mhurhangee/patent-ind-claim-en huggingface dataset:
A method of performing a biometric function, the method comprising: illuminating a skin site of an individual, wherein the skin site comprises a hand of the individual; receiving light scattered from the skin site under multispectral conditions, the light including light scattered from tissue beneath a surface of the skin site; deriving a plurality of biometric modalities from the received light, wherein the plurality of biometric modalities comprises at least two of a palmprint of the hand, a fingerprint of a finger of the hand, and a shape of the hand; matching the plurality of biometric modalities separately; fusing the separately matched plurality of biometric modalities into a combined biometric modality; and analyzing the combined biometric modality to perform the biometric function; wherein deriving the plurality of biometric modalities comprises: converting raw color image data into a grayscale image; segmenting the grayscale image into foreground and background portions; and localizing a fingertip of the hand by generating a one-dimensional projection of the segmented grayscale image. illuminating a skin site of an individual, wherein the skin site comprises a hand of the individual; receiving light scattered from the skin site under multispectral conditions, the light including light scattered from tissue beneath a surface of the skin site; deriving a plurality of biometric modalities from the received light, wherein the plurality of biometric modalities comprises at least two of a palmprint of the hand, a fingerprint of a finger of the hand, and a shape of the hand; matching the plurality of biometric modalities separately; fusing the separately matched plurality of biometric modalities into a combined biometric modality; and analyzing the combined biometric modality to perform the biometric function; wherein deriving the plurality of biometric modalities comprises: converting raw color image data into a grayscale image; segmenting the grayscale image into foreground and background portions; and localizing a fingertip of the hand by generating a one-dimensional projection of the segmented grayscale image. converting raw color image data into a grayscale image; segmenting the grayscale image into foreground and background portions; and localizing a fingertip of the hand by generating a one-dimensional projection of the segmented grayscale image.
A camera system for a vehicle , configured to acquire image data of a surrounding of the vehicle , comprising: - a camera ; and - a control module , wherein the control module is configured to determine, whether a calibration of an intrinsic parameter of the camera system is required, by determining an error in a back projection, a forward projection and/or a reprojection of the image data and by determining whether the error exceeds a predefined threshold, wherein the camera is configured to acquire a raw image , and wherein the control module is configured to determine edge points in the raw image , wherein the control module is configured to project the raw image with the edge points to a camera ray , wherein the camera ray comprises a unit sphere with radius 1, wherein lines in reality are represented as part of a circle on the surface of the unit sphere , wherein the control module is further configured to fit a circle through the edge points in the camera ray , wherein the control module is configured to determine inlier points of the fitted circle in the camera ray , wherein the inlier points are part of the determined edge points , wherein the control module is configured to fit a conic curve in the raw image through the points of the raw image corresponding to the inlier points, determining the error as the error between the edge points and the conic curve in the raw image. - a camera ; and - a control module , wherein the control module is configured to determine, whether a calibration of an intrinsic parameter of the camera system is required, by determining an error in a back projection, a forward projection and/or a reprojection of the image data and by determining whether the error exceeds a predefined threshold, wherein the camera is configured to acquire a raw image , and wherein the control module is configured to determine edge points in the raw image , wherein the control module is configured to project the raw image with the edge points to a camera ray , wherein the camera ray comprises a unit sphere with radius 1, wherein lines in reality are represented as part of a circle on the surface of the unit sphere , wherein the control module is further configured to fit a circle through the edge points in the camera ray , wherein the control module is configured to determine inlier points of the fitted circle in the camera ray , wherein the inlier points are part of the determined edge points , wherein the control module is configured to fit a conic curve in the raw image through the points of the raw image corresponding to the inlier points, determining the error as the error between the edge points and the conic curve in the raw image.
An automatic injection system for injecting an adhesive into bores of a multi-bore ferrule , comprising: an injector adapted to inject the adhesive into an injection opening formed in the multi-bore ferrule ; a first adhesive injection station; a first clamp configured to clamp the multi-bore ferrule so as to hold the multi-bore ferrule at the first adhesive injection station; wherein at the first adhesive injection station, optical fibers are not inserted into the bores of the multi-bore ferrule and the injector is adapted to inject the adhesive into the multi-bore ferrule into which the optical fibers are not inserted, until the bores are fully filled with the adhesive, wherein the automatic injection system further comprises a second adhesive injection station; a second clamp configured to clamp the multi-bore ferrule so as to hold the multi-bore ferrule at the second adhesive injection station, wherein at the second adhesive injection station, the optical fibers are inserted into the bores which are fully filled with the adhesive, of the multi-bore ferrule , and the injector is adapted to inject the adhesive into the multi-bore ferrule again so as to compensate the loss of adhesive during inserting the optical fibers , wherein the automatic injection system further comprises a movable mechanism configured to move the injector to the first and second adhesive injection stations. an injector adapted to inject the adhesive into an injection opening formed in the multi-bore ferrule ; a first adhesive injection station; a first clamp configured to clamp the multi-bore ferrule so as to hold the multi-bore ferrule at the first adhesive injection station; wherein at the first adhesive injection station, optical fibers are not inserted into the bores of the multi-bore ferrule and the injector is adapted to inject the adhesive into the multi-bore ferrule into which the optical fibers are not inserted, until the bores are fully filled with the adhesive, wherein the automatic injection system further comprises a second adhesive injection station; a second clamp configured to clamp the multi-bore ferrule so as to hold the multi-bore ferrule at the second adhesive injection station, wherein at the second adhesive injection station, the optical fibers are inserted into the bores which are fully filled with the adhesive, of the multi-bore ferrule , and the injector is adapted to inject the adhesive into the multi-bore ferrule again so as to compensate the loss of adhesive during inserting the optical fibers , wherein the automatic injection system further comprises a movable mechanism configured to move the injector to the first and second adhesive injection stations.
A molecule comprising a non-toxic non-hemagglutinin (NTNHA) polypeptide covalently linked to a heterologous affinity moiety for use in isolation and purification of a botulinum neurotoxin (BoNT) protein, or a polypeptide comprising a receptor binding domain of BoNT, from a solution, wherein: the molecule is further bound to a binding target through the affinity moiety; and the NTNHA polypeptide is in a complex with a compatible Botulinum neurotoxin (BoNT) or a polypeptide comprising a receptor binding domain thereof. the molecule is further bound to a binding target through the affinity moiety; and the NTNHA polypeptide is in a complex with a compatible Botulinum neurotoxin (BoNT) or a polypeptide comprising a receptor binding domain thereof.
A hologram master for producing individualized holograms with kinetic diffraction structures comprising: a contiguous individualization region , which comprises at least one first diffraction region , wherein the at least one first diffraction region has a reflective blazed grating with kinetic diffraction structures integrated therein or thereon, characterized in that the hologram master has an anti-Newton coating . a contiguous individualization region , which comprises at least one first diffraction region , wherein the at least one first diffraction region has a reflective blazed grating with kinetic diffraction structures integrated therein or thereon, characterized in that the hologram master has an anti-Newton coating .
A processor-based method for identifying faulty sensors in a fluid production network, comprising: acquiring training measurements from a plurality of sensors over time; performing a principal components analysis of the training data to generate a principal components model defining a principal components component and a residual subspace; acquiring current measurements from the plurality of sensors ; characterised by : automatically determining a number of operating points based on the current measurements; projecting the current measurements of each operating point into the residual subspace to detect one or more outliers, if present; if one or more outliers are detected, applying partial decomposition to generate one or more contribution plots; and based on the contribution plots, providing an indication as to which sensor or sensors are at fault. acquiring training measurements from a plurality of sensors over time; performing a principal components analysis of the training data to generate a principal components model defining a principal components component and a residual subspace; acquiring current measurements from the plurality of sensors ; characterised by : automatically determining a number of operating points based on the current measurements; projecting the current measurements of each operating point into the residual subspace to detect one or more outliers, if present; if one or more outliers are detected, applying partial decomposition to generate one or more contribution plots; and based on the contribution plots, providing an indication as to which sensor or sensors are at fault. automatically determining a number of operating points based on the current measurements; projecting the current measurements of each operating point into the residual subspace to detect one or more outliers, if present; if one or more outliers are detected, applying partial decomposition to generate one or more contribution plots; and based on the contribution plots, providing an indication as to which sensor or sensors are at fault.
A method for manufacturing a vacuum cylinder for hot water, comprising at least the following steps: - filling a jacket space in a double-jacket cylinder with an insulating material which can be introduced as a fluid through a fill line which opens into the jacket space; - sealing the fill line ; - evacuating the jacket space through a vacuum suction line ; - sealing the vacuum suction line ; characterised in that : - the fill line and the vacuum suction line are each connected to a tube element which opens into the jacket space via at least one shut-off valve (3.1, 3.2, 4.1, 4.2); - after filling and evacuating the jacket space, the tube element is pressed at a pinch point (5.1) and the pinch is held; - the tube element , with the pinch being held, is cut at a shear point (5.2) and sealed to be fluid tight, - the pinch is released at the pinch point (5.1), and - a copper tube is used as the tube element and soldered at the shear point (5.2). - filling a jacket space in a double-jacket cylinder with an insulating material which can be introduced as a fluid through a fill line which opens into the jacket space; - sealing the fill line ; - evacuating the jacket space through a vacuum suction line ; - sealing the vacuum suction line ; - the fill line and the vacuum suction line are each connected to a tube element which opens into the jacket space via at least one shut-off valve (3.1, 3.2, 4.1, 4.2); - after filling and evacuating the jacket space, the tube element is pressed at a pinch point (5.1) and the pinch is held; - the tube element , with the pinch being held, is cut at a shear point (5.2) and sealed to be fluid tight, - the pinch is released at the pinch point (5.1), and - a copper tube is used as the tube element and soldered at the shear point (5.2).
A display panel (DP) comprising: a base substrate (BS) that is divided into a display area (DA) and a peripheral area (NDA) adjacent to the display area in a plan view; a thin element layer (TX) comprising: a thin film transistor (TR) disposed on the base substrate; an interlayer insulating layer (IH) covering the thin film transistor; and a lower insulating layer (IC) disposed between the interlayer insulating layer and the base substrate; an organic light emitting element (ED) disposed on the display area and connected to the thin film transistor; an encapsulation layer (TFE) disposed on the thin element layer and comprising a first inorganic layer (LIL), a second inorganic layer (UIL) disposed on the first inorganic layer, and an organic layer (OEL) disposed between the first inorganic layer and the second inorganic layer; a module hole (MH) defined in the display area and penetrating from a rear surface of the base substrate to a top surface of the encapsulation layer; and a first blocking groove (BR1) defined in the display area adjacent to the module hole and penetrating through the interlayer insulating layer to expose a portion of a top surface of the lower insulating layer, wherein the display panel further comprises filling member (FM) which is disposed inside the first blocking groove and is made of an organic material, or wherein there is an empty space inside the first blocking groove. a base substrate (BS) that is divided into a display area (DA) and a peripheral area (NDA) adjacent to the display area in a plan view; a thin element layer (TX) comprising: a thin film transistor (TR) disposed on the base substrate; an interlayer insulating layer (IH) covering the thin film transistor; and a lower insulating layer (IC) disposed between the interlayer insulating layer and the base substrate; a thin film transistor (TR) disposed on the base substrate; an interlayer insulating layer (IH) covering the thin film transistor; and a lower insulating layer (IC) disposed between the interlayer insulating layer and the base substrate; an organic light emitting element (ED) disposed on the display area and connected to the thin film transistor; an encapsulation layer (TFE) disposed on the thin element layer and comprising a first inorganic layer (LIL), a second inorganic layer (UIL) disposed on the first inorganic layer, and an organic layer (OEL) disposed between the first inorganic layer and the second inorganic layer; a module hole (MH) defined in the display area and penetrating from a rear surface of the base substrate to a top surface of the encapsulation layer; and a first blocking groove (BR1) defined in the display area adjacent to the module hole and penetrating through the interlayer insulating layer to expose a portion of a top surface of the lower insulating layer, wherein the display panel further comprises filling member (FM) which is disposed inside the first blocking groove and is made of an organic material, or wherein there is an empty space inside the first blocking groove.
A baseband processor , comprising a receiver circuit configured to receive a LTE downlink carrier aggregation transmission, wherein the baseband processor further comprises an encoder , wherein the encoder is configured to generate a Cyclic Redundancy Check, CRC, code word based on Hybrid Automatic Repeat Request - Acknowledgment, HARQ-ACK, feedback bits in response to the downlink carrier aggregation transmission, wherein the encoder is configured to jointly encode at least one radio network parameter (P) of a user device with the CRC code word, and wherein the encoder is configured to generate an uplink control information message (M) comprising the HARQ-ACK feedback bits and the jointly encoded radio network parameter and CRC code word, wherein the radio network parameter (P) indicates an arrangement of the HARQ-ACK feedback bits in the control information message (M), the arrangement determining for which carriers and/or subframes the uplink control information message provides the HARQ-ACK bits.
A heat dissipation structure comprising: heat generation means provided inside a housing ; internal heat dissipation means provided inside the housing for receiving heat from the heat generation means ; a heat transport member comprising a bar shape and protruding from inside the housing to outside the housing , a part of a portion of the heat transport member inside the housing being fitted in a first groove formed on a surface of the internal heat dissipation means , so as to transport heat from the internal heat dissipation means to outside the housing ; external heat dissipation means comprising a plurality of fins disposed side by side at a part of a portion of the heat transport member outside the housing ; and a fixing member disposed between the internal heat dissipation means and the external heat dissipation means and comprising a through hole for passage of the heat transport member , the fixing member comprising a first surface facing the internal heat dissipation means , and a second surface facing the external heat dissipation means , the first surface being in contact with the internal heat dissipation means , the second surface being in contact with the external heat dissipation means , wherein a second groove extending from the through hole toward an area not covered with the external heat dissipation means is formed in the second surface , and a gap portion between the heat transport member and the through hole and the second groove are filled with a sealant for waterproofing. heat generation means provided inside a housing ; internal heat dissipation means provided inside the housing for receiving heat from the heat generation means ; a heat transport member comprising a bar shape and protruding from inside the housing to outside the housing , a part of a portion of the heat transport member inside the housing being fitted in a first groove formed on a surface of the internal heat dissipation means , so as to transport heat from the internal heat dissipation means to outside the housing ; external heat dissipation means comprising a plurality of fins disposed side by side at a part of a portion of the heat transport member outside the housing ; and a fixing member disposed between the internal heat dissipation means and the external heat dissipation means and comprising a through hole for passage of the heat transport member , the fixing member comprising a first surface facing the internal heat dissipation means , and a second surface facing the external heat dissipation means , the first surface being in contact with the internal heat dissipation means , the second surface being in contact with the external heat dissipation means , wherein a second groove extending from the through hole toward an area not covered with the external heat dissipation means is formed in the second surface , and a gap portion between the heat transport member and the through hole and the second groove are filled with a sealant for waterproofing.
A hand operated press, comprising: A) a base plate assembly having a first surface resting on a supporting surface and a substantially flat second surface opposite to said first surface, said base plate assembly including a peripheral edge and a first bearing structure mounted at a predetermined location along said peripheral edge and further including a second bearing structure mounted to said peripheral edge at a predetermined location opposite to said predetermined location; B) a moving plate assembly having substantially the same dimensions as said base plate assembly and being hingedly mounted to said first bearing structure and including a substantially flat third surface that is selectively brought in abutting contact with said second surface and said moving plate assembly including a distal edge; and C) an actuating arm assembly having first and second ends said first end being hingedly mounted to said second bearing structure, said arm assembly including a concave portion extending from said first end a predetermined distance towards said second end, the concave portion is selectively brought in cammingly contact with said moving plate assembly's distal end when the axes of said contacting arm assembly and said moving plate assembly are within an angular relationship range with the moving plate assembly's distal end is in contact with said concave portion. A) a base plate assembly having a first surface resting on a supporting surface and a substantially flat second surface opposite to said first surface, said base plate assembly including a peripheral edge and a first bearing structure mounted at a predetermined location along said peripheral edge and further including a second bearing structure mounted to said peripheral edge at a predetermined location opposite to said predetermined location; B) a moving plate assembly having substantially the same dimensions as said base plate assembly and being hingedly mounted to said first bearing structure and including a substantially flat third surface that is selectively brought in abutting contact with said second surface and said moving plate assembly including a distal edge; and C) an actuating arm assembly having first and second ends said first end being hingedly mounted to said second bearing structure, said arm assembly including a concave portion extending from said first end a predetermined distance towards said second end, the concave portion is selectively brought in cammingly contact with said moving plate assembly's distal end when the axes of said contacting arm assembly and said moving plate assembly are within an angular relationship range with the moving plate assembly's distal end is in contact with said concave portion.