mhurhangee/ep-ind-claims huggingface dataset:
A compound selected from a pyrazole-based compound represented by the following Formula 1 and a pharmaceutically acceptable salt thereof for use in preventing, alleviating or treating a liver disease, wherein R is a C1-C10 linear or branched alkyl group, and wherein the liver disease is selected from non-alcoholic steatohepatitis (NASH) and cirrhosis.
A nozzle assembly for an injection molding system, comprising: a first opening in selective fluid communication with a source of molten polymeric resin; a second opening in fluid communication with at least one of a mold cavity, a gate, a runner, or a manifold of an injection molding system; a flow channel intermediate, and in fluid communication with, the first and second openings; and a porous metal insert in fluid communication with the flow channel, the porous metal insert being upstream of the at least one of a mold cavity, a gate, a runner, or a manifold of the injection molding system; characterized by the porous metal insert being in communication with a vent pathway that extends to an exterior of the nozzle; and a fluid source, the fluid source being in communication with an outlet of the vent pathway, the fluid source being provided to selectively blow pressurized fluid through the porous metal insert. a first opening in selective fluid communication with a source of molten polymeric resin; a second opening in fluid communication with at least one of a mold cavity, a gate, a runner, or a manifold of an injection molding system; a flow channel intermediate, and in fluid communication with, the first and second openings; and a porous metal insert in fluid communication with the flow channel, the porous metal insert being upstream of the at least one of a mold cavity, a gate, a runner, or a manifold of the injection molding system; characterized by the porous metal insert being in communication with a vent pathway that extends to an exterior of the nozzle; and a fluid source, the fluid source being in communication with an outlet of the vent pathway, the fluid source being provided to selectively blow pressurized fluid through the porous metal insert.
A method for carrying more than one type of traffic on a single physical link, the method comprising: logically partitioning traffic on a physical link of a network device (305, 310) into a plurality of virtual lanes; receiving first traffic into the physical link of a network device (305, 310), wherein the first traffic indicates a first virtual lane (320, 325) based on the first traffic indicating a protocol that recovers from dropping of the first traffic; receiving second traffic into the physical link of a network device (305, 310), wherein the second traffic indicates a second virtual lane (330, 335) based on the second traffic indicating a protocol that does not recover from dropping of the second traffic; applying a first set of rules to the first traffic indicating the first virtual lane (320, 325), wherein the first set of rules applies a probabilistic drop function to the first traffic in response to latency; and applying a second set of rules to the second traffic indicating the second virtual lane (330, 335), wherein the second set of rules does not cause frames from the second traffic to be dropped in response to latency. logically partitioning traffic on a physical link of a network device (305, 310) into a plurality of virtual lanes; receiving first traffic into the physical link of a network device (305, 310), wherein the first traffic indicates a first virtual lane (320, 325) based on the first traffic indicating a protocol that recovers from dropping of the first traffic; receiving second traffic into the physical link of a network device (305, 310), wherein the second traffic indicates a second virtual lane (330, 335) based on the second traffic indicating a protocol that does not recover from dropping of the second traffic; applying a first set of rules to the first traffic indicating the first virtual lane (320, 325), wherein the first set of rules applies a probabilistic drop function to the first traffic in response to latency; and applying a second set of rules to the second traffic indicating the second virtual lane (330, 335), wherein the second set of rules does not cause frames from the second traffic to be dropped in response to latency.
A device for putting material into a cell, formed within one solid and comprises: a first passage on which the cell passes; a second passage on which the material passes and connected to the first passage at a position randomly selected between both ends of the first passage; and an apparatus which applies pressure difference or electric potential difference between the first passage and the second passage.
A composition for a secondary battery porous membrane comprising: inorganic oxide particles X; a metal hydroxide Y; a binder; and water, wherein the metal hydroxide Y is a divalent or trivalent hydroxide, and the metal hydroxide Y is contained in an amount of at least 0.001 parts by mass and not more than 10 parts by mass per 100 parts by mass of the inorganic oxide particles X. inorganic oxide particles X; a metal hydroxide Y; a binder; and water, wherein the metal hydroxide Y is a divalent or trivalent hydroxide, and the metal hydroxide Y is contained in an amount of at least 0.001 parts by mass and not more than 10 parts by mass per 100 parts by mass of the inorganic oxide particles X.
Vibration generator for introducing a driving material into a soil by means of directional vibration, having - at least one vibration unit which has at least a first pair of rotatably supported first imbalance elements which are rotationally driven at a first rotational speed by means of a first rotary drive, - wherein the vibration unit has at least a second pair of rotatably supported second imbalance elements which are driven by a second rotary drive, - wherein, for the purpose of generating a directional vibration, the first imbalance elements are designed differently from the second imbalance elements, - wherein the second pair of second imbalance elements is rotationally driven by the second rotary drive at a second rotational speed which is different from the first rotational speed, and - wherein a control unit is provided, with which the rotational speeds of the two rotary drives (27, 37) can be electrically and/or hydraulically changed and matched with respect to each other, characterized in that - the first pair of first imbalance elements is mechanically and drivingly decoupled from the second pair of second imbalance elements, and - in that, for the purpose of passing through critical frequency ranges, the control unit is designed to carry out changes in rotational speed between the pairs of imbalance elements (22, 32). - at least one vibration unit which has at least a first pair of rotatably supported first imbalance elements which are rotationally driven at a first rotational speed by means of a first rotary drive, - wherein the vibration unit has at least a second pair of rotatably supported second imbalance elements which are driven by a second rotary drive, - wherein, for the purpose of generating a directional vibration, the first imbalance elements are designed differently from the second imbalance elements, - wherein the second pair of second imbalance elements is rotationally driven by the second rotary drive at a second rotational speed which is different from the first rotational speed, and - wherein a control unit is provided, with which the rotational speeds of the two rotary drives (27, 37) can be electrically and/or hydraulically changed and matched with respect to each other, characterized in that - the first pair of first imbalance elements is mechanically and drivingly decoupled from the second pair of second imbalance elements, and - in that, for the purpose of passing through critical frequency ranges, the control unit is designed to carry out changes in rotational speed between the pairs of imbalance elements (22, 32).
Bolt of a firearm with a bolt body displaceable along a longitudinal axis, a firing pin guided axially movably in the bolt body, a firing pin spring associated with the firing pin and a bolt sleeve arranged at the rear end of the bolt body, in which a sliding sleeve operable by a cocking slide is arranged for cocking and uncocking the firing pin spring, characterized in that the cocking slide contains a control cam for axial displacement of the sliding sleeve by a slide part which can be moved in a straight line in the direction of the longitudinal axis of the bolt body and projects rearwardly with respect to the bolt sleeve when the cocking slide is displaced between a lower uncocked position and an upper cocked position.
A mooring connector assembly comprising: a bracket arranged to be mounted to a structure to be moored; a tube pivotally mounted on the bracket for movement about a pivot axis, at least a part of the tube extending below the pivot axis when so mounted and oriented for use, and a stopper mounted to the part of the tube which extends below the pivot axis in use and operative to retain a mooring line relative to the tube, characterised in that the mooring connector assembly comprises a tensioner mountable on the tube for tensioning a mooring line retained by the stopper such that the tensioner urges the line at a point which is below the pivot axis when the tube is oriented for use. a bracket arranged to be mounted to a structure to be moored; a tube pivotally mounted on the bracket for movement about a pivot axis, at least a part of the tube extending below the pivot axis when so mounted and oriented for use, and a stopper mounted to the part of the tube which extends below the pivot axis in use and operative to retain a mooring line relative to the tube, characterised in that the mooring connector assembly comprises a tensioner mountable on the tube for tensioning a mooring line retained by the stopper such that the tensioner urges the line at a point which is below the pivot axis when the tube is oriented for use.
A method comprising: accessing one or more transmit queues, each corresponding to a mobile station wirelessly connected to a given wireless mesh access point of a plurality of mesh access points; selecting a first mesh access point of the plurality of mesh access points; selecting a transmit queue corresponding to a first mobile station wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the selected first mobile station up to a first size limit for mobile stations and a second size limit for aggregation packets; if the first size limit is met and if the second size limit is not met, selecting a second mobile station that is wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the second mobile station up to the first size limit and the second size limit; and composing an aggregation packet including aggregated packets and transmitting the aggregated packet to the selected first mesh access point. accessing one or more transmit queues, each corresponding to a mobile station wirelessly connected to a given wireless mesh access point of a plurality of mesh access points; selecting a first mesh access point of the plurality of mesh access points; selecting a transmit queue corresponding to a first mobile station wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the selected first mobile station up to a first size limit for mobile stations and a second size limit for aggregation packets; if the first size limit is met and if the second size limit is not met, selecting a second mobile station that is wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the second mobile station up to the first size limit and the second size limit; and composing an aggregation packet including aggregated packets and transmitting the aggregated packet to the selected first mesh access point. selecting a first mesh access point of the plurality of mesh access points; selecting a transmit queue corresponding to a first mobile station wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the selected first mobile station up to a first size limit for mobile stations and a second size limit for aggregation packets; if the first size limit is met and if the second size limit is not met, selecting a second mobile station that is wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the second mobile station up to the first size limit and the second size limit; and selecting a second mobile station that is wirelessly connected to the selected first mesh access point; aggregating (506, 508, 510) packets that are destined for the second mobile station up to the first size limit and the second size limit; and composing an aggregation packet including aggregated packets and transmitting the aggregated packet to the selected first mesh access point.
A sealing assembly for a truck, the truck comprising a cabin movable relatively to a truck frame, the sealing assembly being configured for sealing a gap between the cabin and a bodywork element fixed relatively to the truck frame, characterised in that the sealing assembly comprises: - a support member configured to be attached to the cabin, the support member comprising: -- a first abutment member, -- a second abutment member, - a bracket comprising: -- a first flange movable between the first abutment member and the second abutment member, -- a second flange, -- a sealing member linking the first flange and the second flange, - an elastic member disposed between the first flange of the bracket and the first abutment member of the support member and configured for biasing the first flange in direction of the second abutment member, in which the second flange is configured for contacting the frame-fixed bodywork element, so that a sealed junction between the support member and the bodywork element is formed. - a support member configured to be attached to the cabin, the support member comprising: -- a first abutment member, -- a second abutment member, -- a first abutment member, -- a second abutment member, - a bracket comprising: -- a first flange movable between the first abutment member and the second abutment member, -- a second flange, -- a sealing member linking the first flange and the second flange, -- a first flange movable between the first abutment member and the second abutment member, -- a second flange, -- a sealing member linking the first flange and the second flange, - an elastic member disposed between the first flange of the bracket and the first abutment member of the support member and configured for biasing the first flange in direction of the second abutment member,
A power receiving apparatus, comprising: a first receiving coil at a first location on a cart; a second receiving coil at a second location different from the first location on the cart; a receiving circuit configured to generate DC power from power received by the first receiving coil and the second receiving coil; a switching circuit configured to selectively connect one of the first receiving coil or the second receiving coil to the receiving circuit; and a shorting circuit (46R, 46L) configured to disable the one of the first receiving coil and the second receiving coil not connected to the receiving circuit by the switching circuit; characterized in that the first location on the cart is adjacent to a first caster of the cart and substantially perpendicular to the floor surface, and the second location is adjacent to a second caster of the cart and substantially perpendicular to the floor surface, the first and second casters being at back side portion of the cart. a first receiving coil at a first location on a cart; a second receiving coil at a second location different from the first location on the cart; a receiving circuit configured to generate DC power from power received by the first receiving coil and the second receiving coil; a switching circuit configured to selectively connect one of the first receiving coil or the second receiving coil to the receiving circuit; and a shorting circuit (46R, 46L) configured to disable the one of the first receiving coil and the second receiving coil not connected to the receiving circuit by the switching circuit; characterized in that the first location on the cart is adjacent to a first caster of the cart and substantially perpendicular to the floor surface, and the second location is adjacent to a second caster of the cart and substantially perpendicular to the floor surface, the first and second casters being at back side portion of the cart.
A method for reporting beam reception failure comprising: obtaining an identifier of a secondary cell where a beam reception fails; selecting one beam other than the beam which is failed as a candidate beam in the secondary cell where the beam reception fails; and encapsulating the identifier of the secondary cell where the beam reception fails and an identifier of the candidate beam into a Media Access Control control element, and transmitting the MAC control element using a resource of one cell other than the secondary cell where the beam reception fails, wherein the cell other than the secondary cell where the beam reception fails comprises: a primary cell, a primary secondary cell, or other secondary cells where no beam reception fails. obtaining an identifier of a secondary cell where a beam reception fails; selecting one beam other than the beam which is failed as a candidate beam in the secondary cell where the beam reception fails; and encapsulating the identifier of the secondary cell where the beam reception fails and an identifier of the candidate beam into a Media Access Control control element, and transmitting the MAC control element using a resource of one cell other
A camera unit, comprising: an image sensor; and two or more actuators (228;810) configured to perform optical image stabilization; the camera unit comprising a lens barrel comprising and supporting one or more lenses and a bottom element; the two or more actuators (228;810) being configured to perform the optical image stabilization by tilting the lens barrel with relation to the image sensor; and a variable prism sandwiched between and in contact with the bottom element and the image sensor. an image sensor; and two or more actuators (228;810) configured to perform optical image stabilization; the camera unit comprising a lens barrel comprising and supporting one or more lenses and a bottom element; the two or more actuators (228;810) being configured to perform the optical image stabilization by tilting the lens barrel with relation to the image sensor; and a variable prism sandwiched between and in contact with the bottom element and the image sensor.
Strain sensor, including an elongated protective encasing surrounding an inner space, and an optical fiber extending through the encasing, the fiber at least including a fiber core, a fiber cladding and a coating, wherein a cured filler material fills at least part of a space between the fiber and the protective encasing, the cured filler material being configured for allowing strain coupling between the protective encasing and the fiber, characterised in that an outer diameter of the fiber is at least 250 μm, a maximum transversal distance between an inner side of the protective encasing and an outer side of the fiber is in the range of 40 μm to 200 μm and the cured filler material is one or more of: a flexible material, a resilient material, and a material having a shore A hardness that is lower than 50, for example a shore A hardness in the range of 5 to 40, for example the range of between 10 and 30.
Turbomachine vane comprising a plurality of vane sections stacked along a radial axis (Z-Z), with each vane section extending along a longitudinal axis (X-X) between a leading edge and a trailing edge, and according to a tangential axis (Y-Y) between a pressure surface and a suction surface, with the vane sections being distributed according to longitudinal Xg and tangential Yg distribution laws defining the positioning of the respective centres of gravity thereof with respect to said longitudinal (X-X) and tangential (Y-Y) axes according to the height of the vane extending from the foot of the vane to the top thereof, characterised in that, in a top section of the vane located between 90 and 100% of the height of the vane - there is a first height (Hx) starting from which the longitudinal Xg distribution law carries out a return towards the leading edge of the vane, - there is a second height (Hy) starting from which the tangential Yg distribution law carries out a return towards the suction surface of the vane. - there is a first height (Hx) starting from which the longitudinal Xg distribution law carries out a return towards the leading edge of the vane, - there is a second height (Hy) starting from which the tangential Yg distribution law carries out a return towards the suction surface of the vane.
A teleoperated surgical system comprising: a first robotic surgical instrument (26, 520); an image capture device (28, 528) orientable toward a surgical site for capturing images of anatomical tissue and of first robotic surgical instrument (26, 520); a user display (32, 34, 60) coupled to the image capture device (28, 528) so as to show to a user, the captured images of the anatomical tissue and of the first robotic surgical instrument (26, 520); a user input command device (36, 38) coupled to receive user input commands to control movement of the first robotic surgical instrument (26, 520); and a movement controller coupled to receive the user input commands from the input command device (36, 38) and configured to control movement of the first robotic surgical instrument (26, 520) in response to the user input commands and to adjust a rate of movement of the first robotic surgical instrument (26, 520), characterized in that the rate of movement of the first robotic surgical instrument is based at least in part upon a surgical skill level at using the first robotic surgical instrument (26, 520) of the user providing the received user input commands, based on a rate of movement of the user input command device (36, 38) during the user input commands. a first robotic surgical instrument (26, 520); an image capture device (28, 528) orientable toward a surgical site for capturing images of anatomical tissue and of first robotic surgical instrument (26, 520); a user display (32, 34, 60) coupled to the image capture device (28, 528) so as to show to a user, the captured images of the anatomical tissue and of the first robotic surgical instrument (26, 520); a user input command device (36, 38) coupled to receive user input commands to control movement of the first robotic surgical instrument (26, 520); and a movement controller coupled to receive the user input commands from the input command device (36, 38) and configured to control movement of the first robotic surgical instrument (26, 520) in response to the user input commands and to adjust a rate of movement of the first robotic surgical instrument (26, 520), characterized in that the rate of movement of the first robotic surgical instrument is based at least in part upon a surgical skill level at using the first robotic surgical instrument (26, 520) of the user providing the received user input commands, based on a rate of movement of the user input command device (36, 38) during the user input commands.