mhurhangee/ep-ind-claims huggingface dataset:
Double drum traction winch comprising a frame supporting a first and second rotatable drum such that a wire can be wound about the two drums, further comprising one or more drives for rotating both drums about their respective rotational axis, wherein the outer surface of each drum is provided with parallel circumferential grooves (7, 8) perpendicular to the rotational axis of the drum for carrying the wire that is wound about both drums, and wherein in use the tension in the wire carried by the grooves increases with each groove it passes through from a low tension end of a drum, where tension in the carried wire is low, towards a high tension end of a drum, were the tension in the carried wire is high, characterized in that, the rotatable drums are both drums with adjustable grooves, each drum comprising: a core body, mounted in the frame for rotation about the rotational axis of the drum by said one or more drives; multiple, for example three or more, curved segments, each segment defining a section of a circumferential groove, such that multiple circumferential grooves are each composed of several curved segments, which curved segments are each movably supported on the core body for movement in a substantial radial direction relative to the rotational axis of the drum, an actuator mechanism (12, 13) for the curved segments, comprising actuators that cause essentially radial displacement of the curved segments, and that: a) allow to move curved segments into an outward position to increase the circumference of the grooves, and b) allow to move curved segments into an inward position to reduce the circumference of the grooves, and wherein the actuator mechanism allows the curved segments to be positioned such that the circumference of a groove at the low tension end of the drum is smaller than the circumference of a groove at the high tension end of the drum. a core body, mounted in the frame for rotation about the rotational axis of the drum by said one or more drives; multiple, for example three or more, curved segments, each segment defining a section of a circumferential groove, such that multiple circumferential grooves are each composed of several curved segments, which curved segments are each movably supported on the core body for movement in a substantial radial direction relative to the rotational axis of the drum, an actuator mechanism (12, 13) for the curved segments, comprising actuators that cause essentially radial displacement of the curved segments, and that: a) allow to move curved segments into an outward position to increase the circumference of the grooves, and b) allow to move curved segments into an inward position to reduce the circumference of the grooves, and wherein a) allow to move curved segments into an outward position to increase the circumference of the grooves, and b) allow to move curved segments into an inward position to reduce the circumference of the grooves, and wherein the actuator mechanism allows the curved segments to be positioned such that the circumference of a groove at the low tension end of the drum is smaller than the circumference of a groove at the high tension end of the drum.
A centrifugal separator for separation of liquid particles from a gas stream, comprising a stationary frame, a gas inlet and a gas outlet, wherein the frame comprises a tubular element defining a rotor space inside itself and a liquid transportation space outside the tubular element, a centrifugal rotor arranged in the rotor space and rotatably supported in the frame around a rotational axis (x) and comprising a separation means, wherein at least one opening (40, 41) is provided in the tubular element, between the rotor space and the liquid transportation space, for conducting liquid separated from the gas stream from the rotor space to the liquid transportation space, characterized by a stationary device configured to bring the gas stream in rotation, thereby bringing the rotor into rotation.
A coating composition comprising: 10 to 60% by weight of the polyester resin binder for coating; and the balance of an organic solvent, wherein the polyester resin binder for coating is copolymerized with a diacid component comprising 70 to 100 moles % of terephthalic acid and/or isophthalic acid with respect to the total amount of the diacid component, a diol component comprising 10 to 55 moles% of isosorbide, with respect to a total diol component, and 1 to 50% by weight of lactic acid or a compound derived therefrom, with respect to the total amount of resin polymerization reactants, wherein the polyester resin binder for coating has a structure in which a diacid moiety derived from the diacid component, a diol moiety derived from the diol component, and a hydroxyl monoacid moiety derived from the lactic acid or a compound derived therefrom are repeated, and the polyester resin binder has a glass transition temperature (Tg) of 80°C to 150°C, the glass transition temperature being measured at a temperature elevation rate of 10°C/ min upon 2 nd scanning. 10 to 60% by weight of the polyester resin binder for coating; and the balance of an organic solvent,
A valve seat for use in a valve, the valve seat comprising an inner path providing a first flow channel adapted to be in contact with a first chamber of the valve, the valve seat comprising at least two outer paths also adapted to be in contact with the first chamber, the valve seat further comprising a sealing area adapted to face a sealing of the valve, said sealing area adapted to be in connection with a second chamber, said sealing area having an inner sealing edge and an outer sealing edge, and wherein said valve seat is adapted to allow for a flow between said first chamber and said second chamber when the valve is in an open position, where said flow in said inner path and said at least two outer paths flows through said sealing area being in contact with the second chamber via the inner sealing edge and the outer sealing edge, respectively the valve seat comprising a recess, the top section of the recess forming the sealing area configured to face the sealing of the valve, wherein the valve seat is configured to allow a flow to enter the sealing area of the recess from the outer sealing edge and the inner sealing edge.
A method for cutting and placing individual nose wires in a facemask production line, comprising: supplying a continuous wire from a supply source to a cutting station in the facemask production line; at the cutting station, cutting the continuous wire into individual nose wires having a defined length; and characterised by comprising: conveying a first web to a vacuum conveyor; conveying the individual nose wires from the cutting station to the vacuum conveyor such that the nose wires are drawn by vacuum against the first web at a defined spacing; and with the vacuum conveyor, moving the first web and attached nose wires to a folding station wherein the first web with attached nose wires are combined with a second web such that the nose wires are encapsulated between the webs (118, 120). supplying a continuous wire from a supply source to a cutting station in the facemask production line; at the cutting station, cutting the continuous wire into individual nose wires having a defined length; and characterised by comprising: conveying a first web to a vacuum conveyor; conveying the individual nose wires from the cutting station to the vacuum conveyor such that the nose wires are drawn by vacuum against the first web at a defined spacing; and with the vacuum conveyor, moving the first web and attached nose wires to a folding station wherein the first web with attached nose wires are combined with a second web such that the nose wires are encapsulated between the webs (118, 120). conveying a first web to a vacuum conveyor; conveying the individual nose wires from the cutting station to the vacuum conveyor such that the nose wires are drawn by vacuum against the first web at a defined spacing; and with the vacuum conveyor, moving the first web and attached nose wires to a folding station wherein the first web with attached nose wires are combined with a second web such that the nose wires are encapsulated between the webs (118, 120).
A method performed by a device for wireless communication for compensating changes in an environment of an antenna, the method comprising: measuring the reflection coefficient of the device at a first digital variable capacitor, DVC, capacitance state, wherein the device comprises one or more antennas and a micro electro mechanical system, MEMS, based DVC; measuring the reflection coefficient of the device at a second DVC capacitance state (1006, 1026, 1032); changing the second DVC capacitance state (1006, 1026, 1032) to a third DVC capacitance state (1020, 1012, 1014, 1030, 1036); measuring the reflection coefficient of the device at the third DVC capacitance state (1020, 1012, 1014, 1030, 1036); calculating reflection coefficients for all unmeasured DVC capacitance states based on the measured reflection coefficients of the first, second, and third DVC capacitance states; and selecting an operating DVC capacitance state based on impedance changes at the one or more antennas. measuring the reflection coefficient of the device at a first digital variable capacitor, DVC, capacitance state, wherein the device comprises one or more antennas and a micro electro mechanical system, MEMS, based DVC; measuring the reflection coefficient of the device at a second DVC capacitance state (1006, 1026, 1032); changing the second DVC capacitance state (1006, 1026, 1032) to a third DVC capacitance state (1020, 1012, 1014, 1030, 1036); measuring the reflection coefficient of the device at the third DVC capacitance state (1020, 1012, 1014, 1030, 1036); calculating reflection coefficients for all unmeasured DVC capacitance states based on the measured reflection coefficients of the first, second, and third DVC capacitance states; and selecting an operating DVC capacitance state based on impedance changes at the one or more antennas.
An illumination system for a safety helmet, said illumination system comprising: a generally tubular light guide (24a, 24b) formed of a light transmissive fibre-optic material, said light guide (24a, 24b) being configured to be mounted on a safety helmet so as to have a proximal wall adjacent a surface of said safety helmet and an opposing distal wall, and a light emitting device coupled at an input to said light guide (24a, 24b), wherein an inner surface of said proximal wall of said light guide (24a, 24b) is provided with at least one refractive portion configured to converge light incident thereon from said light emitting device onto said distal wall so as to create a discrete illuminated portion thereon, in use; and characterised in that the illumination system comprises: a pair of generally tubular light guides (24a, 24b) with a light emitting device coupled at a respective input of each light guide (24a, 24b), wherein each light guide (24a, 24b) is configured to be mounted on a respective side of a safety helmet and has a respective refractive portion on the inner surface of a proximal wall thereof; a housing in which a power supply and light emitting devices are housed, and from which said light guides (24a, 24b) extend, the power supply being coupled to said light emitting devices; and a releasable connector member; wherein a proximal end of each light guide (24a, 24b) is located within the housing with its input end coupled to a respective light emitting device, and a distal end of each light guide (24a, 24b) is connected to the releasable connector member to form a closed loop in use. a generally tubular light guide (24a, 24b) formed of a light transmissive fibre-optic material, said light guide (24a, 24b) being configured to be mounted on a safety helmet so as to have a proximal wall adjacent a surface of said safety helmet and an opposing distal wall, and a light emitting device coupled at an input to said light guide (24a, 24b), wherein an inner surface of said proximal wall of said light guide (24a, 24b) is provided with at least one refractive portion configured to converge light incident thereon from said light emitting device onto said distal wall so as to create a discrete illuminated portion thereon, in use; and a pair of generally tubular light guides (24a, 24b) with a light emitting device coupled at a respective input of each light guide (24a, 24b), wherein each light guide (24a, 24b) is configured to be mounted on a respective side of a safety helmet and has a respective refractive portion on the inner surface of a proximal wall thereof; a housing in which a power supply and light emitting devices are housed, and from which said light guides (24a, 24b) extend, the power supply being coupled to said light emitting devices; and a releasable connector member; wherein a proximal end of each light guide (24a, 24b) is located within the housing with its input end coupled to a respective light emitting device, and a distal end of each light guide (24a, 24b) is connected to the releasable connector member to form a closed loop in use.
A device for creating an item consisting of a series of Brunnian links, the device comprising: a pin bar, the pin bar including a plurality of pins each including a top flared portion for holding a Brunnian link in a desired orientation and an opening on a front side of each of the plurality of pins, wherein the opening extends through the pin to an open end with the top flared portion. a pin bar, the pin bar including a plurality of pins each including a top flared portion for holding a Brunnian link in a desired orientation and an opening on a front side of each of the plurality of pins, wherein the opening extends through the pin to an open end with the top flared portion.
A method for the preparation of a compound of Formula IV wherein P 1 is H or a suitable protecting group; comprising the preparation of a compound of Formula I wherein P 2 is H or a suitable protecting group and R 1 is H or C 1-6 alkyl by Steps 1 and 2; and conversion of the compound of Formula I into the compound of Formula IV by Steps 3 to 7 wherein P 1 is H or a suitable protecting group; comprising the preparation of a compound of Formula I wherein P 2 is H or a suitable protecting group and R 1 is H or C 1-6 alkyl by Steps 1 and 2; and conversion of the compound of Formula I into the compound of Formula IV by Steps 3 to 7
An isolated cystathionine-β-synthase polypeptide comprising a carboxyl-terminal truncated CBS protein, wherein the truncated CBS protein comprises a carboxyl-terminal truncation from 414-551, 442-551, 489-551, 497-551, 524-551, 534-551, or 544-551 of SEQ ID NO: 02, and wherein the truncated CBS protein is covalently linked to at least one or a plurality of polyethylene glycol molecules.
A method comprising: pointing a laser beam of a laser communication system including an integrated Acquisition and Tracking Sensor towards a celestial body having a known location, wherein the laser communications beam is co-boresighted to the ATS carried by a first platform; determining attitude of the first platform based, at least in part, on the ATS of the laser communication system pointed at and tracking the celestial body; aiming the laser beam toward a second platform located within a field of uncertainty (24A, 24B); scanning the field of uncertainty (24A, 24B) with the laser beam until the laser beam illuminates the second platform; establishing a laser communication link (26A, 26B) between the first platform and the second platform after determining the attitude of the first platform based, at least in part, on the ATS of the laser communication system pointed at and tracking the celestial body; and transferring data between the first platform and the second platform over the laser communication link (26A, 26B). pointing a laser beam of a laser communication system including an integrated Acquisition and Tracking Sensor towards a celestial body having a known location, wherein the laser communications beam is co-boresighted to the ATS carried by a first platform; determining attitude of the first platform based, at least in part, on the ATS of the laser communication system pointed at and tracking the celestial body; aiming the laser beam toward a second platform located within a field of uncertainty (24A, 24B); scanning the field of uncertainty (24A, 24B) with the laser beam until the laser beam illuminates the second platform; establishing a laser communication link (26A, 26B) between the first platform and the second platform after determining the attitude of the first platform based, at least in part, on the ATS of the laser communication system pointed at and tracking the celestial body; and transferring data between the first platform and the second platform over the laser communication link (26A, 26B).
A device for the in-vivo and/or in-vitro enrichment of target structures in a sample liquid, comprising at least one functional section which is equipped with receptors for enriching the target structures, characterized in that the functional section has a helical shape which is produced by screwing a symmetrical output cross-section about a screwing axis, the output cross-section being a concave polygon.
A method for controlling a peer to join a Peer-to-Peer, P2P, network, comprising: receiving a request for joining the P2P network from the peer; and refusing the peer to join the P2P network if determining that the peer is not allowed to join the P2P network according to history information of the peer joining the P2P network; wherein the step of refusing the peer to join the P2P network if determining that the peer is not allowed to join the P2P network according to the history information of the peer joining the P2P network comprises: judging whether the number of requests for joining the P2P network received from the peer within a specified period is higher than a preset first threshold, and, if so, refusing the peer to join the P2P network. receiving a request for joining the P2P network from the peer; and refusing the peer to join the P2P network if determining that the peer is not allowed to join the P2P network according to history information of the peer joining the P2P network; wherein the step of refusing the peer to join the P2P network if determining that the peer is not allowed to join the P2P network according to the history information of the peer joining the P2P network comprises: judging whether the number of requests for joining the P2P network received from the peer within a specified period is higher than a preset first threshold, and, if so, refusing the peer to join the P2P network. judging whether the number of requests for joining the P2P network received from the peer within a specified period is higher than a preset first threshold, and, if so, refusing the peer to join the P2P network.
A computer implemented method comprising: detecting, within an image, an object near a surface using electromagnetic radiation reflected by the object; determining whether the detected object is of a predetermined object type; and if it is determined that the detected object is of the predetermined object type, entering a position of the detected object to a computer application, characterized in that determining whether the detected object is of a predetermined object type uses a model including a geometric form that represents a set of training points in a multi-dimensional space, and the determining is based on a comparison of a projection of the detected object into the multi-dimensional space and the model. detecting, within an image, an object near a surface using electromagnetic radiation reflected by the object; determining whether the detected object is of a predetermined object type; and if it is determined that the detected object is of the predetermined object type, entering a position of the detected object to a computer application, characterized in that determining whether the detected object is of a predetermined object type uses a model including a geometric form that represents a set of training points in a multi-dimensional space, and the determining is based on a comparison of a projection of the detected object into the multi-dimensional space and the model.
A drive mechanism for a multi-function food processor with three drive outlets (4, 5, 8, 14) that can each be coupled separately to a food processing component, said drive mechanism comprising: a motor with a motor output shaft, wherein the motor output shaft comprises a first cone gear of a cone gear set and a worm; a first central drive shaft comprising a second cone gear of the cone gear set that meshes with the first cone gear of the motor output shaft, wherein the first central drive shaft is associated with the first drive outlet and the second drive outlet; a second central drive shaft comprising a worm gear (9, 15) that is driven by the worm of the motor output shaft, wherein the second central drive shaft is associated with the third drive outlet (8, 14); wherein the third drive outlet (8, 14) is associated with the second central drive shaft by way of a second gear reduction arrangement; and characterized in that the motor output shaft is disposed at one end of the motor and comprises a proximal end portion, a middle portion and a distal end portion; wherein the worm is provided on the middle portion of the motor output shaft and the first cone gear is provided on either the proximal or distal end portion (21, 23) of the motor output shaft; and wherein the second drive outlet is associated with the first central drive shaft by way of a first reduction gear arrangement, said arrangement comprising a first gear train that meshes with a sun gear sleeved on the first central drive shaft. a motor with a motor output shaft, wherein the motor output shaft comprises a first cone gear of a cone gear set and a worm; a first central drive shaft comprising a second cone gear of the cone gear set that meshes with the first cone gear of the motor output shaft, wherein the first central drive shaft is associated with the first drive outlet and the second drive outlet; a second central drive shaft comprising a worm gear (9, 15) that is driven by the worm of the motor output shaft, wherein the second central drive shaft is associated with the third drive outlet (8, 14); wherein the third drive outlet (8, 14) is associated with the second central drive shaft by way of a second gear reduction arrangement; and characterized in that the motor output shaft is disposed at one end of the motor and comprises a proximal end portion, a middle portion and a distal end portion; wherein the worm is provided on the middle portion of the motor output shaft and the first cone gear is provided on either the proximal or distal end portion (21, 23) of the motor output shaft; and wherein the second drive outlet is associated with the first central drive shaft by way of a first reduction gear arrangement, said arrangement comprising a first gear train that meshes with a sun gear sleeved on the first central drive shaft.