mhurhangee/ep-ind-claims huggingface dataset:
A wet-mateable connector for making a connection underwater comprising: a male component having a tubular male housing within which is disposed a male pin; a female component having a female socket for receiving the male pin; wherein the tubular male housing is arranged to receive at least a portion of the female component when the male and female components (10, 20) are coupled; wherein the male component has a male wiper seal assembly disposed in the tubular male housing around the male pin, which moves between a decoupled and a coupled position during coupling of the male component and female component so as to wipe at least a portion of the male pin; and a latch arranged to latch the male wiper seal assembly to the female component during coupling such that when the male and female components (10, 20) are decoupled, the male wiper seal assembly is returned to the decoupled position; wherein the male component further comprises a retainer that when engaged retains the male wiper seal assembly in the decoupled position, thereby restricting the movement of the male wiper seal assembly; wherein the retainer is arranged to be disengaged by applying a coupling force to the male wiper seal assembly from the female component in a direction towards the coupled position, characterised in that the coupling force being greater than the force required to engage the latch such that during coupling of the male and female components (10, 20) the latch engages before the retainer disengages. a male component having a tubular male housing within which is disposed a male pin; a female component having a female socket for receiving the male pin; wherein the tubular male housing is arranged to receive at least a portion of the female component when the male and female components (10, 20) are coupled; wherein the male component has a male wiper seal assembly disposed in the tubular male housing around the male pin, which moves between a decoupled and a coupled position during coupling of the male component and female component so as to wipe at least a portion of the male pin; and a latch arranged to latch the male wiper seal assembly to the female component during coupling such that when the male and female components (10, 20) are decoupled, the male wiper seal assembly is returned to the decoupled position; wherein the male component further comprises a retainer that when engaged retains the male wiper seal assembly in the decoupled position, thereby restricting the movement of the male wiper seal assembly; wherein the retainer is arranged to be disengaged by applying a coupling force to the male wiper seal assembly from the female component in a direction towards the coupled position, characterised in that the coupling force being greater than the force required to engage the latch such that during coupling of the male and female components (10, 20) the latch engages before the retainer disengages.
A purification process for the compound of Formula 1, wherein said process comprising: loading a crude compound 1 onto a macroporous adsorption resin; washing the macroporous adsorption resin with an aqueous solution having a pH of ≤7, or a mixed solution of an organic solvent and water having a pH of ≤7; eluting with an organic solvent or a mixed solution of an organic solvent and water to give a purified compound of Formula 1; wherein the organic solvent is selected from one or more of the followings: methanol, ethanol, propanol, butanol, acetone and butanone. loading a crude compound 1 onto a macroporous adsorption resin; washing the macroporous adsorption resin with an aqueous solution having a pH of ≤7, or a mixed solution of an organic solvent and water having a pH of ≤7; eluting with an organic solvent or a mixed solution of an organic solvent and water to give a purified compound of Formula 1;
A capture module for carbon dioxide comprising an adsorbent for carbon dioxide, the adsorbent for carbon dioxide comprising: an inorganic oxide porous structure having a plurality of mesopores; and an active compound bound to a surface of the mesopores, wherein the active compound comprises potassium halide. an inorganic oxide porous structure having a plurality of mesopores; and an active compound bound to a surface of the mesopores, wherein the active compound comprises potassium halide.
An illumination system for a safety barrier, the system comprising a power supply coupled to at least one light emitting device, and at least one generally tubular light guide (22a, 22b) formed of a light transmissive fibre-optic material, an input of said light guide (22a, 22b) being coupled to said light emitting device such that light emitted from said light emitting device is transmitted through said light guide (22a, 22b), in use, at least said light emitting device and said light guide (22a, 22b) being configured to be mounted on an outer surface of a safety barrier, wherein the or each light guide (22a, 22b), when mounted for use on an outer surface of said safety barrier, has a proximal wall adjacent said outer surface of said safety barrier and an opposing distal wall, characterised in that a surface of said distal wall is provided with a plurality of refractive portions being arranged in spaced apart relation along its length and configured to converge light incident thereon from the or a respective light emitting device so as to create a plurality of discrete illuminated portions at said distal wall of the or each light guide, in use, and wherein said refractive portions comprise respective diagonal cuts or notches formed in said distal wall of the or each light guide (22a, 22b).
A method for determining a biopsy target in a patient's breast with x-ray contrast agent, the method comprising: compressing the breast of the patient with a paddle of an x-ray breast imaging system; the method being characterized by the steps of: acquiring one or more scout images to ensure that a biopsy target is appropriately centered in an opening of the biopsy paddle, wherein the one or more scout images are dual-energy subtracted images which visualize the contrast agent, and wherein the biopsy target is a lesion; and targeting the biopsy target by identifying coordinates of the biopsy target using image data of a stereo pair of dual energy images. acquiring one or more scout images to ensure that a biopsy target is appropriately centered in an opening of the biopsy paddle, wherein the one or more scout images are dual-energy subtracted images which visualize the contrast agent, and wherein the biopsy target is a lesion; and targeting the biopsy target by identifying coordinates of the biopsy target using image data of a stereo pair of dual energy images.
Co-Polymer comprising units derived from polyamide-forming monomers, units derived from polyether diols or polyether diamines and units derived from at least mono-substituted α,ω-di-carboxylic acids, wherein the polyamide-forming monomers are represented by the following formulas or (IXa), the polyether diols are represented by the following formulas or (Via), polyether diamines are represented by the following formula or (VIIa) and the at least mono-substituted α,ω-di-carboxylic acids are represented by the following formula: wherein A is a divalent, branched or linear, saturated or non-saturated, optionally substituted hydrocarbon chain, with optionally one carbon atom being replaced by NH, O or S; and v is a natural number between 1 and 24; with or wherein E is a divalent, branched or linear, saturated or non-saturated, optionally substituted hydrocarbon chain; B and B' independently from one another are selected from H or C 1-4 -Alkyl; w is a natural number between 1 and 24; z is a natural number ≥1; with HOOC-(CH 2) m -CHR 1 -(CH 2) n -COR 2 wherein m and n are independently from each other selected from a natural number and 0 and n + m is between 1 and 9; R 2 is selected from OH, halogen or OC 1-4 -alkyl; R 1 is any radical except hydrogen. A is a divalent, branched or linear, saturated or non-saturated, optionally substituted hydrocarbon chain, with optionally one carbon atom being replaced by NH, O or S; and v is a natural number between 1 and 24; E is a divalent, branched or linear, saturated or non-saturated, optionally substituted hydrocarbon chain; B and B' independently from one another are selected from H or C 1-4 -Alkyl; w is a natural number between 1 and 24; z is a natural number ≥1; m and n are independently from each other selected from a natural number and 0 and n + m is between 1 and 9; R 2 is selected from OH, halogen or OC 1-4 -alkyl; R 1 is any radical except hydrogen.
Susceptor made from graphite or CFC for the process space of protective-gas and vacuum high-temperature process installations, which is of tunnel-like design, wherein the susceptor is composed of a plurality of modules which are lined up with one another longitudinally into a continuous tunnel and which are firmly connected to one another positively and nonpositively, wherein the end faces between two modules in each case are connected to one another positively, characterized in that the susceptor can be closed at each of its two ends by means of a cover, each module is composed of a tubular portion and of a baseplate screwed thereto, and all the components of a module are cut from the same blank.
Bagging machine used to fill bags (S1 to S3), comprising multiple stations (42 to 48) including a first filling station, each station (42 to 48) having at least one holding system for immobilizing the bags (S1, S3) in a position of immobilization, the positions of immobilization of the stations being aligned parallel to a running direction and separated from one another by a distance equal to a pitch, the bagging machine also having at least one conveying system for moving the bags (S1 to S3) parallel to the running direction from one position of immobilization to the next, comprising at least one carriage (52, 54) which is movable along the running direction and at least one movement mechanism (58, 58'), to which the carriage (52, 54) is connected and which is configured to perform back-and-forth movements, parallel to the running direction, with an amplitude equal to the pitch, the bagging machine comprising a second filling station, which is positioned downstream of the first filling station and has a position of immobilization, the positions of immobilization of the first and second filling stations (42, 44) being aligned parallel to the running direction and separated by a distance equal to the pitch, and the conveying system comprising at least one actuator (60, 60') connecting the movement mechanism (58, 58') and the carriage (52, 54), characterized in that the conveying system is configured to move the carriage (52, 54) with respect to the movement mechanism (58, 58') parallel to the running direction over a travel equal to the pitch such that the carriage can operate alternately in first and second operating modes: a first operating mode during which the carriage (52, 54) supplies bags to or discharges the bags from the first filling station and a second operating mode during which the carriage (52, 54) supplies bags to or discharges the bags from the second filling station.
A cabinet for an electrical switchboard, comprising a supporting base and a frame mounted on said supporting base, the supporting base comprising at least a base element having: - a lower wall suitable to rest on a bearing surface; and - at least a first lateral wall and a second lateral wall which protrude transversally from said lower wall and face to each other; said cabinet characterized in that said at least a base element comprises: - a first upper wall protruding from an upper end of said first lateral wall towards said second lateral wall; - a second upper wall protruding from an upper end of said second lateral wall towards said first lateral wall, so as to extend over at least a portion of said first upper wall; - coupling means which couple said first and second upper walls (14, 15) to each other for supporting a corresponding portion (3, 4) of the frame. - a lower wall suitable to rest on a bearing surface; and - at least a first lateral wall and a second lateral wall which protrude transversally from said lower wall and face to each other; said cabinet characterized in that said at least a base element comprises: - a first upper wall protruding from an upper end of said first lateral wall towards said second lateral wall; - a second upper wall protruding from an upper end of said second lateral wall towards said first lateral wall, so as to extend over at least a portion of said first upper wall; - coupling means which couple said first and second upper walls (14, 15) to each other for supporting a corresponding portion (3, 4) of the frame.
An image-based risk score predictor method for measuring cancer extent to evaluate disease outcome in cancer patients using digitized histopathology comprising: i. scanning a stained histopathology slide into a computer using a high resolution 5 whole slide scanner to obtain an image; ii. detecting cancer nuclei using an Expectation-Maximization based algorithm; iii. constructing Delaunay Triangulation and Minimum Spanning Tree graphs using the centers of individual detected cancer nuclei as vertices; iv. extracting image-derived features describing the arrangement of the cancer 10 nuclei from each image based on the Delaunay Triangulation and Minimum Spanning Tree graphs; v. projecting a high-dimensional feature vector derived from the extracted image-derived features into a reduced 3D embedding space via Graph Embedding; vi. projecting the data in the 3D embedding into a 1D scale to define image-based 15 risk scores for poor, intermediate, and good outcome; vii. determining an image-based recurrence score to distinguish between low, intermediate, and high cancer grades by uncovering the grade labels of the samples on the 1D line and their relative locations to predict prognosis. i. scanning a stained histopathology slide into a computer using a high resolution 5 whole slide scanner to obtain an image; ii. detecting cancer nuclei using an Expectation-Maximization based algorithm; iii. constructing Delaunay Triangulation and Minimum Spanning Tree graphs using the centers of individual detected cancer nuclei as vertices; iv. extracting image-derived features describing the arrangement of the cancer 10 nuclei from each image based on the Delaunay Triangulation and Minimum Spanning Tree graphs; v. projecting a high-dimensional feature vector derived from the extracted image-derived features into a reduced 3D embedding space via Graph Embedding; vi. projecting the data in the 3D embedding into a 1D scale to define image-based 15 risk scores for poor, intermediate, and good outcome; vii. determining an image-based recurrence score to distinguish between low, intermediate, and high cancer grades by uncovering the grade labels of the samples on the 1D line and their relative locations to predict prognosis.
A method for decoding a block of data transmitted over a communication channel, comprising: receiving a block of data transmitted over a communication channel; determining a size of the block of data; selecting based on the size of the block at least one of a value of M for a QR decomposition with M-algorithm, QRD-M, method and a number of the iterations for a likelihood ascent, LAS, method, wherein M is a number of surviving paths in each stage of the QRD-M method; determining an initial estimate of bits in the block using the QRD-M method, wherein the QRD-M method decodes the bits in the block sequentially by reducing an accumulated distance between the initial estimate and the bits of the block; and determining the block using the LAS method, wherein the LAS method iteratively updates the bits of the block starting from the initial estimate, wherein steps of the method are performed by a processor of a receiver. receiving a block of data transmitted over a communication channel; determining a size of the block of data; selecting based on the size of the block at least one of a value of M for a QR decomposition with M-algorithm, QRD-M, method and a number of the iterations for a likelihood ascent, LAS, method, wherein M is a number of surviving paths in each stage of the QRD-M method; determining an initial estimate of bits in the block using the QRD-M method, wherein the QRD-M method decodes the bits in the block sequentially by reducing an accumulated distance between the initial estimate and the bits of the block; and determining the block using the LAS method, wherein the LAS method iteratively updates the bits of the block starting from the initial estimate, wherein steps of the method are performed by a processor of a receiver.
A method for supplying a deposition material, the method comprising: a heating step of heating and evaporating a deposition material in a melted state in a material accommodating section; a supply step of supplying the deposition material into the material accommodating section by feeding and melting a linear deposition material in a solid phase toward the deposition material in the melted state in the material accommodating section; a melted state detection step of returning the deposition material in the solid phase after supply in the supply step and detecting a front end of the deposition material in the solid phase; and a liquid surface detection step of detecting a height of a liquid surface of the deposition material in the material accommodating section based on the detected front end position of the deposition material in the solid phase in the melted state detection step, wherein, in the supply step, the deposition material in the solid phase of an amount according to the detection result in the liquid surface detection step is fed toward the melted deposition material in the material accommodating section. a heating step of heating and evaporating a deposition material in a melted state in a material accommodating section; a supply step of supplying the deposition material into the material accommodating section by feeding and melting a linear deposition material in a solid phase toward the deposition material in the melted state in the material accommodating section; a melted state detection step of returning the deposition material in the solid phase after supply in the supply step and detecting a front end of the deposition material in the solid phase; and a liquid surface detection step of detecting a height of a liquid surface of the deposition material in the material accommodating section based on the detected front end position of the deposition material in the solid phase in the melted state detection step,
A vehicular circuit body provided in a vehicle, comprising: a trunk line (15, BB_LM) that extends in at least a front-and-rear direction of the vehicle; a plurality of control boxes (51, 53, 57, CB) that are provided on the trunk line (15, BB_LM); and a branch line (63, LS) that connects the control box (51, CB) to an accessory (C, AE), wherein the trunk line (15, BB_LM) and the branch line (63, LS) each includes a power source line having a predetermined current capacity and a communication line having a predetermined communication capacity; wherein the control box (51, CB) includes a branch line connection portion (121, Cnx) to which the branch line is connected, and a branch line control unit (151, CBa) that distributes power from the trunk line (15, BB_LM) to the branch line (63, LS) by controlling the branch line connection portion (121, Cnx) according to a control program; and wherein the control program can be externally changed based on the accessory (C, AE) connected to the branch line (63, LS), characterized in that the control box (51, CB) accomodates a circuit board in a case formed of a lower case and an upper case, and a plurality of board connectors are provided at one edge of the circuit board in order to form the branch line connection portion (121, Cnx) via circuits or bus bars formed on the circuit board. a trunk line (15, BB_LM) that extends in at least a front-and-rear direction of the vehicle; a plurality of control boxes (51, 53, 57, CB) that are provided on the trunk line (15, BB_LM); and a branch line (63, LS) that connects the control box (51, CB) to an accessory (C, AE), wherein the trunk line (15, BB_LM) and the branch line (63, LS) each includes a power source line having a predetermined current capacity and a communication line having a predetermined communication capacity; wherein the control box (51, CB) includes a branch line connection portion (121, Cnx) to which the branch line is connected, and a branch line control unit (151, CBa) that distributes power from the trunk line (15, BB_LM) to the branch line (63, LS) by controlling the branch line connection portion (121, Cnx) according to a control program; and wherein the control program can be externally changed based on the accessory (C, AE) connected to the branch line (63, LS), characterized in that the control box (51, CB) accomodates a circuit board in a case formed of a lower case and an upper case, and a plurality of board connectors are provided at one edge of the circuit board in order to form the branch line connection portion (121, Cnx) via circuits or bus bars formed on the circuit board.
Analysis device for a system comprising at least two display means (Plj, EAj) responsible for displaying new images, at least two graphic cards (CGj) responsible for defining said new images respectively for said display means (Plj, EAj), and synchronisation means capable of synchronising the instants of definition of identical new images by said graphic cards (CGj), characterised in that it comprises i) at least two sensors (Cj) associated respectively with said display means (Plj), EAj) and each capable of generating a main signal representative of a new image in the event of detection of the display of such a new image by the said associated display means (Plj, EAj), and ii) analysis means capable of determining a first instant of reception of each of the said main signals, then, when first determined instants of reception are representative of the same new image, of determining a first time difference between the said first determined instants of reception.
Slewing jib crane having a jib which, in the region of its jib tip, has at least one deflection pulley for at least one hoisting cable, and having a drive for slewing the jib about a horizontal luffing axis and a drive for rotating the jib about a vertical axis of rotation and a drive for raising or lowering an element (T; LAM; L) suspended from the at least one hoisting cable in the form of a load-bearing means and/or load pick-up means and/or a load picked up by the latter, and a controller, a camera being arranged in the region of the jib tip, the detection range of which camera is directed towards the element (T; LAM; L) and the camera axis of which is aligned essentially parallel to a weight force axis, the camera being set up to detect a lateral actual position of the element (T; LAM; L), and the controller is configured and arranged to determine a relative displacement between the lateral actual position and a lateral desired position of the element (T; LAM; L) and to determine control commands for at least one of the aforementioned drives on the basis of the relative displacement, characterized in that an angular deviation of the camera axis from the weight-force axis can be detected by means of an angle sensor arranged on the camera, and the lateral actual position of the element (T; LAM; L) detected by means of the camera can be corrected, preferably by calculation, by means of the controller on the basis of the angular deviation.