mhurhangee/ep-ind-claims huggingface dataset:
A platform for transporting reels in containers comprising: - a first pair of longitudinal profiles and a second pair of longitudinal profiles, where the longitudinal profiles of each pair are parallel to one another; - tubular profiles with at least one receiving opening and attaching the longitudinal profiles of each pair of longitudinal profiles (2, 3) to one another; - the first and second pair of longitudinal profiles (2, 3) are arranged parallel to one another and are attached to one another by first attachment profiles; and the platform is characterized in that: - each pair of longitudinal profiles (2, 3) comprises an external longitudinal profile with an external lateral face and attached in the orthogonal position to said external longitudinal profiles are at least a third and a fourth pair of transverse profiles (6, 7), wherein said transverse profiles of the third and fourth pair of transverse profiles (6, 7) are parallel to one another and are attached to one another by respective second attachment profiles; - a plurality of wedges with a lower face on which they have a protrusion with a polygonal section, configured for being housed in the receiving opening of the tubular profiles or between the longitudinal profiles of each pair of longitudinal profiles (2, 3); and - stop blocks of the platform configured for being in contact with the second attachment profiles and allowing the fixing of the platform with respect to walls of the container. - a first pair of longitudinal profiles and a second pair of longitudinal profiles, where the longitudinal profiles of each pair are parallel to one another; - tubular profiles with at least one receiving opening and attaching the longitudinal profiles of each pair of longitudinal profiles (2, 3) to one another; - the first and second pair of longitudinal profiles (2, 3) are arranged parallel to one another and are attached to one another by first attachment profiles; - each pair of longitudinal profiles (2, 3) comprises an external longitudinal profile with an external lateral face and attached in the orthogonal position to said external longitudinal profiles are at least a third and a fourth pair of transverse profiles (6, 7), wherein said transverse profiles of the third and fourth pair of transverse profiles (6, 7) are parallel to one another and are attached to one another by respective second attachment profiles; - a plurality of wedges with a lower face on which they have a protrusion with a polygonal section, configured for being housed in the receiving opening of the tubular profiles or between the longitudinal profiles of each pair of longitudinal profiles (2, 3); and - stop blocks of the platform configured for being in contact with the second attachment profiles and allowing the fixing of the platform with respect to walls of the container.
Slab table for at least partial formworking of a concrete slab, at least comprising: - at least one formwork element having a formwork element frame and a formwork skin arranged on the formwork element frame; - a carrier skeleton; - at least one receiving device having an in particular circumferential outer frame and a base that is detachably fastened to the carrier skeleton, in which the at least one formwork element is detachably received, the receiving device having a locking system that is designed for detachably fixing the at least one formwork element, and in particular the formwork element frame of the at least formwork element, in the receiving device, - wherein one or more openings for releasing the lock are present in the outer frame of the at least one receiving device, characterized in that the at least one receiving device is designed as a container and in that the locking system has a first fastening element connected to the receiving device via a spring element, which first fastening element is designed to engage in a corresponding recess on a first side of the at least one formwork element or of the formwork element frame of the at least one formwork element. - at least one formwork element having a formwork element frame and a formwork skin arranged on the formwork element frame; - a carrier skeleton; - at least one receiving device having an in particular circumferential outer frame and a base that is detachably fastened to the carrier skeleton, in which the at least one formwork element is detachably received, the receiving device having a locking system that is designed for detachably fixing the at least one formwork element, and in particular the formwork element frame of the at least formwork element, in the receiving device, - wherein one or more openings for releasing the lock are present in the outer frame of the at least one receiving device,
A pharmaceutical composition comprising (i) a clonal strain of attenuated vaccinia virus that is isolated from cultured cells in which Dryvax® or ACAM 1000 (ATCC Deposit No. PTA-3321) has been cultured, is capable of inducing a protective or therapeutic immune response against variola virus in a human and, when administered to a human in an amount effective to induce a protective or therapeutic immune response against variola virus in said human, is acceptably attenuated in said human; and (ii) a pharmaceutically acceptable carrier or diluent, wherein said vaccinia virus has the same virulence as vaccinia virus strain ACAM1000 (ATCC Deposit No. PTA-3321), wherein said vaccinia virus has the same immunogenicity as vaccinia virus strain ACAM1000 (ATCC Deposit No. PTA-3321), and wherein said vaccinia virus has the same digestion pattern as vaccinia virus strain ACAM1000 (ATCC Deposit No. PTA-3321) when digested with restriction endonuclease HindIII.
A patching system comprising: a first cabinet containing a variety of telecommunication equipments and a second cabinet containing a variety of telecommunication equipments, the first cabinet containing a first patch panel cabinet, the second cabinet containing a second patch panel cabinet, and a vertical patch panel mounted between the first patch panel cabinet and the second patch panel cabinet, the vertical patch panel having telecommunications connectors (110, 112) mounted therein. a first cabinet containing a variety of telecommunication equipments and a second cabinet containing a variety of telecommunication equipments, the first cabinet containing a first patch panel cabinet, the second cabinet containing a second patch panel cabinet, and a vertical patch panel mounted between the first patch panel cabinet and the second patch panel cabinet, the vertical patch panel having telecommunications connectors (110, 112) mounted therein.
A computer-implemented method of decomposing a near field signal and a far field signal, the method comprising: in a training phase for an autoencoder: acquiring, by a training algorithm, far field ventricle measurements; adding a synthetic local field signal; and detecting, by the training algorithm, a resulting far field signal and a residual near field signal; receiving measured signals; encoding, by the trained autoencoder, the measured signals to produce a latent representation; and decoding, by the trained autoencoder, the latent representation to decompose a near field component and a far field component from the measured signals. in a training phase for an autoencoder: acquiring, by a training algorithm, far field ventricle measurements; adding a synthetic local field signal; and detecting, by the training algorithm, a resulting far field signal and a residual near field signal; acquiring, by a training algorithm, far field ventricle measurements; adding a synthetic local field signal; and detecting, by the training algorithm, a resulting far field signal and a residual near field signal; receiving measured signals; encoding, by the trained autoencoder, the measured signals to produce a latent representation; and decoding, by the trained autoencoder, the latent representation to decompose a near field component and a far field component from the measured signals.
Print head arrangement for an ink jet printer, in particular for printing on textiles, with - a frame, - a carriage which can be moved relative to the frame and on which a print head with at least one ink jet nozzle for dispensing ink is arranged, - at least one ink tank, which is arranged on the frame, - at least one feed line for supplying ink from the ink tank to an inlet line to the print head, - a return line for returning unused ink from the print head to the ink tank and - at least one main pump arranged on the frame, which is arranged on the feed line or the return line for conveying of the ink, characterised in that at least one further additional pump is arranged on the carriage for pumping unused ink without intermediate storage directly via an outlet line to the return line back to the ink tank. - a frame, - a carriage which can be moved relative to the frame and on which a print head with at least one ink jet nozzle for dispensing ink is arranged, - at least one ink tank, which is arranged on the frame, - at least one feed line for supplying ink from the ink tank to an inlet line to the print head, - a return line for returning unused ink from the print head to the ink tank and - at least one main pump arranged on the frame, which is arranged on the feed line or the return line for conveying of the ink,
A method for thinning wafers comprising the steps of a. obtaining a device wafer comprising a first surface (1 a) and a second surface (1 b) essentially parallel to each other; b. obtaining a carrier wafer having a first surface and a second surface essentially parallel to each other; c. bonding said first surface (1 a) of said device wafer to said first surface of said carrier wafer by means of a bonding layer thereby forming a composite substrate; d. clamping said second surface (1 b) of said device wafer to a first reference surface prior to step e, by means of an electrostatic or vacuum chuck; e. removing material from said second surface of said carrier wafer in said composite substrate; f. thereafter clamping said second surface of said carrier wafer to a second reference surface prior to step g, by means of an electrostatic or vacuum chuck; g. removing material from said second surface (1 b) of said device wafer in said composite substrate; wherein removing material in step (e) further comprises removing material such that said second surface of said carrier wafer is essentially parallel to said first reference surface; and wherein removing material in step (g) further comprises removing material such that said second surface of said device wafer is essentially parallel to said second reference surface. a. obtaining a device wafer comprising a first surface (1 a) and a second surface (1 b) essentially parallel to each other; b. obtaining a carrier wafer having a first surface and a second surface essentially parallel to each other; c. bonding said first surface (1 a) of said device wafer to said first surface of said carrier wafer by means of a bonding layer thereby forming a composite substrate; d. clamping said second surface (1 b) of said device wafer to a first reference surface prior to step e, by means of an electrostatic or vacuum chuck; e. removing material from said second surface of said carrier wafer in said composite substrate; f. thereafter clamping said second surface of said carrier wafer to a second reference surface prior to step g, by means of an electrostatic or vacuum chuck; g. removing material from said second surface (1 b) of said device wafer in said composite substrate;
A method for loading a transport container, wherein the method comprises the steps of: a. transporting a plurality of objects either with a first sorter or with at least one second sorter different from the first sorter between a plurality of buffer locations separated from one another, to each of which at least one sorting target is assigned; b. sorting a first subset of the plurality of objects with the first sorter and a second subset of the plurality of objects different from the first subset with the second sorter according to at least one sorting target into the buffer locations, c. loading a transport container with the sorted objects of at least one of the buffer locations, wherein all objects loaded from the buffer locations into the transport container have the same sorting target, characterised in that at least one first of the at least two buffer locations is loaded exclusively with objects from the first sorter when sorting the plurality of objects, and at least one second of the at least two buffer locations is loaded exclusively with objects from the second sorter when sorting the plurality of objects. a. transporting a plurality of objects either with a first sorter or with at least one second sorter different from the first sorter between a plurality of buffer locations separated from one another, to each of which at least one sorting target is assigned; b. sorting a first subset of the plurality of objects with the first sorter and a second subset of the plurality of objects different from the first subset with the second sorter according to at least one sorting target into the buffer locations, c. loading a transport container with the sorted objects of at least one of the buffer locations, wherein all objects loaded from the buffer locations into the transport container have the same sorting target,
A rotary electric machine comprising: a housing; a stator disposed in the housing; at least two support members disposed in at least two different places, respectively, in an axial direction of the stator between the housing and an outer circumferential surface of the stator, the at least two support members supporting the stator against the housing; and a moving constraint mechanism for constraining movement of at least one of the at least two support members in the axial direction of the stator, wherein the at least two support members, the housing, and the outer circumferential surface of the stator form a space, and wherein the at least two support members are annular seal members separate from the housing and the stator, characterized in that the moving constraint mechanism includes an annular insertion member and an insertion groove, the annular insertion member being formed so as to protrude from the outer circumferential surface of the stator, the insertion groove being formed in the at least one of the at least two support members so as to allow insertion of the insertion member. a housing; a stator disposed in the housing; at least two support members disposed in at least two different places, respectively, in an axial direction of the stator between the housing and an outer circumferential surface of the stator, the at least two support members supporting the stator against the housing; and a moving constraint mechanism for constraining movement of at least one of the at least two support members in the axial direction of the stator, wherein the at least two support members, the housing, and the outer circumferential surface of the stator form a space, and wherein the at least two support members are annular seal members separate from the housing and the stator, characterized in that the moving constraint mechanism includes an annular insertion member and an insertion groove, the annular insertion member being formed so as to protrude from the outer circumferential surface of the stator, the insertion groove being formed in the at least one of the at least two support members so as to allow insertion of the insertion member.
A method for compensating one or more DC components in an electrical system, the method comprising: - receiving one or more signals at one or more controllers wherein the one or more signals are derived from the one or more DC components present in a transformer which is connected to a high voltage line and a low voltage line; - converting the one or more signals in one or more firing pulses; - triggering one or more power electronics from the one or more firing pulses; and - charging one or more controllable branch/device to counterbalance the one or more DC components of the electrical system, the controllable branch/device being connected in series with the transformer via the low voltage line and a core of the transformer being absent of a compensation winding. - receiving one or more signals at one or more controllers wherein the one or more signals are derived from the one or more DC components present in a transformer which is connected to a high voltage line and a low voltage line; - converting the one or more signals in one or more firing pulses; - triggering one or more power electronics from the one or more firing pulses; and - charging one or more controllable branch/device to counterbalance the one or more DC components of the electrical system, the controllable branch/device being connected in series with the transformer via the low voltage line and a core of the transformer being absent of a compensation winding.
A method for managing Internet of Things, IoT, devices in an IoT system, the IoT system comprising: a plurality of IoT devices operable by a user; a hub for electronically coupling the plurality of IoT devices to the user; an IOT server for electronically coupling the plurality of IoT devices with a plurality of IoT vendors; a plurality of application programming interfaces, APIs, for enabling data sharing between the plurality of IoT vendors and the plurality of IoT devices; a plurality of dashboard graphical user interfaces, GUI, for enabling communication between the plurality of IoT vendors and the user, the IoT server enabling the plurality of APIs, and comprising an artificial intelligence, AI, engine; wherein the method comprises: establishing, by the AI engine, a baseline of the IoT system behavioral patterns; detecting, by the AI engine, abnormal system behavior based on the baseline; matching, by the AI engine, the detected abnormal system behavior to any of a plurality of known cyberattack patterns; remediating, by the AI engine, any damage done that corresponds with any of the matching known cyberattack patterns; and performing, by the AI engine, predictive analytics and anomaly detection to predict IoT device failure in the IoT system based on Meantime Between Failure, MTBF, statistics provided by the plurality of IoT device vendors. a plurality of IoT devices operable by a user; a hub for electronically coupling the plurality of IoT devices to the user; an IOT server for electronically coupling the plurality of IoT devices with a plurality of IoT vendors; a plurality of application programming interfaces, APIs, for enabling data sharing between the plurality of IoT vendors and the plurality of IoT devices; a plurality of dashboard graphical user interfaces, GUI, for enabling communication between the plurality of IoT vendors and the user, the IoT server enabling the plurality of APIs, and comprising an artificial intelligence, AI, engine; establishing, by the AI engine, a baseline of the IoT system behavioral patterns; detecting, by the AI engine, abnormal system behavior based on the baseline; matching, by the AI engine, the detected abnormal system behavior to any of a plurality of known cyberattack patterns; remediating, by the AI engine, any damage done that corresponds with any of the matching known cyberattack patterns; and performing, by the AI engine, predictive analytics and anomaly detection to predict IoT device failure in the IoT system based on Meantime Between Failure, MTBF, statistics provided by the plurality of IoT device vendors.
A method for controlling turbine blade tip seal clearance on a non-cowled gas turbine engine having a compressor, a turbine and an engine core casing, the turbine having a plurality of turbine blades circumscribed by a turbine shroud supporting a plurality of seals in juxtaposition with tips of the plurality of turbine blades, the method of controlling turbine blade tip seal clearance characterised by comprising: a step of directing a flow of relatively cool, low pressure air along and in contact with an exterior surface of the engine core casing; and a step of directing a flow of relatively hot, high pressure air in contact with an exterior surface of the engine core casing circumscribing the turbine that comprises a step of displacing the flow of relatively cool, low pressure air away from contact with the exterior surface of the engine core casing circumscribing the turbine with the flow of relatively hot, high pressure air. a step of directing a flow of relatively cool, low pressure air along and in contact with an exterior surface of the engine core casing; and a step of directing a flow of relatively hot, high pressure air in contact with an exterior surface of the engine core casing circumscribing the turbine that comprises a step of displacing the flow of relatively cool, low pressure air away from contact with the exterior surface of the engine core casing circumscribing the turbine with the flow of relatively hot, high pressure air.
A method for delivery of data to end user equipment via a Content Delivery Network comprising a plurality of nodes (131, 132, 133, 134, 135), the plurality of nodes each being at different geographical locations and being connected to the Internet, wherein the method comprises the steps of: - hosting in a first datacenter (110, 111, 112) at a first geographical location within the footprint of a satellite transmission a bank of first satellite receivers, each specific to a particular end user, the first datacenter (110, 111, 112) being set up to ensure proper reception of audio and video signals on the receivers and to ensure maintenance of operation at all times, - receiving data on one of said first satellite receivers, - forwarding the received data from said one of the first satellite receivers to a processor, for processing the data into Internet packets, - identifying a node (131, 132, 133, 134, 135) of the CDN which is geographically the closest to the first geographical location and forwarding the processed data from said one of the first receivers to this node of the CDN, - receiving on a node (131, 132, 133, 134, 135) of the CDN closest to the end user equipment a request from the end user to have access to data from said one of the first satellite receivers, the end user making the request from a geographical location remote from the first geographical location, - verifying the identity of the end user and, where the verification is positive, - forwarding processed data from the node closest to the first geographical location to the node closest to the end user equipment, and from the node closest to the end user equipment to the end user equipment via the Internet. - hosting in a first datacenter (110, 111, 112) at a first geographical location within the footprint of a satellite transmission a bank of first satellite receivers, each specific to a particular end user, the first datacenter (110, 111, 112) being set up to ensure proper reception of audio and video signals on the receivers and to ensure maintenance of operation at all times, - receiving data on one of said first satellite receivers, - forwarding the received data from said one of the first satellite receivers to a processor, for processing the data into Internet packets, - identifying a node (131, 132, 133, 134, 135) of the CDN which is geographically the closest to the first geographical location and forwarding the processed data from said one of the first receivers to this node of the CDN, - receiving on a node (131, 132, 133, 134, 135) of the CDN closest to the end user equipment a request from the end user to have access to data from said one of the first satellite receivers, the end user making the request from a geographical location remote from the first geographical location, - verifying the identity of the end user and, where the verification is positive, - forwarding processed data from the node closest to the first geographical location to the node closest to the end user equipment, and from the node closest to the end user equipment to the end user equipment via the Internet.