mhurhangee/ep-ind-claims huggingface dataset:
A hollow fiber membrane module comprising: a plurality of hollow fiber membranes; a binding portion binding the plurality of hollow fiber membranes at one end portions thereof; a cap having an internal space that communicates with each of the plurality of hollow fiber membranes, the cap being integrated with the binding portion, the hollow fiber membrane module further comprises a housing that houses the plurality of hollow fiber membranes and the binding portion, and that has one end portion to which the cap is attached, a unit including the plurality of hollow fiber membranes, the binding portion, and the cap which is detachable from the housing, and the unit is suitable to be attached to the housing while integration of the binding portion and the cap is maintained, and characterized in that the cap comprises a sleeve that extends along a longitudinal direction of the hollow fiber membranes, and that surrounds the binding portion in a circumferential direction, and in that the sleeve is joined to the binding portion, and the sleeve is wedge-shaped on a cross-section parallel to the longitudinal direction of the hollow fiber membranes. a plurality of hollow fiber membranes; a binding portion binding the plurality of hollow fiber membranes at one end portions thereof; a cap having an internal space that communicates with each of the plurality of hollow fiber membranes, the cap being integrated with the binding portion, the hollow fiber membrane module further comprises a housing that houses the plurality of hollow fiber membranes and the binding portion, and that has one end portion to which the cap is attached, a unit including the plurality of hollow fiber membranes, the binding portion, and the cap which is detachable from the housing, and the unit is suitable to be attached to the housing while integration of the binding portion and the cap is maintained, and characterized in that the cap comprises a sleeve that extends along a longitudinal direction of the hollow fiber membranes, and that surrounds the binding portion in a circumferential direction, and in that the sleeve is joined to the binding portion, and the sleeve is wedge-shaped on a cross-section parallel to the longitudinal direction of the hollow fiber membranes.
A method for use in locating at least one device (240, 250) operably coupled to the Internet and having an Internet Protocol, IP, address, the method comprising: obtaining a first estimated geographic location of the at least one device (240, 250), the first estimated geographic location based on the IP address of the at least one device (240, 250); measuring, from each sensor in a plurality of sensors operably coupled to the Internet, a latency distribution associated with transmissions to, or to and from, the at least one device (240, 250), each sensor in the plurality of sensors being at a different geographic location; computing, for each sensor in the plurality of sensors, a latency from the latency distribution measured from said each sensor using a technique that reduces or eliminates outliers; selecting a shortest latency from among the computed latencies; identifying a particular sensor, from the plurality of sensors, that corresponds to the selected shortest latency; estimating a maximum possible geographic distance from the particular sensor to the at least one device (240, 250) based at least in part on the selected shortest latency corresponding to the particular sensor; determining if the first estimated geographic location of the at least one device (240, 250) is within the estimated maximum possible geographic distance from the particular sensor; and responsive to determining that the first estimated geographic location of the at least one device (240, 250) is not within the estimated maximum possible geographic distance from the particular sensor, discarding the first estimated geographic location as implausible. obtaining a first estimated geographic location of the at least one device (240, 250), the first estimated geographic location based on the IP address of the at least one device (240, 250); measuring, from each sensor in a plurality of sensors operably coupled to the Internet, a latency distribution associated with transmissions to, or to and from, the at least one device (240, 250), each sensor in the plurality of sensors being at a different geographic location; computing, for each sensor in the plurality of sensors, a latency from the latency distribution measured from said each sensor using a technique that reduces or eliminates outliers; selecting a shortest latency from among the computed latencies; identifying a particular sensor, from the plurality of sensors, that corresponds to the selected shortest latency; estimating a maximum possible geographic distance from the particular sensor to the at least one device (240, 250) based at least in part on the selected shortest latency corresponding to the particular sensor; determining if the first estimated geographic location of the at least one device (240, 250) is within the estimated maximum possible geographic distance from the particular sensor; and responsive to determining that the first estimated geographic location of the at least one device (240, 250) is not within the estimated maximum possible geographic distance from the particular sensor, discarding the first estimated geographic location as implausible.
A photosensitive resin composition for a flexographic printing original plate, characterized in that, the composition contains hydrophobic polymers obtained from at least two kinds of water-dispersible latexes, a rubber for imparting rubber elasticity to the photosensitive resin composition, a photopolymerizable compound and a photopolymerization initiator and that the ratio by mass of the component to the total mass of the component and the component is within a range of 1 to 7%.
A channel quality signaling method between a base station and user equipment in a telecommunication system, where the base station and the user equipment communicate with each other using a set of given resources, the method comprising: measuring, in user equipment, a quality parameter from the signal received from the base station; determining, in the user equipment, a channel quality indication report comprising an identification of physical connection parameters comprising modulation and encoding scheme with which connection quality criteria of block error probability or block error rate may be fulfilled, connection information pre-determined or signaled between the base station and the user equipment and stored in the user equipment comprising the resources to which the channel quality signaling relates, transmission parameters the user equipment supports, and reference information regarding transmission power used by the base station; and transmitting the determined identification of physical connection parameters from the user equipment to the base station. measuring, in user equipment, a quality parameter from the signal received from the base station; determining, in the user equipment, a channel quality indication report comprising an identification of physical connection parameters comprising modulation and encoding scheme with which connection quality criteria of block error probability or block error rate may be fulfilled, connection information pre-determined or signaled between the base station and the user equipment and stored in the user equipment comprising the resources to which the channel quality signaling relates, transmission parameters the user equipment supports, and reference information regarding transmission power used by the base station; and transmitting the determined identification of physical connection parameters from the user equipment to the base station.
A liquefied natural gas regasification plant, comprising: - at least one pump (A1, A2) boosting LNG pressure; - a LNG/coolant heat exchanger producing NG from LNG being flowed from the at least one boosting pump; - a closed coolant loop extending through the LNG/coolant heat exchanger and including at least one first heat exchanger (G1, G2), a coolant from the respective heat exchanger being passed through the LNG/coolant heat exchanger as a gas and leaving in a condensed state as to produce NG by thermal exchange; and - a heating medium being used within the at least one first heat exchanger (G1, G2) as to provide coolant in a gaseous state, - a NG/coolant heat exchanger arranged in connection with the LNG/coolant heat exchanger whereby LNG is preheated within the LNG/coolant heat exchanger and NG is trim heated within the NG/coolant heat exchanger, characterized in that the heating medium is being used with a second heat exchanger being part of the closed coolant loop as to provide heated liquid coolant, the closed coolant loop extending through the NG/coolant heat exchanger, and the NG/coolant heat exchanger using liquid coolant from the second heat exchanger. - at least one pump (A1, A2) boosting LNG pressure; - a LNG/coolant heat exchanger producing NG from LNG being flowed from the at least one boosting pump; - a closed coolant loop extending through the LNG/coolant heat exchanger and including at least one first heat exchanger (G1, G2), a coolant from the respective heat exchanger being passed through the LNG/coolant heat exchanger as a gas and leaving in a condensed state as to produce NG by thermal exchange; and - a heating medium being used within the at least one first heat exchanger (G1, G2) as to provide coolant in a gaseous state, - a NG/coolant heat exchanger arranged in connection with the LNG/coolant heat exchanger whereby LNG is preheated within the LNG/coolant heat exchanger and NG is trim heated within the NG/coolant heat exchanger,
A compression release assembly comprising: a camshaft (1060, 1061, 1062, 10600, 20600) rotatable about a camshaft axis and including a camshaft lobe (1070, 20700); a trigger (1000, 10000) rotatably mounted on the camshaft (1060, 1061, 1062, 10600, 20600) about a trigger axis, the trigger axis being substantially perpendicular to the camshaft axis and intersecting the trigger (1000, 10000) between first and second distal ends of the trigger (1000, 10000), the trigger (1000, 10000) including a compression release lobe (1030, 10300, 20300) formed at the first distal end of the trigger (1000, 10000) proximate to the camshaft lobe (1070, 20700); and a counterweight (1020, 10200, 20200) formed at the second distal end of the trigger (1000, 10000), the trigger (1000, 10000) being L-shaped and positioning the first and second distal ends on a same side of the camshaft axis; and a spring (1040, 20400) positioned between the camshaft (1060, 1061, 1062, 10600, 20600) and the trigger (1000, 10000), the spring (1040, 20400) tending to rotate the trigger (1000, 10000) about the trigger axis toward an engagement position, wherein the spring (1040, 20400) has a spring axis substantially perpendicular to the camshaft axis, and wherein the spring (1040, 20400) comprises a compression spring, wherein when the camshaft (1060, 1061, 1062, 10600, 20600) is rotating at or above a sufficient velocity, centripetal forces acting on the counterweight (1020, 10200, 20200) overcome spring biasing such that the trigger (1000, 10000) rotates from the engagement position to a disengagement position. a camshaft (1060, 1061, 1062, 10600, 20600) rotatable about a camshaft axis and including a camshaft lobe (1070, 20700); a trigger (1000, 10000) rotatably mounted on the camshaft (1060, 1061, 1062, 10600, 20600) about a trigger axis, the trigger axis being substantially perpendicular to the camshaft axis and intersecting the trigger (1000, 10000) between first and second distal ends of the trigger (1000, 10000), the trigger (1000, 10000) including a compression release lobe (1030, 10300, 20300) formed at the first distal end of the trigger (1000, 10000) proximate to the camshaft lobe (1070, 20700); and a counterweight (1020, 10200, 20200) formed at the second distal end of the trigger (1000, 10000), the trigger (1000, 10000) being L-shaped and positioning the first and second distal ends on a same side of the camshaft axis; and a spring (1040, 20400) positioned between the camshaft (1060, 1061, 1062, 10600, 20600) and the trigger (1000, 10000), the spring (1040, 20400) tending to rotate the trigger (1000, 10000) about the trigger axis toward an engagement position, wherein the spring (1040, 20400) has a spring axis substantially perpendicular to the camshaft axis, and wherein the spring (1040, 20400) comprises a compression spring, wherein when the camshaft (1060, 1061, 1062, 10600, 20600) is rotating at or above a sufficient velocity, centripetal forces acting on the counterweight (1020, 10200, 20200) overcome spring biasing such that the trigger (1000, 10000) rotates from the engagement position to a disengagement position.
Fastening Clip for a fastening system for fastening a component to a component carrier, where a stud protrudes from a surface of the component carrier, comprising - a base body forming a stud receptacle that defines a longitudinal axis and is designed so that the fastening clip can be pushed onto the stud, - at least one radially elastic locking finger connected to the base body and protruding into the stud receptacle, wherein the locking finger has a locking feature designed to engage with a locking contour of the stud to secure the fastening clip to the component carrier, and - at least one component receptacle in which at least a component portion of a component to be fastened can be received, wherein the component receptacle has a radial groove defining an axial groove width, characterized in that the fastening clip is designed so that the axial groove width in an elastically undeformed state of the fastening clip is greater than when a stud is received in the stud receptacle. - a base body forming a stud receptacle that defines a longitudinal axis and is designed so that the fastening clip can be pushed onto the stud, - at least one radially elastic locking finger connected to the base body and protruding into the stud receptacle, wherein the locking finger has a locking feature designed to engage with a locking contour of the stud to secure the fastening clip to the component carrier, and - at least one component receptacle in which at least a component portion of a component to be fastened can be received, wherein the component receptacle has a radial groove defining an axial groove width,
Vehicle-seat structure for a vehicle seat, having a structural component which has an automatic belt mechanism, wherein the automatic belt mechanism is arranged in a cavity of the structural component, and the structural component is connected in a form-fitting and/or materially bonded and/or force-fitting manner to at least one further component of the vehicle-seat structure, wherein the vehicle-seat structure has a seat substructure, wherein the structural component having the automatic belt mechanism forms a component of the seat substructure, characterized in that the structural component having the automatic belt mechanism forms a seat-frame side part of the seat substructure.
A method for identifying a change of status of a session management function of a network, the method comprising: detecting or receiving, at a network resource function, an indication of a change in the status of the session management function; changing, at the network resource function, an attribute associated with the session management function, wherein the attribute associated with the session management function is an NFStatus attribute of a profile of the session management function is changed to SUSPENDED; and notifying, by the network resource function, a subscribed network function of the change in the status of the session management function, wherein the subscribed network function is an Access and Mobility Management Function or Policy Control Function. detecting or receiving, at a network resource function, an indication of a change in the status of the session management function; changing, at the network resource function, an attribute associated with the session management function, wherein the attribute associated with the session management function is an NFStatus attribute of a profile of the session management function is changed to SUSPENDED; and notifying, by the network resource function, a subscribed network function of the change in the status of the session management function, wherein the subscribed network function is an Access and Mobility Management Function or Policy Control Function.
A reverse osmosis filter module comprising: a tube which includes an opening that is configured to accommodate a permeable liquid in a longitudinal direction; one or more reverse osmosis membranes which extends outward from the tube and are wound around the tube; and a feed spacer which is in contact with the one or more reverse osmosis membranes and wound around the tube, wherein the feed spacer is configured such that a first set of parallel filaments and a second set of parallel filaments intersect, and one or more of the first set of filaments or one or more of the second set of filaments have an asymmetric diameter formed as partial regions of outer surfaces of the filaments protruding outwardly in an intersection in which the first set of filaments and the second set of filaments intersect, characterized in that only the outer portion of the filament partially protrudes outward, but a portion of the filament, which is opposite to the protruding portion, is maintained as it is, and as a result, it is possible to implement an asymmetric cross-sectional shape of the filaments while increasing the cross-sectional area of a flow path. a tube which includes an opening that is configured to accommodate a permeable liquid in a longitudinal direction; one or more reverse osmosis membranes which extends outward from the tube and are wound around the tube; and a feed spacer which is in contact with the one or more reverse osmosis membranes and wound around the tube, wherein the feed spacer is configured such that a first set of parallel filaments and a second set of parallel filaments intersect, and one or more of the first set of filaments or one or more of the second set of filaments have an asymmetric diameter formed as partial regions of outer surfaces of the filaments protruding outwardly in an intersection in which the first set of filaments and the second set of filaments intersect, characterized in that only the outer portion of the filament partially protrudes outward, but a portion of the filament, which is opposite to the protruding portion, is maintained as it is, and as a result, it is possible to implement an asymmetric cross-sectional shape of the filaments while increasing the cross-sectional area of a flow path.
An exhaust system for an internal combustion engine, the exhaust system comprising: - a first exhaust conduit leading from a first exhaust bank of the internal combustion engine to a first turbocharger turbine inlet (15, 115) arranged downstream of the first exhaust bank in the direction of travel of a first exhaust stream; - a second exhaust conduit leading from a second exhaust bank of the internal combustion engine to a second turbocharger turbine inlet (17, 217) arranged downstream of the second exhaust bank in the direction of travel of a second exhaust stream; - an SCR catalyst arranged downstream of the first turbocharger turbine inlet and/or second turbocharger turbine inlet; characterised by that the exhaust system further comprises a reductant supply system comprising a distributor pipe and a reductant injector; wherein the distributor pipe is configured to fluidly connect the first exhaust conduit to the second exhaust conduit upstream of the first turbocharger turbine inlet (15, 115) and second turbocharger turbine inlet (17, 217), and the reductant injector is configured to supply a reductant to the distributor pipe, and wherein thermal insulation is arranged between a first end of the distributor pipe and the first exhaust conduit and between the second end of the distributor pipe and the second exhaust conduit. - a first exhaust conduit leading from a first exhaust bank of the internal combustion engine to a first turbocharger turbine inlet (15, 115) arranged downstream of the first exhaust bank in the direction of travel of a first exhaust stream; - a second exhaust conduit leading from a second exhaust bank of the internal combustion engine to a second turbocharger turbine inlet (17, 217) arranged downstream of the second exhaust bank in the direction of travel of a second exhaust stream; - an SCR catalyst arranged downstream of the first turbocharger turbine inlet and/or second turbocharger turbine inlet; characterised by that the exhaust system further comprises a reductant supply system comprising a distributor pipe and a reductant injector; wherein the distributor pipe is configured to fluidly connect the first exhaust conduit to the second exhaust conduit upstream of the first turbocharger turbine inlet (15, 115) and second turbocharger turbine inlet (17, 217), and the reductant injector is configured to supply a reductant to the distributor pipe, and wherein thermal insulation is arranged between a first end of the distributor pipe and the first exhaust conduit and between the second end of the distributor pipe and the second exhaust conduit.
Safety device against wrong operation for a connecting rod fitting of a window comprising a leaf pivotable against a frame, of a casement door or the like having a bolt arranged on a connecting rod of the connecting rod fitting and having a movable blocking element for holding the bolt when the leaf is away from the frame and for releasing the movement of the bolt when the leaf is in the frame, wherein the blocking element is connected with a protruding sensing device designed for determining the position of the leaf in the frame, characterized in that a balancing mechanism is arranged between the blocking element and the sensing device designed for enabling the movement of the sensing device with the blocking element away from the bolt, and in that the balancing mechanism comprises a control nose arranged on the blocking element or the sensing device and a control ramp arranged on the opposite part of the blocking element or of the sensing device, and in that a control path for the control nose is attached to the control ramp.