mhurhangee/patent-ind-claim-en huggingface dataset:
A service routing packet processing method, comprising: receiving (S101), by a first service router, SR, a first service routing packet; querying (S102), by the first SR, a service routing table according to path identification information and identification information of a source service node, SN, that are carried in the first service routing packet, to determine (S103) identification information of a destination SN, wherein the service routing table comprises a correspondence between the path identification information, the identification information of the source SN, and the identification information of the destination SN, and wherein the source SN is a previous SN of the first service routing packet, and the destination SN is a next SN of the first service routing packet; generating (S104), by the first SR, a second service routing packet according to the identification information of the destination SN and the first service routing packet; and sending (S105), by the first SR, the second service routing packet to the destination SN. receiving (S101), by a first service router, SR, a first service routing packet; querying (S102), by the first SR, a service routing table according to path identification information and identification information of a source service node, SN, that are carried in the first service routing packet, to determine (S103) identification information of a destination SN, wherein the service routing table comprises a correspondence between the path identification information, the identification information of the source SN, and the identification information of the destination SN, and wherein the source SN is a previous SN of the first service routing packet, and the destination SN is a next SN of the first service routing packet; generating (S104), by the first SR, a second service routing packet according to the identification information of the destination SN and the first service routing packet; and sending (S105), by the first SR, the second service routing packet to the destination SN.
A method of sizing a heat exchanger for a geared architecture gas turbine engine comprising sizing a minimum frontal area of at least one heat exchanger located in communication with a fan bypass airflow (W) such that a ratio of waste heat area to horsepower generation characteristic area is between 1.6 to 17.5, wherein the waste heat area is defined by the minimum frontal area of the heat exchanger , and the horsepower generation characteristic area is defined by an exit area of a high pressure compressor of the geared architecture gas turbine engine .
A method of forming a tubular structure including a first tube and a second tube comprising the steps of: successively depositing layers of a first material and at least partially melting at least a portion of each deposited layer of the first material at predetermined locations to form the first tube, wherein the first tube defines a first central axis; and successively depositing layers of a second material and at least partially melting at least a portion of each deposited layer of the second material at additional predetermined locations to form the second tube, wherein the second tube defines a second central axis transverse to the first central axis, the second tube being attached to the first tube at an intersection, wherein the at least partially melting steps include forming portions of a plurality of segments , the formed segments of the plurality of segments being attached to at least one other formed segment of the plurality of segments at vertices to define a plurality of open cells , the plurality of open cells forming a surface or surfaces of either one or both of the first tube and the second tube and the tubular structure thereby being reticulated in the form of a substantially uniform mesh, and wherein the first tube and the second tube share segments to create a smooth transition between the first tube and the second tube at the intersection. successively depositing layers of a first material and at least partially melting at least a portion of each deposited layer of the first material at predetermined locations to form the first tube, wherein the first tube defines a first central axis; and successively depositing layers of a second material and at least partially melting at least a portion of each deposited layer of the second material at additional predetermined locations to form the second tube, wherein the second tube defines a second central axis transverse to the first central axis, the second tube being attached to the first tube at an intersection, wherein the at least partially melting steps include forming portions of a plurality of segments , the formed segments of the plurality of segments being attached to at least one other formed segment of the plurality of segments at vertices to define a plurality of open cells , the plurality of open cells forming a surface or surfaces of either one or both of the first tube and the second tube and the tubular structure thereby being reticulated in the form of a substantially uniform mesh, and wherein the first tube and the second tube share segments to create a smooth transition between the first tube and the second tube at the intersection.
A direct injection spraying device for a machine, especially an agricultural machine, of the type comprising: - a main vessel (C), - at least one spray boom (R), - a circuit linking said vessel (C) to said boom (R), this circuit comprising a main pump (PP) and a bypass (d) for controlling the flow rate in said boom (R) as a function of the ground speed of said machine, - at least one tank of active material (m1, m2, m3), linked to said circuit by a dosing pump (P1, P2, P3), this device being characterised in that it comprises a cyclone mixer (M) comprising in a first part, preferably an upper part, a plurality of substantially tangential inlets (E1, E4), preferably offset by a quarter turn from each other, and able to respectively receive the liquid sucked from said vessel (C) and the pressurised liquid coming from said bypass (d), and a plurality of inlets (E2) for the pressurised liquids coming from said tanks of active materials (m1, m2, m3), said inlets (E2) being substantially perpendicular to an axis (A) of the cyclone mixer (M), and substantially protruding inwards, in order to penetrate at the heart of the incoming flow by the inlet (E1) receiving the liquid sucked from the vessel (C), and in a second part, preferably a lower part, an outlet (S) able to allow the mixture of these liquids to be drawn by said main pump (PP). - a main vessel (C), - at least one spray boom (R), - a circuit linking said vessel (C) to said boom (R), this circuit comprising a main pump (PP) and a bypass (d) for controlling the flow rate in said boom (R) as a function of the ground speed of said machine, - at least one tank of active material (m1, m2, m3), linked to said circuit by a dosing pump (P1, P2, P3),
A load indicator for use with a fall protection apparatus having a line and a connector for connecting to a user, the load indicator comprising: a housing having a pass-through opening and a covered indicator region , at least a portion of the housing configured for connecting to the line; a shear pin supported by the housing and extending across the pass-through opening ; and a saddle extending across at least a portion of the pass-through opening and supported by at least a portion of the shear pin , the saddle configured for connecting to at least a portion of the connector, wherein the saddle is movable relative to the housing between a first position and a second position when a force exceeding a predetermined threshold value is applied on the saddle causing the shear pin to shear or break, and wherein at least a portion of the indicator region is uncovered in the second position of the saddle when the shear pin shears or breaks. a housing having a pass-through opening and a covered indicator region , at least a portion of the housing configured for connecting to the line; a shear pin supported by the housing and extending across the pass-through opening ; and a saddle extending across at least a portion of the pass-through opening and supported by at least a portion of the shear pin , the saddle configured for connecting to at least a portion of the connector, wherein the saddle is movable relative to the housing between a first position and a second position when a force exceeding a predetermined threshold value is applied on the saddle causing the shear pin to shear or break, and wherein at least a portion of the indicator region is uncovered in the second position of the saddle when the shear pin shears or breaks.
A pre-container, expandable from a flat, folded configuration to an, in use, container for fluids, the pre-container comprising a first portion comprising a first side wall having at least two short ends and two long edges and an additional side wall , the additional side wall having at least two additional side wall ends and two additional side wall edges, wherein the additional side wall is hingedly attached along a first additional side wall edge to the first edge of the first side wall, said first hinged attachment having the form of a first hinged fold line, and hingedly attached along a second additional side wall edge to the second edge of the first side wall, said second hinged attachment having the form of a second hinged fold line, wherein opposed sides of the side walls are sealingly secured to one another to form a continuous circumference; the pre-container comprising a base portion which is sealingly fixed to a short end of each side wall; and wherein the pre-container further comprises two deformable regions which span across the first and second hinged fold lines between adjacent side walls, such that when pressure is applied to the deformable regions the pre-container is formable into a container having an hourglass shape, wherein in front view the bottom and the top of the container are wider than a middle portion of the container, wherein the middle portion defines a waist, wherein the middle portion comprises the deformable regions , wherein only one hinged fold line extends across each deformable region .
A flow sensor , comprising: a fluidic component, which comprises a tube shaped in the form of a loop defining a flow path having an inlet end and an outlet end, the inlet and outlet ends crossing and being positioned adjacent to one another, thereby providing sufficient thermal communication between the ends of the fluidic component to equilibrate in temperature and provide a common temperature; a heat source disposed in thermal communication with a fluid in the flow path for delivering heat to the fluid in the fluid path; an upstream temperature sensor disposed in thermal communication with the fluid in the flow path; a downstream temperature sensor disposed in thermal communication with the fluid in the flow path at a location downstream of the upstream temperature sensor; a substrate , in thermal communication with the inlet and outlet ends of the flow path, that provides a common ambient temperature for the inlet and outlet ends of the flow path; an isolation cover that surrounds the fluidic component, and is disposed in physical communication with the substrate ; and a thermally isolating material which is enclosed by the isolation cover , such that conductive, convective and radiant loss and/or absorption of heat via the surface of the fluidic component is minimised. a fluidic component, which comprises a tube shaped in the form of a loop defining a flow path having an inlet end and an outlet end, the inlet and outlet ends crossing and being positioned adjacent to one another, thereby providing sufficient thermal communication between the ends of the fluidic component to equilibrate in temperature and provide a common temperature; a heat source disposed in thermal communication with a fluid in the flow path for delivering heat to the fluid in the fluid path; an upstream temperature sensor disposed in thermal communication with the fluid in the flow path; a downstream temperature sensor disposed in thermal communication with the fluid in the flow path at a location downstream of the upstream temperature sensor; a substrate , in thermal communication with the inlet and outlet ends of the flow path, that provides a common ambient temperature for the inlet and outlet ends of the flow path; an isolation cover that surrounds the fluidic component, and is disposed in physical communication with the substrate ; and a thermally isolating material which is enclosed by the isolation cover , such that conductive, convective and radiant loss and/or absorption of heat via the surface of the fluidic component is minimised.
An electronic timepiece with a built-in antenna comprising: an exterior case ; a main plate disposed in the exterior case ; a ring-shaped antenna body disposed in the exterior case ; a reference surface that is formed on the main plate and positions the antenna body in a direction perpendicular to the main plate ; an urging member that engages with the antenna body to urge the antenna body in a direction perpendicular to the reference surface; characterized in that an engaging portion that is formed on the antenna body and engages with the urging member, and wherein a predetermined gap (G1) is formed in a normal state between the antenna body and a structure disposed on an opposite side of the antenna body to the reference surface. an exterior case ; a main plate disposed in the exterior case ; a ring-shaped antenna body disposed in the exterior case ; a reference surface that is formed on the main plate and positions the antenna body in a direction perpendicular to the main plate ; an urging member that engages with the antenna body to urge the antenna body in a direction perpendicular to the reference surface; characterized in that an engaging portion that is formed on the antenna body and engages with the urging member, and wherein a predetermined gap (G1) is formed in a normal state between the antenna body and a structure disposed on an opposite side of the antenna body to the reference surface.
A highly branched polyolefin, comprising: olefin derived units; wherein the highly branched polyolefin has: a) a branching index, g'(vis), of less than 0.9; b) a phase angle, δ, of less than 55 degrees at a complex modulus of 10 kPa, measured at 190°C; c) a gel content of less than or equal to 10%; d) a melting point of less than 135°C; and wherein the highly branched polyolefin is obtained by contacting one or more polyolefins, referred to as first polyolefin, with a free radical generator and a modifying polymer, the modifying polymer being dissimilar to the first polyolefin. olefin derived units; wherein the highly branched polyolefin has: a) a branching index, g'(vis), of less than 0.9; b) a phase angle, δ, of less than 55 degrees at a complex modulus of 10 kPa, measured at 190°C; c) a gel content of less than or equal to 10%; d) a melting point of less than 135°C; and a) a branching index, g'(vis), of less than 0.9; b) a phase angle, δ, of less than 55 degrees at a complex modulus of 10 kPa, measured at 190°C; c) a gel content of less than or equal to 10%; d) a melting point of less than 135°C; and wherein the highly branched polyolefin is obtained by contacting one or more polyolefins, referred to as first polyolefin, with a free radical generator and a modifying polymer, the modifying polymer being dissimilar to the first polyolefin.
A method for identifying and diagnosing errors in the implementation of adjustments made to a helicopter rotor associated with helicopter rotor vibrations, the method comprising: receiving, by a computer-based system comprising a processor and a tangible, non-transitory memory , an actual adjustment result based on measured vibrations after an actual adjustment to a helicopter rotor associated with helicopter rotor vibrations is performed; determining, by the computer-based system , a permutation of an available adjustment to the helicopter rotor associated with helicopter rotor vibrations; determining, by the computer-based system , an expected result for the permutation of available adjustment from a measured start point corresponding to a point prior to the actual adjustment being performed; determining, by the computer-based system , an error rate measured from the actual adjustment result as compared with the expected result for the permutation of available adjustments; identifying, by the computer-based system , the actual adjustment performed based on the error rate; and displaying by the computer based system , the actual adjustment performed. receiving, by a computer-based system comprising a processor and a tangible, non-transitory memory , an actual adjustment result based on measured vibrations after an actual adjustment to a helicopter rotor associated with helicopter rotor vibrations is performed; determining, by the computer-based system , a permutation of an available adjustment to the helicopter rotor associated with helicopter rotor vibrations; determining, by the computer-based system , an expected result for the permutation of available adjustment from a measured start point corresponding to a point prior to the actual adjustment being performed; determining, by the computer-based system , an error rate measured from the actual adjustment result as compared with the expected result for the permutation of available adjustments; identifying, by the computer-based system , the actual adjustment performed based on the error rate; and displaying by the computer based system , the actual adjustment performed.
An ejecting system for dispensing countermeasure boxes , comprising a container arranged to hold a multiple of stacked boxes , wherein a pushing actuator is arranged to push at one end of the stack of boxes in a first direction , wherein the system further comprises an ejecting mechanism comprising a driving actuator connected to a rotating member , the rotating member being arranged to engage with a box and on the side of the box most distant from the pushing actuator such that said box is moved in a second direction perpendicular to said first direction , and ejected.
A method for treating an aqueous fluid comprising contacting the aqueous fluid with a fluidized bed of coagulated and optionally flocculated powdered activated carbon and a separation of the aqueous fluid from the coagulated and optionally flocculated powdered activated carbon bed, said method of treating being characterized in that it comprises a step of managing the fluidized bed of coagulated and optionally flocculated powdered activated carbon, said management step comprising: (a) an extraction of a fraction of the coagulated and optionally flocculated powdered activated carbon fluidized bed in the form of sludge; (b) at least one separation of the sludge extracted from step (a) so as to obtain a fraction having an insoluble HCl index higher by at least 5 percentage points than that of the sludge before separation, said separation step (b) being carried out by means of at least one hydrocyclone; (c) a reinjection of said fraction obtained in step (b) into the coagulated and optionally flocculated powdered activated carbon fluidized bed, the powdered activated carbon having a mean diameter less than 100 μm. (a) an extraction of a fraction of the coagulated and optionally flocculated powdered activated carbon fluidized bed in the form of sludge; (b) at least one separation of the sludge extracted from step (a) so as to obtain a fraction having an insoluble HCl index higher by at least 5 percentage points than that of the sludge before separation, said separation step (b) being carried out by means of at least one hydrocyclone; (c) a reinjection of said fraction obtained in step (b) into the coagulated and optionally flocculated powdered activated carbon fluidized bed,
A treatment process for enhancing the hydrophilic properties of a soda-lime glass material, consisting of an ion bombardment where: - the ions of the ion beam are selected from the ions of the elements of the list consisting of nitrogen (N) and oxygen (O); - the acceleration voltage, AV, of the ions is greater than or equal to 5 kV and less than or equal to 1000 kV , in particular greater than or equal to 5 kV and less than or equal to 200 kV, indeed even greater than or equal to 10 kV and less than or equal to 100 kV; - the temperature of the soda-lime glass material is less than or equal to the glass transition temperature; - the dose of ions per unit of surface area is located within a range of between 10 12 ions/cm 2 and 10 18 ions/cm 2 , in particular of greater than or equal to 10 15 ions/cm 2 , indeed even of greater than or equal to 10 15 ions/cm 2 and less than or equal to 10 17 ions/cm 2 , characterized in that the glass material forms the subject of a pretreatment for lastingly strengthening the hydrophilic treatment of claim 1, consisting of an ion bombardment, where: - the ions of the ion beam are selected from the ions of the elements of the list consisting of argon (Ar), krypton (Kr) and xenon (Xe); - the acceleration voltage of the ions is greater than or equal to 5 kV and less than or equal to 1000 kV; - the temperature of the soda-lime glass material is less than or equal to the glass transition temperature; - the dose of ions per unit of surface area is chosen within a range of between 10 12 ions/cm 2 and 10 18 ions/cm 2 . - the ions of the ion beam are selected from the ions of the elements of the list consisting of nitrogen (N) and oxygen (O); - the acceleration voltage, AV, of the ions is greater than or equal to 5 kV and less than or equal to 1000 kV , in particular greater than or equal to 5 kV and less than or equal to 200 kV, indeed even greater than or equal to 10 kV and less than or equal to 100 kV; - the temperature of the soda-lime glass material is less than or equal to the glass transition temperature; - the dose of ions per unit of surface area is located within a range of between 10 12 ions/cm 2 and 10 18 ions/cm 2 , in particular of greater than or equal to 10 15 ions/cm 2 , indeed even of greater than or equal to 10 15 ions/cm 2 and less than or equal to 10 17 ions/cm 2 , - the ions of the ion beam are selected from the ions of the elements of the list consisting of argon (Ar), krypton (Kr) and xenon (Xe); - the acceleration voltage of the ions is greater than or equal to 5 kV and less than or equal to 1000 kV; - the temperature of the soda-lime glass material is less than or equal to the glass transition temperature; - the dose of ions per unit of surface area is chosen within a range of between 10 12 ions/cm 2 and 10 18 ions/cm 2 .