mhurhangee/ep-ind-claims huggingface dataset:
Image processing method wherein each image is composed of an array of image points, so called pixels or voxels particularly in a two-, three-, or more dimensional space respectively, each image point being univocally defined by its position within the array of image points and by one or more numerical parameters defining the image point appearance as regards characteristics of brightness, grey, colour shade or the like, and wherein each image point is considered to be a node of an artificial neural network, the image being processed as a function of parameters defining the appearance of each pixel as values of the nodes of said artificial neural network and as a function of connections of each pixel under processing with neighbouring pixels composed of pixels of a predetermined subset of pixels, particularly with neighbouring pixels of said pixel under processing, so called pixel window, while pixels of the new image, i.e. of the processed image, are obtained by iterative evolution steps of parameters defining the appearance such as evolution steps of the value of nodes or by iterative evolution steps of values of the set of connections or by a combination of said evolutions, characterized in that the processing occurs by evolution iterative steps where each step is a function also of connections of neighbouring pixels with the pixel under examination, when each of said neighbouring pixels of the pixel under examination is considered also as a neighbouring pixel of one ore more or all pixels adjacent to said neighbouring pixel, which function is an immediate feedback contribution for determining appearance values of all other pixels, wherein the appearance value of each pixel of the image contributes to the determination of the new appearance values of all the other pixels of the new image resulting from the said iterative step, the method being further characterized in that it comprises equations evolving image points and/or the connection matrix of said image points considering not only values of neighbouring image points and their connections with the central image point, but also subsequent order relationships deriving when each of said neighbouring image point is considered as a neighbouring image point of each adjacent image point, when the latter is considered as the central image point and it provides the iteration of said equation at each processing cycle, so each image point gives its own contribution to each image point distant therefrom by means of neighbouring image points that propagate, like waves, such contribution.
A composition comprising sustained release naltrexone, or a pharmaceutically acceptable salt thereof, and sustained release bupropion, or a pharmaceutically acceptable salt thereof for use in treating a subject for overweight or obesity, wherein said subject has an increased risk of an adverse cardiovascular outcome, wherein said overweight or obese subject has an increased risk of an adverse cardiovascular outcome if said subject is diagnosed as having cardiovascular disease with at least one risk factor selected from the group consisting of: a history of documented myocardial infarction >3 months prior to identifying the subject; a history of coronary revascularization including coronary artery bypass graft surgery, stent placement, percutaneous transluminal coronary angioplasty, or laser atherectomy; a history of carotid or peripheral revascularization, including carotid endarterectomy, lower extremity atherosclerotic disease atherectomy, repair of abdominal aorta aneurysm, femoral or popliteal bypass; angina with ischemic changes, ECG changes on a graded exercise test, or positive cardiac imaging study; ankle brachial index <0.9 assessed by simple palpation within prior 2 years of identifying the subject; and ≥50% stenosis of a coronary, carotid, or lower extremity artery within prior 2 years of identifying the subject. a history of documented myocardial infarction >3 months prior to identifying the subject; a history of coronary revascularization including coronary artery bypass graft surgery, stent placement, percutaneous transluminal coronary angioplasty, or laser atherectomy; a history of carotid or peripheral revascularization, including carotid endarterectomy, lower extremity atherosclerotic disease atherectomy, repair of abdominal aorta aneurysm, femoral or popliteal bypass; angina with ischemic changes, ECG changes on a graded exercise test, or positive cardiac imaging study; ankle brachial index <0.9 assessed by simple palpation within prior 2 years of identifying the subject; and ≥50% stenosis of a coronary, carotid, or lower extremity artery within prior 2 years of identifying the subject.
A process for preparation of 2-Amino-5-hydroxy propiophenone of Formula I: comprising: a) reacting a compound of Formula III with a suitable nitrating reagent to obtain a compound of Formula IV, wherein the "PG" represents a suitable hydroxyl protecting group; and b) converting the compound of Formula IV in to 2-Amino-5-hydroxy propiophenone of Formula I. a) reacting a compound of Formula III with a suitable nitrating reagent to obtain a compound of Formula IV, wherein the "PG" represents a suitable hydroxyl protecting group; and b) converting the compound of Formula IV in to 2-Amino-5-hydroxy propiophenone of Formula I.
A front fork spring leg comprising: a vehicle body-side tube and an axle-side tube inserted into each other; a guide cylinder provided at a central portion of the inside of one of the vehicle body-side tube and the axle-side tube; a guide of a guide rod provided at a central portion of the inside of the other one of the vehicle body-side tube and the axle-side tube, with the guide being inserted into the guide cylinder; a piston ring and a sealing member provided on an outer periphery of the guide of the guide rod so as to be slidably in contact with an inner periphery of the guide cylinder; and an inner air spring chamber (50, 130) formed in the inside of the guide cylinder by being defined by the guide of the guide rod, characterized in that an inward-facing seal member (51, 131), an outward-facing seal member (66, 66A, 66B 151, 151A, 151B), and the piston ring are arranged on the outer periphery of the guide of the guide rod sequentially in this order along an axial direction of the guide from the side close to the inner air spring chamber (50, 130) toward the side far from the same; and the inward-facing seal member (51, 131) has a lip that is slidably in contact with the inner periphery of the guide cylinder, with this lip being oriented toward the inner air spring chamber (50, 130) while the outward-facing seal member (66, 66A, 66B, 151, 151A, 151B) has a lip that is slidably in contact with the inner periphery of the guide cylinder, with this lip being oriented in the opposite direction to the inner air spring chamber (50, 130). a vehicle body-side tube and an axle-side tube inserted into each other; a guide cylinder provided at a central portion of the inside of one of the vehicle body-side tube and the axle-side tube; a guide of a guide rod provided at a central portion of the inside of the other one of the vehicle body-side tube and the axle-side tube, with the guide being inserted into the guide cylinder; a piston ring and a sealing member provided on an outer periphery of the guide of the guide rod so as to be slidably in contact with an inner periphery of the guide cylinder; and an inner air spring chamber (50, 130) formed in the inside of the guide cylinder by being defined by the guide of the guide rod, characterized in that an inward-facing seal member (51, 131), an outward-facing seal member (66, 66A, 66B 151, 151A, 151B), and the piston ring are arranged on the outer periphery of the guide of the guide rod sequentially in this order along an axial direction of the guide from the side close to the inner air spring chamber (50, 130) toward the side far from the same; and the inward-facing seal member (51, 131) has a lip that is slidably in contact with the inner periphery of the guide cylinder, with this lip being oriented toward the inner air spring chamber (50, 130) while the outward-facing seal member (66, 66A, 66B, 151, 151A, 151B) has a lip that is slidably in contact with the inner periphery of the guide cylinder, with this lip being oriented in the opposite direction to the inner air spring chamber (50, 130).
A composition for use in treating a pulmonary vascular disease in a subject comprising administering to the subject a therapeutically effective amount of verteporfin, or a salt, or prodrug thereof; and C968 or CB-839, or a salt, or prodrug thereof.
A robotic work tool system, comprising a charging station, a boundary wire, a signal generator for generating and transmitting a signal through said boundary wire for demarcating a work area and a robotic work tool being a robotic lawnmower, said robotic work tool comprising a controller, a cutting blade and a motor for driving the cutting blade, characterized in that the controller is configured to determine a cutting load being exerted on the cutting blade indicating a height of grass in the work area, adapt a work schedule according to said cutting load prior to a next work session, wherein said work schedule includes a cutting height, and mechanically regulate the cutting height by lowering or raising the cutting blade.
A disposable dispensing carton comprising: a plurality of sidewalls (13, 15, 17) and first and second end walls (19, 27) defining an interior area; a dispensing aperture; the dispensing aperture being located entirely within or proximate the first end wall; and characterised in that a plurality of ridges (33, 35) are proximate the dispensing aperture, wherein said ridges (33, 35) are integral with at least one of said walls; and said ridges (33, 35) extend substantially perpendicular to the dispensing aperture and slope downwardly toward said dispensing aperture, wherein said sidewalls (13, 15, 17) have a height of at least about 35 cm, and wherein said plurality of ridges (33, 35) include a first set of ridges adjacent a first side of the dispensing aperture and a second set of ridges adjacent a second, opposing side of the dispensing aperture. a plurality of sidewalls (13, 15, 17) and first and second end walls (19, 27) defining an interior area; a dispensing aperture; the dispensing aperture being located entirely within or proximate the first end wall; and characterised in that a plurality of ridges (33, 35) are proximate the dispensing aperture, wherein said ridges (33, 35) are integral with at least one of said walls; and said ridges (33, 35) extend substantially perpendicular to the dispensing aperture and slope downwardly toward said dispensing aperture, wherein said sidewalls (13, 15, 17) have a height of at least about 35 cm, and wherein said plurality of ridges (33, 35) include a first set of ridges adjacent a first side of the dispensing aperture and a second set of ridges adjacent a second, opposing side of the dispensing aperture. a plurality of ridges (33, 35) are proximate the dispensing aperture, wherein said ridges (33, 35) are integral with at least one of said walls; and said ridges (33, 35) extend substantially perpendicular to the dispensing aperture and slope downwardly toward said dispensing aperture, wherein said sidewalls (13, 15, 17) have a height of at least about 35 cm, and wherein said plurality of ridges (33, 35) include a first set of ridges adjacent a first side of the dispensing aperture and a second set of ridges adjacent a second, opposing side of the dispensing aperture.
An optical system of a stereo video endoscope with a fixed lateral viewing direction, comprising a laterally-viewing distal optical assembly and a proximal optical assembly, wherein the proximal optical assembly comprises a left lens system channel and a right lens system channel that are designed similarly, and wherein the distal optical assembly is configured to couple incident light from an object space into the left lens system channel and into the right lens system channel of the proximal optical assembly, and wherein the distal optical assembly sequentially comprises an entrance lens, a deflection prism group and an exit lens in a direction of incident light, wherein the deflection prism group sequentially comprises a first prism and a second prism in the direction of incident light, wherein the first prism comprises a first entrance side and a first exit side at an angle relative thereto, and wherein the second prism comprises a second entrance side, a reflection side and a second exit side, wherein the first entrance side and the reflection side enclose an angle (α) that is greater than a total reflection angle (θ C) of the second prism, wherein a first partial surface of the reflection side of the second prism is provided with a reflective coating, and a second partial surface of the reflection side is optionally uncoated or is provided with an anti-reflection coating, wherein the first and the second partial surfaces (62, 64) supplement each other to form the entire surface of the reflection side, characterized in that a distance between the first entrance side and the reflection side in the first partial surface is always larger than the distance between the first entrance side and the reflection side in the second partial surface.
A wireless communication method, comprising: sending, by a network device, configuration signaling to a terminal device, wherein the configuration signaling comprises multiple sets of configuration information for a first type of channel, and a correspondence between the multiple sets of configuration information for the first type of channel and at least one set of configuration information for a second type of channel, and wherein the configuration signaling is configuration signaling for a Bandwidth Part, BWP; wherein the first type of channel is a Physical Downlink Control Channel, PDCCH, and the second type of channel is a Physical Downlink Shared Channel, PDSCH; wherein each of the multiple sets of configuration information comprises: one Control Resource Set, CORESET, group to which a CORESET for the PDCCH belongs, wherein one CORESET group is associated with scrambling information used to determine an initial value of a scrambling sequence used to transmit the PDSCH; wherein a single carrier is used to implement transmission of the first type of channel based on the multiple sets of configuration information. sending, by a network device, configuration signaling to a terminal device, wherein the configuration signaling comprises multiple sets of configuration information for a first type of channel, and a correspondence between the multiple sets of configuration information for the first type of channel and at least one set of configuration information for a second type of channel, and wherein the configuration signaling is configuration signaling for a Bandwidth Part, BWP; wherein the first type of channel is a Physical Downlink Control Channel, PDCCH, and the second type of channel is a Physical Downlink Shared Channel, PDSCH; wherein each of the multiple sets of configuration information comprises: one Control Resource Set, CORESET, group to which a CORESET for the PDCCH belongs, wherein one CORESET group is associated with scrambling information used to determine an initial value of a scrambling sequence used to transmit the PDSCH; wherein a single carrier is used to implement transmission of the first type of channel based on the multiple sets of configuration information.
A method for determining the kinetic parameters of a reaction between an analyte and ligands which are attached to a test surface of a flow cell, the method comprising the steps of, (a) flowing a first volume of sample fluid, which contains said analyte, over the test surface, between a first point in time (t 1) to a second point in time (t 2); (b) flowing a first volume of buffer fluid, which is without analyte, over the test surface, between a third point in time (t 3) to a fourth point in time (t 4); (c) flowing at least a second volume of sample fluid, which contains said analyte, over the test surface, between a fifth point in time (t 5) to a sixth point in time (t 6); (d) flowing at least a second volume of buffer fluid, which is without analyte, over the test surface, between a seventh point in time (t 7) to a eight point in time (t 8); (e) using a sensor to measure the binding of analyte to ligands on the test surface to obtain a binding curve; (f) using only the parts of the binding curve which are in predefined interval time periods, without using the other parts of the binding curve, to determine the kinetic parameters, wherein the predefined interval time periods comprise a first and second interval time periods (t1Δ, t2Δ), and wherein the first interval time period (t1Δ) occurs between the second point in time (tz) and fifth point in time (t 5); and wherein the second interval time periods (t2Δ) occurs between the sixth point in time (t 6) and a ninth point in time (t 9) wherein the ninth point in time (t 9) occurs sometime after the eight point in time (t 8), or, the ninth point in time (t 9) is equal to the eight point in time (t 8). (a) flowing a first volume of sample fluid, which contains said analyte, over the test surface, between a first point in time (t 1) to a second point in time (t 2); (b) flowing a first volume of buffer fluid, which is without analyte, over the test surface, between a third point in time (t 3) to a fourth point in time (t 4); (c) flowing at least a second volume of sample fluid, which contains said analyte, over the test surface, between a fifth point in time (t 5) to a sixth point in time (t 6); (d) flowing at least a second volume of buffer fluid, which is without analyte, over the test surface, between a seventh point in time (t 7) to a eight point in time (t 8); (e) using a sensor to measure the binding of analyte to ligands on the test surface to obtain a binding curve; (f) using only the parts of the binding curve which are in predefined interval time periods, without using the other parts of the binding curve, to determine the kinetic parameters, wherein the predefined interval time periods comprise a first and second interval time periods (t1Δ, t2Δ), and wherein the first interval time period (t1Δ) occurs between the second point in time (tz) and fifth point in time (t 5); and wherein the second interval time periods (t2Δ) occurs between the sixth point in time (t 6) and a ninth point in time (t 9) wherein the ninth point in time (t 9) occurs sometime after the eight point in time (t 8), or, the ninth point in time (t 9) is equal to the eight point in time (t 8).
A light source unit (1, 1a, 1b) comprising; a socket that has a first thermal conductivity, has a first surface and second surface which face opposite sides to each other, and includes a portion that defines a first side where the first surface exists and a second side where the second surface exists; a heat dissipation member (20, 20b) that has a second thermal conductivity being higher than the first thermal conductivity; a board disposed on the first side; and a semiconductor light emitting element supported by the board; wherein: the socket in an injection molded member; the heat dissipation member (20, 20b) includes: a first portion that is disposed on the first side, extends in a first direction, and supports the board; and a second portion (22, 23) that includes a portion extending in a second direction intersecting with the first direction, a part (22a, 23a) of the second portion (22, 23) being disposed on the second side; the socket includes plural heat radiation fins that are arranged on the second side; the second portion (22, 23) is disposed outside a region where the plural heat radiation fins of the socket are arranged; the second portion (22, 23) of the heat dissipation member includes two projecting portions (222a, 223a) on the second side; the two projecting portions (222a, 223a) are higher in rigidity than the heat radiation fins of the socket; and the two projecting portions, 223a) are disposed outside a region where the plural heat radiation fins are arranged, so as to protect, from an external force, the heat radiation fins. the socket in an injection molded member; the heat dissipation member (20, 20b) includes: a first portion that is disposed on the first side, extends in a first direction, and supports the board; and a second portion (22, 23) that includes a portion extending in a second direction intersecting with the first direction, a part (22a, 23a) of the second portion (22, 23) being disposed on the second side; the socket includes plural heat radiation fins that are arranged on the second side; the second portion (22, 23) is disposed outside a region where the plural heat radiation fins of the socket are arranged; the second portion (22, 23) of the heat dissipation member includes two projecting portions (222a, 223a) on the second side; the two projecting portions (222a, 223a) are higher in rigidity than the heat radiation fins of the socket; and the two projecting portions, 223a) are disposed outside a region where the plural heat radiation fins are arranged, so as to protect, from an external force, the heat radiation fins.
A shielding connector (200, 300) for contacting a shielding of a power cable, the shielding connector (200, 300) comprising a clamping element (210, 310) for being brought into mechanical contact to the shielding of the power cable to provide an electric connection to the shielding of the power cable, and a plurality of strips (230, 330) extending from the clamping element (210, 310), wherein the clamping element (210, 310) and the strips (230, 330) are formed integrally, wherein the clamping element (210, 310) is bent around a first bending axis, characterized in that the shielding connector (200, 300) comprises a sealing portion (250, 350) for creating a sealing around the power cable when the shielding connector (200, 300) is installed on a power cable, wherein the sealing portion (250, 350) is connected to the clamping element (210, 310) by the strips (230, 330), wherein the sealing portion (250, 350) and the strips (230, 330) are formed integrally, wherein the sealing portion (250, 350) is bent around a second bending axis, wherein the sealing portion (250, 350) is bent around the second bending axis in an opposite direction compared to the bending of the clamping element (210, 310) such that a concave surface of the bent sealing portion (250, 350) forms a continuation of a convex surface of the clamping element (210, 310) and a convex surface of the bent sealing portion (250, 350) forms a continuation of a concave surface of the bent clamping element (210, 310).
Elevator arrangement having an elevator comprising an elevator car having a floor and a roof, and the elevator car is provided with one or more extension spaces which are arranged to extend the height of the elevator car during construction time use, characterized in that the extension spaces are arranged under the floor of the elevator car, outside the elevator car, and the elevator car comprises one or more openings in the floor of the elevator car from inside the elevator car to outside of the elevator car, and the extension spaces are connected to the interior of the elevator car through the openings.