mhurhangee/ep-ind-claims huggingface dataset:
Torsion vibration damper arrangement for the drive train of a vehicle, comprising a primary side to be coupled to a drive member and a secondary side which can be rotated about an axis of rotation with respect to the primary side against the action of a damper element arrangement, wherein the primary side and the secondary side have circumferential support regions (106, 108) for damper elements of the damper element arrangement, wherein there is provided on the secondary side a vibration damper device with a deflection mass carrier and with at least one deflection mass which is carried on the deflection mass carrier so as to be able to be deflected from a basic position with a maximum distance from the axis of rotation into a deflection position with a smaller distance from the axis of rotation, wherein the secondary side has at least one circumferential support element, which has circumferential support regions (106, 108), and a secondary-side, preferably annular disc-like, mass element, and wherein the deflection mass carrier comprises two carrier discs (16, 18) which are arranged at a distance from one another in the direction of the axis of rotation, are fixedly connected to one another and receive between them the at least one deflection mass, characterized in that first connecting elements are provided by means of which the secondary-side mass element is connected to the at least one circumferential support element on the one hand and to the deflection mass carrier on the other hand, and a circumferential support element having two circumferential support regions (106, 108) is provided in which the circumferential support regions (106, 108) are arranged at an angular distance of approximately 180° with respect to one another, wherein the circumferential support element is of beam-like design, and openings (268; 334) are formed in the circumferential support element, which openings serve for the passage of screw bolts or the like which serve for fastening to a crankshaft, for example.
Tool for holding at least one glass pane (I,II) by means of suction in a bending process, comprising a frame-like, convex contact surface and a cover having a peripheral air guide plate that surrounds the contact surface at least in regions, wherein the tool is suitable for generating - a first, reduced pressure (p 1) in a first pressure region between the air guide plate and the contact surface; - a second pressure (p 2) in a second pressure region, which is arranged in a central region inside the contact surface, wherein the second pressure (p 2) is greater than the first pressure (p 1). - a first, reduced pressure (p 1) in a first pressure region between the air guide plate and the contact surface; - a second pressure (p 2) in a second pressure region, which is arranged in a central region inside the contact surface, wherein the second pressure (p 2) is greater than the first pressure (p 1).
An analgesic compound of formula: wherein R comprises NH 2, N(CH 3) 2, NHCH 3, N(CH 2 CH 3) 2, N(CH 2 CH 2) 2 NCH 2 C 6 H 5, NH(CH 2) 2 C 6 H 5, NHCH 2 C 6 H 5, N(CH 2 CH 2) 2 O, NHCH 2 CH 2 CH 2 CH 3, NHCH 2 C 6 H 4 CH 3, NHCH 2 C 6 H 3 Cl 2, NHCH 2 C 6 H 5 CH 3, NHCH 2 C 6 H 5 Cl, NHCH 2 C 6 H 5 NO 2, NHC 5 H 9, NHCH 2 C(CH 3) 2, NHC(CH 3) 2, NHCH 2 CH 2 C 6 H 3 2, NHCH 2 C 6 H 4 N, NHCH 2 C 6 H3NCH 3,NHCH 2 CH 2 C 4 H 4 N, N(CH 3)CH 2 CH 2 OH, NHCH 2 CH CH 2 NH 2; or a pharmaceutically acceptable salt thereof.
A molded product production system comprising: at least two measuring feeders (Z1a, Z1b, Z1c) configured to simultaneously adjust an amount of a discharged powdery material to a target value and feed the powdery material; a mixer (Z3, Z4) configured to mix at least two powdery materials fed from the measuring feeders (Z1a, Z1b, Z1c) to obtain mixed powdery materials; a filler configured to fill, with the mixed powdery materials obtained by the mixer (Z3, Z4), a die bore of a compression molding machine configured to compress a powdery material to mold a molded product; a sensor (S1, S2, S3, S4, S5) configured to measure a mixing degree of the mixed powdery materials obtained by the mixer (Z3, Z4); and a controller configured to adjust an amount of at least one of the powdery materials fed by the measuring feeders (Z1a, Z1b, Z1c), or motion speed of a mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) in accordance with the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5), characterized in that the controller is configured to control to change the motion speed of the mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) when the absolute value of the difference between the target value and the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5) is not more than the predetermined threshold continuously for at least the certain period but is more than the threshold instantaneously or for a period shorter than the certain period. at least two measuring feeders (Z1a, Z1b, Z1c) configured to simultaneously adjust an amount of a discharged powdery material to a target value and feed the powdery material; a mixer (Z3, Z4) configured to mix at least two powdery materials fed from the measuring feeders (Z1a, Z1b, Z1c) to obtain mixed powdery materials; a filler configured to fill, with the mixed powdery materials obtained by the mixer (Z3, Z4), a die bore of a compression molding machine configured to compress a powdery material to mold a molded product; a sensor (S1, S2, S3, S4, S5) configured to measure a mixing degree of the mixed powdery materials obtained by the mixer (Z3, Z4); and a controller configured to adjust an amount of at least one of the powdery materials fed by the measuring feeders (Z1a, Z1b, Z1c), or motion speed of a mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) in accordance with the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5), characterized in that the controller is configured to control to change the motion speed of the mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) when the absolute value of the difference between the target value and the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5) is not more than the predetermined threshold continuously for at least the certain period but is more than the threshold instantaneously or for a period shorter than the certain period.
n endoscope comprising: an insertion part that is to be inserted into a subject and has a first center line; an operation unit that is connected to a proximal end portion of the insertion part; and a grip portion that is provided integrally with the operation unit and has a cross-sectional shape symmetric with respect to a second center line, wherein the first center line and the second center line are orthogonal to each other, the grip portion includes a first curved surface that crosses the second center line, a second curved surface (39A, 39B) that is disposed at a position away from the second center line, and a ridge (41A, 41B) that is positioned between the first and second curved surfaces (38; 39A, 39B), the first curved surface is convex outward from a plane (SA1, SB1) including an intersection point between the second center line and the first curved surface and the ridge (41A, 41B), and the second curved surface (39A, 39B) is concave inward from a plane (SA2, SB2) parallel to the second center line, characterized in that the first curved surface has the maximum radius of curvature at a position where the first curved surface passes through the intersection point, and a radius of curvature of the first curved surface is reduced as the first curved surface is away from the second center line. an insertion part that is to be inserted into a subject and has a first center line; an operation unit that is connected to a proximal end portion of the insertion part; and a grip portion that is provided integrally with the operation unit and has a cross-sectional shape symmetric with respect to a second center line, wherein the first center line and the second center line are orthogonal to each other, the grip portion includes a first curved surface that crosses the second center line, a second curved surface (39A, 39B) that is disposed at a position away from the second center line, and a ridge (41A, 41B) that is positioned between the first and second curved surfaces (38; 39A, 39B), the first curved surface is convex outward from a plane (SA1, SB1) including an intersection point between the second center line and the first curved surface and the ridge (41A, 41B), and the second curved surface (39A, 39B) is concave inward from a plane (SA2, SB2) parallel to the second center line, characterized in that the first curved surface has the maximum radius of curvature at a position where the first curved surface passes through the intersection point, and a radius of curvature of the first curved surface is reduced as the first curved surface is away from the second center line.
A method of attaching a casing to an outer surface jacket of a pipeline at a pipe joint, comprising: a. wrapping or fitting a casing around the pipe joint so that a side portion of the casing overlaps an end portion of the outer surface jacket on either side of the pipe joint, to form an interface region on each side of the pipe joint, said interface region defined as being between the end portion of the outer surface jacket and the side portion of the casing; said interface region, end portion, and/or side portion having both an electric heating element (24, 26) and an adhesive strip around its circumference, wherein the electric heating element (24, 26) is disposed separately from the adhesive strip, and wherein the adhesive strip is disposed distal to the pipe joint relative to the electric heating element; b. applying an electric current to said electric heating element (24, 26) of a sufficient energy to heat said electric heating element (24, 26) to a temperature sufficient to fuse said side portions to said end portions. a. wrapping or fitting a casing around the pipe joint so that a side portion of the casing overlaps an end portion of the outer surface jacket on either side of the pipe joint, to form an interface region on each side of the pipe joint, said interface region defined as being between the end portion of the outer surface jacket and the side portion of the casing; said interface region, end portion, and/or side portion having both an electric heating element (24, 26) and an adhesive strip around its circumference, wherein the electric heating element (24, 26) is disposed separately from the adhesive strip, and wherein the adhesive strip is disposed distal to the pipe joint relative to the electric heating element; b. applying an electric current to said electric heating element (24, 26) of a sufficient energy to heat said electric heating element (24, 26) to a temperature sufficient to fuse said side portions to said end portions.
A computer-implemented process comprising applying a general-purpose computing device to perform process actions for: generating a noise-level function, NLF, for each of a plurality of ISO settings of a digital camera from multiple aligned images of a static calibration target captured by the digital camera, wherein the NLF describes how image noise sigma varies with image intensity; for each of the plurality of ISO settings of the digital camera, receiving, a selection made by human viewers of a single preferred image from a set comprising a plurality of versions of that image at different ISO settings, each image of said plurality having different exposure adjustments, and estimating an alpha function α based on the exposure adjustment of the selected preferred image, thereby obtaining a set of alpha functions for the plurality of ISO settings of the digital camera, wherein the alpha function α controls perceptual extent for different noise and lighting conditions; estimating, a noise aware scaling function, NASF for each of the plurality of ISO settings of the digital camera from a combination of the corresponding NLF and the correponding alpha function α for a respective one of the plurality of ISO settings, thereby obtaining a set of NASFs for the plurality of ISO setting of the digital camera; and applying the NASF corresponding to the ISO setting used to capture an input image to perform automated real-time noise-aware exposure correction of the input image, thereby generating, in real-time, an exposure-corrected output image from the input image. generating a noise-level function, NLF, for each of a plurality of ISO settings of a digital camera from multiple aligned images of a static calibration target captured by the digital camera, wherein the NLF describes how image noise sigma varies with image intensity; for each of the plurality of ISO settings of the digital camera, receiving, a selection made by human viewers of a single preferred image from a set comprising a plurality of versions of that image at different ISO settings, each image of said plurality having different exposure adjustments, and estimating an alpha function α based on the exposure adjustment of the selected preferred image, thereby obtaining a set of alpha functions for the plurality of ISO settings of the digital camera, wherein the alpha function α controls perceptual extent for different noise and lighting conditions; estimating, a noise aware scaling function, NASF for each of the plurality of ISO settings of the digital camera from a combination of the corresponding NLF and the correponding alpha function α for a respective one of the plurality of ISO settings, thereby obtaining a set of NASFs for the plurality of ISO setting of the digital camera; and applying the NASF corresponding to the ISO setting used to capture an input image to perform automated real-time noise-aware exposure correction of the input image, thereby generating, in real-time, an exposure-corrected output image from the input image.
Additive manufacturing machine that comprises: - at least one manufacturing robot or robots, to manufacture parts, by means of additive manufacturing; and - at least one automatic loading system of manufacturing platform that comprises a position detector and at least one pusher system of manufacturing platforms, to feed or provide the at least one manufacturing robot with at least one manufacturing platform intended to support parts during the manufacture, modification of manufactured parts; wherein the loading system is located beside each manufacturing robot or robots 201 and the additive manufacturing machine comprises at least one automatic or horizontal storage area configured to accommodate manufacturing platforms in conjunction with a loader, vertically stacked on top of each other or horizontally next to each other. wherein the manufacturing platforms are placed in the loading position thanks to a position detector that includes a sensor that is synchronized by the machine and production control software and makes the manufacturing platform reaches its loading position, and the machine comprises monitoring or control or guide system. - at least one manufacturing robot or robots, to manufacture parts, by means of additive manufacturing; and - at least one automatic loading system of manufacturing platform that comprises a position detector and at least one pusher system of manufacturing platforms, to feed or provide the at least one manufacturing robot with at least one manufacturing platform intended to support parts during the manufacture, modification of manufactured parts; wherein the loading system is located beside each manufacturing robot or robots 201 and the additive manufacturing machine comprises at least one automatic or horizontal storage area configured to accommodate manufacturing platforms in conjunction with a loader, vertically stacked on top of each other or horizontally next to each other. wherein the manufacturing platforms are placed in the loading position thanks to a position detector that includes a sensor that is synchronized by the machine and production control software and makes the manufacturing platform reaches its loading position, and the machine comprises monitoring or control or guide system.
Method for selecting a milling cutter for lateral machining on the basis of a part to be machined, the milling cutter comprising: • a cylinder having a circular cross section of radius R and having an axis of rotation, • a plurality of cutting edges in a number M, arranged along parallel helical lines extending along an outer surface of the cylinder, the edges defining, together with the direction of the axis of the cylinder, a helix angle β, the edges enclosing constant angles α in a plane that is perpendicular to the axis such that α=2π/M, the method comprising the steps of: • providing a part having a side, • determining a height h of the side measured in parallel with the axis of rotation of the milling cutter, • selecting a milling cutter having values of α, β and R such that the following equation is satisfied: tg β R α = integer h • a cylinder having a circular cross section of radius R and having an axis of rotation, • a plurality of cutting edges in a number M, arranged along parallel helical lines extending along an outer surface of the cylinder, the edges defining, together with the direction of the axis of the cylinder, a helix angle β, the edges enclosing constant angles α in a plane that is perpendicular to the axis such that α=2π/M, • providing a part having a side, • determining a height h of the side measured in parallel with the axis of rotation of the milling cutter, • selecting a milling cutter having values of α, β and R such that the following equation is satisfied: tg β R α = integer h
Storage or infusion bottle with a bottle neck moulded integrally thereon, the bottle neck having at least one teat-shaped bottle feature (4, 5) projecting from its mouth end, wherein a cap is attachable to the bottle neck, wherein the cap has at least one funnel-shaped cap feature (9, 10), the feature's (9, 10) interior space accommodating at least the free end region of the corresponding bottle feature (4, 5), wherein a hat-shaped sealing element (11, 12) encloses the bottle feature (4, 5) at least in its end region facing away from the storage or infusion bottle and is held at the circumference of its hat shape in a form-fitting and/or force-fitting manner on the circumference of the bottle feature (4, 5), characterized in that a closed teat end wall (6, 7) of said bottle feature is designed to be puncturable by an infusion needle and in that the intermediate space between the end wall of the at least one bottle feature (4, 5) and the opposing side of the corresponding cap feature (9, 10) is completely filled by the hat-shaped sealing element (11, 12).
A method for remote registration of a Machine-to-Machine, M2M, application, wherein the M2M application is arranged in a terminal or a network server; comprising: receiving, by a local Common Service Entity, CSE, a first registration request message from the M2M application, and reading a CSE list in a remote registration parameter when determining that the first registration request message comprises the remote registration parameter and determining that an activation indication parameter in the remote registration parameter represents that remote registration is required to be executed; and sending, by the local CSE, a second registration request message to target CSEs in the CSE list according to identifiers or addresses of the target CSEs so that the M2M application is remotely registered on the target CSEs when determining that the CSE list is not empty and the target CSEs have been successfully registered on the local CSE; wherein the CSE list comprises the identifiers or addresses of the target CSEs; and the second registration request message comprises: an identifier or address of the M2M application, and an identifier or address of the local CSE. receiving, by a local Common Service Entity, CSE, a first registration request message from the M2M application, and reading a CSE list in a remote registration parameter when determining that the first registration request message comprises the remote registration parameter and determining that an activation indication parameter in the remote registration parameter represents that remote registration is required to be executed; and sending, by the local CSE, a second registration request message to target CSEs in the CSE list according to identifiers or addresses of the target CSEs so that the M2M application is remotely registered on the target CSEs when determining that the CSE list is not empty and the target CSEs have been successfully registered on the local CSE; wherein the CSE list comprises the identifiers or addresses of the target CSEs; and the second registration request message comprises: an identifier or address of the M2M application, and an identifier or address of the local CSE.
A method for preparing a composite polyamide membrane comprising contacting under interfacial polymerization conditions an organic solution comprising trimesoyl chloride with an aqueous solution comprising meta-phenylene diamine and/or para-phenylene diamine to form a polyamide membrane, said contacting being carried out on a surface of a porous base membrane, said organic solution further comprising cyclohexanone and an aryl sulfonyl halide selected from 1,3-benzenedisulfonyl chloride or 1,3,6-naphthalenetrisulfonyl chloride, wherein the aryl sulfonyl halide is present in an amount ranging from 0.01% to 2% by weight; and contacting the polyamide membrane with a sodium hypochlorite solution.
A method comprising: - determining a defect associated with a first container, the first container comprising one or more items; - establishing a communication with each of one or more second containers; - transmitting a request to each of the one or more second containers; - receiving information from each of the one or more second containers in response to the request; - determining one or more healthy containers from the one or more second containers based on the information received from each of the one or more second containers; and - transmitting a message to a user equipment for shifting the one or more items from the first container to the one or more healthy containers; - wherein the first container is a refrigerated container and the one or more second containers are refrigerated containers. - determining a defect associated with a first container, the first container comprising one or more items; - establishing a communication with each of one or more second containers; - transmitting a request to each of the one or more second containers; - receiving information from each of the one or more second containers in response to the request; - determining one or more healthy containers from the one or more second containers based on the information received from each of the one or more second containers; and - transmitting a message to a user equipment for shifting the one or more items from the first container to the one or more healthy containers; - wherein the first container is a refrigerated container and the one or more second containers are refrigerated containers.