis of the needle is adjustable, - a protective cover fixed removably to the interface housing and, when removed, allowing the position of the rotary screen to be adjusted without detaching the interface housing from the basic housing, characterized in that the interface housing comprising a retaining pin on which the rotary screen or screens are mounted, this support having a base, especially widened, allowing the rotary screen or screens to be partially concealed. - a basic housing comprising a drive mechanism that drives a rotary indicator needle that is mobile relative to a dial, - an interface housing attached to the basic housing, - at least one rotary screen borne by the interface housing, for identifying an operating zone, of which the angular position about the axis of the needle is adjustable, - a protective cover fixed removably to the interface housing and, when removed, allowing the position of the rotary screen to be adjusted without detaching the interface housing from the basic housing, characterized in that the interface housing comprising a retaining pin on which the rotary screen or screens are mounted, this support having a base, especially widened, allowing the rotary screen or screens to be partially concealed.
System of controlled flaps for a vehicle, comprising two sets (10a, 10b) of flaps, each set (10a, 10b) of flaps being able to assume an open position and a closed position, said system of controlled flaps further comprising an actuator configured to drive one of the sets (10a, 10b) of flaps into the open position before the other of the sets (10a, 10b) of flaps, characterized in that said system of controlled flaps further comprises: - a spring connecting the two sets (10a, 10b) of flaps, - an upper lever with a primary lost motion cam configured to be driven by a connecting rod, - a lower lever with a secondary lost motion cam configured to be driven by said actuator, and - said connecting rod connected to said actuator and connecting said upper lever and said lower lever. - a spring connecting the two sets (10a, 10b) of flaps, - an upper lever with a primary lost motion cam configured to be driven by a connecting rod, - a lower lever with a secondary lost motion cam configured to be driven by said actuator, and - said connecting rod connected to said actuator and connecting said upper lever and said lower lever.
An aircraft monument, installable in an aircraft cabin proximate to a cabin space, the monument having a deployed state and an undeployed state, the monument comprising: a door configured to deploy from a closed position to an open position within the cabin space; and a plurality of nested panels (116a-d) pivotably attached to the monument and stowed within the monument when the monument is in the undeployed state, the plurality of nested panels being in a folded position substantially parallel to the door when the monument is in the undeployed state, the plurality of nested panels being deployable to a deployed position within the cabin space and adjacent to the door, the deployed plurality of nested panels corresponding to: a substantially horizontal work surface; a storage space below the work surface, each storage space configured to accept a plurality of storage drawers and a plurality of rails capable of accommodating the storage drawers; and a cart space below the work surface and adjacent to the storage space, the cart space capable of partially enclosing a galley cart; the monument having a width of not more than 15.24 cm (6 inches). a door configured to deploy from a closed position to an open position within the cabin space; and a plurality of nested panels (116a-d) pivotably attached to the monument and stowed within the monument when the monument is in the undeployed state, the plurality of nested panels being in a folded position substantially parallel to the door when the monument is in the undeployed state, the plurality of nested panels being deployable to a deployed position within the cabin space and adjacent to the door, the deployed plurality of nested panels corresponding to: a substantially horizontal work surface; a storage space below the work surface, each storage space configured to accept a plurality of storage drawers and a plurality of rails capable of accommodating the storage drawers; and a cart space below the work surface and adjacent to the storage space, the cart space capable of partially enclosing a galley cart; the monument having a width of not more than 15.24 cm (6 inches). a substantially horizontal work surface; a storage space below the work surface, each storage space configured to accept a plurality of storage drawers and a plurality of rails capable of accommodating the storage drawers; and a cart space below the work surface and adjacent to the storage space, the cart space capable of partially enclosing a galley cart; the monument having a width of not more than 15.24 cm (6 inches).
A computer-implemented method of correcting non-uniformity in the form of low frequency shading corrupting an image, the method comprising: generating a non-uniformity estimate for the image by iteratively: obtaining a current non-uniformity estimate; identifying a new non-uniformity update candidate; applying the new non-uniformity update candidate to the current non-uniformity estimate to generate a new non-uniformity estimate; and determining whether the new non-uniformity update candidate reduces a cost function, wherein the cost function comprises the total variation among pixel values of a cleaned image after the new non-uniformity estimate has been removed from the image; wherein if it is determined that the new non-uniformity update candidate does not reduce the cost function, discarding the new nonuniformity update candidate; or if it is determined that the new non-uniformity update candidate reduces the cost function, updating the current non-uniformity estimate with the new non-uniformity update candidate; and applying the non-uniformity estimate to the image to remove nonuniformity data associated with the non-uniformity estimate from the image and obtain a corrected image. generating a non-uniformity estimate for the image by iteratively: obtaining a current non-uniformity estimate; identifying a new non-uniformity update candidate; applying the new non-uniformity update candidate to the current non-uniformity estimate to generate a new non-uniformity estimate; and determining whether the new non-uniformity update candidate reduces a cost function, wherein the cost function comprises the total variation among pixel values of a cleaned image after the new non-uniformity estimate has been removed from the image; wherein if it is determined that the new non-uniformity update candidate does not reduce the cost function, discarding the new nonuniformity update candidate; or if it is determined that the new non-uniformity update candidate reduces the cost function, updating the current non-uniformity estimate with the new non-uniformity update candidate; and obtaining a current non-uniformity estimate; identifying a new non-uniformity update candidate; applying the new non-uniformity update candidate to the current non-uniformity estimate to generate a new non-uniformity estimate; and determining whether the new non-uniformity update candidate reduces a cost function, wherein the cost function comprises the total variation among pixel values of a cleaned image after the new non-uniformity estimate has been removed from the image; wherein if it is determined that the new non-uniformity update candidate does not reduce the cost function, discarding the new nonuniformity update candidate; or if it is determined that the new non-uniformity update candidate reduces the cost function, updating the current non-uniformity estimate with the new non-uniformity update candidate; and applying the non-uniformity estimate to the image to remove nonuniformity data associated with the non-uniformity estimate from the image and obtain a corrected image.
An image application system comprising: an articulator assembly configured to hold a target object on which one or more images are to be applied from a web containing the one or more images, the target object including an exterior surface having one or more planar surfaces and one or more non-planar surfaces; and an applicator device configured to contact the web to engage the web with the exterior surface of the target object at an application interface between the web and the exterior surface, the one or more images applied to the exterior surface from the web at the application interface; wherein the articulator assembly includes a platform and an upper engagement device that hold the target object and one or more motors (500, 502, 504) that move the platform to move the target object in one or more linear directions and one or more rotary directions relative to the applicator device to apply the images to at least one of the one or more planar surfaces or the one or more non-planar surfaces characterized in that the image application system further comprises a control unit configured to control a speed at which the articulator assembly moves the target object based on a speed at which the web moves, wherein the control unit synchronizes the speed at which the target object is moved by the articulator assembly with the speed at which the web is moved. an articulator assembly configured to hold a target object on which one or more images are to be applied from a web containing the one or more images, the target object including an exterior surface having one or more planar surfaces and one or more non-planar surfaces; and an applicator device configured to contact the web to engage the web with the exterior surface of the target object at an application interface between the web and the exterior surface, the one or more images applied to the exterior surface from the web at the application interface; wherein the articulator assembly includes a platform and an upper engagement device that hold the target object and one or more motors (500, 502, 504) that move the platform to move the target object in one or more linear directions and one or more rotary directions relative to the applicator device to apply the images to at least one of the one or more planar surfaces or the one or more non-planar surfaces characterized in that the image application system further comprises a control unit configured to control a speed at which the articulator assembly moves the target object based on a speed at which the web moves, wherein the control unit synchronizes the speed at which the target object is moved by the articulator assembly with the speed at which the web is moved.
A method of operating a hearing aid system comprising the steps of: - measuring the electrical impedance of a hearing aid receiver at two different frequencies and for a zero bias voltage and a non-zero bias voltage, - deriving the values of two hearing aid receiver parameters based on the measurements of the electrical impedance of the hearing aid receiver, - providing an electro-acoustical model of the hearing aid receiver of the hearing aid system using the derived values of the receiver parameters, - determining a processed input signal value, wherein a processed input signal is an input signal that has been processed in order to compensate the hearing loss of a hearing aid system user, - using the electro-acoustical model of the hearing aid receiver of the hearing aid system and said processed input signal value to predict a non-distorted membrane displacement based on the derived values of the parameters measured at zero bias voltage, - using said electro-acoustical model of the hearing aid receiver of the hearing aid system and said processed input signal value to predict a distorted membrane displacement based on the derived values of the parameters measured at non-zero bias voltage, - deriving a compensation gain, suitable to compensate non-linear distortion of the hearing aid receiver, based on the non-distorted predicted membrane displacement and the distorted predicted membrane displacement, - applying the compensation gain to the processed input signal. - measuring the electrical impedance of a hearing aid receiver at two different frequencies and for a zero bias voltage and a non-zero bias voltage, - deriving the values of two hearing aid receiver parameters based on the measurements of the electrical impedance of the hearing aid receiver, - providing an electro-acoustical model of the hearing aid receiver of the hearing aid system using the derived values of the receiver parameters, - determining a processed input signal value, wherein a processed input signal is an input signal that has been processed in order to compensate the hearing loss of a hearing aid system user, - using the electro-acoustical model of the hearing aid receiver of the hearing aid system and said processed input signal value to predict a non-distorted membrane displacement based on the derived values of the parameters measured at zero bias voltage, - using said electro-acoustical model of the hearing aid receiver of the hearing aid system and said processed input signal value to predict a distorted membrane displacement based on the derived values of the parameters measured at non-zero bias voltage, - deriving a compensation gain, suitable to compensate non-linear distortion of the hearing aid receiver, based on the non-distorted predicted membrane displacement and the distorted predicted membrane displacement, - applying the compensation gain to the processed input signal.
A method for removing a photoresist from a substrate comprising: (a) selecting a substrate having a photoresist thereon; (b) contacting the substrate with a stripper solution for a time sufficient to remove a desired amount of photoresist; (c) removing the substrate from the stripping solution; and (d) rinsing the stripper solution from the substrate with a solvent, wherein the stripping solution: (i) comprises dimethyl sulfoxide, a quaternary ammonium hydroxide, and an alkanolamine having at least two carbon atoms, at least one amino substituent and at least one hydroxyl substituent, the amino and hydroxyl substituents attached to different carbon atoms; wherein the stripper solution contains from 55 % to 95 % dimethyl sulfoxide; from 2 % to 10 % of the quaternary ammonium hydroxide; from 2 % to, 75 % alkanolamine; and from 0.01 % to 3 % of a surfactant; all %'s are weight per cent of the composition. (a) selecting a substrate having a photoresist thereon; (b) contacting the substrate with a stripper solution for a time sufficient to remove a desired amount of photoresist; (c) removing the substrate from the stripping solution; and (d) rinsing the stripper solution from the substrate with a solvent, wherein the stripping solution: (i) comprises dimethyl sulfoxide, a quaternary ammonium hydroxide, and an alkanolamine having at least two carbon atoms, at least one amino substituent and at least one hydroxyl substituent, the amino and hydroxyl substituents attached to different carbon atoms;
A dissolvable, gel-forming film comprising: (a) a water-soluble cellulose ether; (b) a hydrophilic rheological modifying agent; and (c) a proteolytic enzyme, wherein the proteolytic enzyme is themolysin, or collagenase, wherein the dissolvable, gel-forming film has a water content of less than 15% w/w, and the dissolvable, gel-forming film is capable of forming a hydrogel having a viscosity of 5,000 to 100,000 mPa·s (cP), as measured using a Brookfield RV Model Viscometer using small sample adapter with spindle # SC4-14 and chamber #SC4-6R, at 10 rpm at room temperature, reading taken at 1 minute, when 1g of gel-forming film is contacted with 20 ml of water or other aqueous medium. (a) a water-soluble cellulose ether; (b) a hydrophilic rheological modifying agent; and (c) a proteolytic enzyme, wherein the proteolytic enzyme is themolysin, or collagenase,
A porous composite substrate (22; 34; 42), comprising: a resin matrix (24; 36; 44) comprising a first matrix region (26; 38; 46) at least partially surrounded by a second matrix region (28; 40; 48), wherein the first matrix region (26; 38; 46) comprises a plurality of pores and a first density, the second matrix region (28; 40; 48) comprises a second density that is different than the first density, and the pores are formed by pore forming material; and reinforcement material disposed within the second matrix region (28; 40; 48), wherein the reinforcement material comprises a plurality of core layers of fiber reinforced material and an insert layer of fiber reinforced material that is disposed within the second matrix region (28; 40; 48) and between adjacent core layers. a resin matrix (24; 36; 44) comprising a first matrix region (26; 38; 46) at least partially surrounded by a second matrix region (28; 40; 48), wherein the first matrix region (26; 38; 46) comprises a plurality of pores and a first density, the second matrix region (28; 40; 48) comprises a second density that is different than the first density, and the pores are formed by pore forming material; and reinforcement material disposed within the second matrix region (28; 40; 48), wherein the reinforcement material comprises a plurality of core layers of fiber reinforced material and an insert layer of fiber reinforced material that is disposed within the second matrix region (28; 40; 48) and between adjacent core layers.
A V-ribbed belt comprising a compression rubber layer having a frictional power transmission surface that is covered with a fabric, the compression rubber layer comprising an inner rubber layer in contact with the fabric and an outer rubber layer on an outer side of the inner rubber layer, characterised in that the inner rubber layer is formed of a rubber composition having a Mooney Scorch minimum viscosity of 50 to 110 when measured at 125°C, and in that the outer rubber layer is formed of a rubber composition having a Mooney Scorch minimum viscosity of 70 to 130 when measured at 125°C. characterised in that the inner rubber layer is formed of a rubber composition having a Mooney Scorch minimum viscosity of 50 to 110 when measured at 125°C, and in that the outer rubber layer is formed of a rubber composition having a Mooney Scorch minimum viscosity of 70 to 130 when measured at 125°C.
A laminated polyester film comprising a polyester film and a coating layer which is formed of a coating solution comprising an antistatic agent, a compound having an isocyanate-based reactive group and a urethane bond, a urethane resin having no isocyanate-based reactive group at a terminal end thereof, and at least one crosslinking agent.
A display device comprising: a bank including an opening defining a plurality of pixels; a plurality of light emitting elements disposed in the plurality of pixels; a color conversion layer disposed on the plurality of light emitting elements in the opening; and a low refractive layer disposed on the color conversion layer in the opening, wherein the low refractive layer has a lower refractive index than the color conversion layer; and wherein the display device further comprises a capping layer disposed on the low refractive layer, and a color filter layer disposed on the capping layer. a bank including an opening defining a plurality of pixels; a plurality of light emitting elements disposed in the plurality of pixels; a color conversion layer disposed on the plurality of light emitting elements in the opening; and a low refractive layer disposed on the color conversion layer in the opening, wherein the low refractive layer has a lower refractive index than the color conversion layer; and wherein the display device further comprises a capping layer disposed on the low refractive layer, and a color filter layer disposed on the capping layer.