mhurhangee/ep-ind-claims huggingface dataset:
Method for supplying air to an engine of an aircraft at an air supply flow rate via an air supply system of the aircraft, said air supply system comprising a dynamic air intake vent that can be closed by a movable closure member, said movable closure member being movable between a closed position (POSF) in which the closure member closes said dynamic air intake vent and an open position (POSO) in which the closure member does not close said dynamic air intake vent, said air supply system comprising a static air intake vent equipped with a filtration device, said closure member being in the closed position during a filtered operating mode (MODF) during which air from an external environment situated outside the aircraft is filtered by the filtration device, characterized in that the filtration device has a filter medium, said method comprises, during flight, an unfiltered operating mode (MODO), said method comprising a step of detecting (STPA2) air pollution in said external environment, the implementation of the unfiltered operating mode (MODO) being a function at least on said air pollution in said external environment, the unfiltered operating mode (MODO) comprising the following steps: - positioning (STPD0) of said closure member in the open position (POSO), and - during a phase of forward travel of the aircraft, dynamic intake (STPD11) of an air flow as a result of said forward travel of the aircraft via the dynamic air intake vent at an air intake flow rate higher than a minimum flow rate necessary in order to obtain the air supply flow rate, then transfer (STPD12) of a first portion of said air flow to said engine and a second portion of said air flow to the filter medium, said second portion of said flow of air passing through the filter medium to return to the external environment in order to clean the filter medium. - positioning (STPD0) of said closure member in the open position (POSO), and - during a phase of forward travel of the aircraft, dynamic intake (STPD11) of an air flow as a result of said forward travel of the aircraft via the dynamic air intake vent at an air intake flow rate higher than a minimum flow rate necessary in order to obtain the air supply flow rate, then transfer (STPD12) of a first portion of said air flow to said engine and a second portion of said air flow to the filter medium, said second portion of said flow of air passing through the filter medium to return to the external environment in order to clean the filter medium.
A construction equipment, comprising at least one electric actuator (10.1, 10.2, 10.3; 10) including: - a rod, extending along a longitudinal axis; - a sliding member, movable along the rod; - an electric motor, for converting electrical power into a movement of the sliding member along the longitudinal axis; - guiding means (80; 82; 24; 12; 85) for guiding the movement of the sliding member along the longitudinal axis; characterized in that: - said electric actuator further includes a connecting rod, comprising a first end which is articulated on sliding member and a second end which is articulated on a first element (82; 87; 83; 3; 4) of the construction equipment, in order to move the first element relative to a second element (80; 82; 85) or inversely; and in that - at least the electric motor, the rod and the sliding member are integrated into said second element (80; 82; 85) of the construction equipment. - a rod, extending along a longitudinal axis; - a sliding member, movable along the rod; - an electric motor, for converting electrical power into a movement of the sliding member along the longitudinal axis; - guiding means (80; 82; 24; 12; 85) for guiding the movement of the sliding member along the longitudinal axis; - said electric actuator further includes a connecting rod, comprising a first end which is articulated on sliding member and a second end which is articulated on a first element (82; 87; 83; 3; 4) of the construction equipment, in order to move the first element relative to a second element (80; 82; 85) or inversely; and in that - at least the electric motor, the rod and the sliding member are integrated into said second element (80; 82; 85) of the construction equipment.
A method for resource allocation for Push to Talk, PTT, group communication in a network, the method being performed by a server node of a group communication system, the method comprising: receiving a first request from a client node for the client node to affiliate with a group of client nodes (160b, 160c) in order for the client node to join a group communication session of the group communication; requesting, from a Policy and Charging Rules Function, PCRF, node and in response to the first request, a first allocation of network resources to be used by the client node for floor control of the group communication session; receiving a second request for a group call from the client node; and requesting (S110a), from the PCRF node and upon reception of the second request, a second allocation of network resources to be used by the client node for media transmission in the group call. receiving a first request from a client node for the client node to affiliate with a group of client nodes (160b, 160c) in order for the client node to join a group communication session of the group communication; requesting, from a Policy and Charging Rules Function, PCRF, node and in response to the first request, a first allocation of network resources to be used by the client node for floor control of the group communication session; receiving a second request for a group call from the client node; and requesting (S110a), from the PCRF node and upon reception of the second request, a second allocation of network resources to be used by the client node for media transmission in the group call.
Process for the isothermal pyrolysis with autothermal partial gasification of carbon-containing starting materials, comprising the following process steps: a) mixing of heat exchange particles having an average temperature T2 and pyrolysis material, b) drying of the pyrolysis material, wherein heat exchange particles and pyrolysis material are cooling to an average pyrolysis temperature T1 which is less than T2, c) isothermal decomposition of the pyrolysis material to form solid, liquid and gaseous pyrolysis products (29, 34) and drawing-off of the gaseous pyrolysis product at the pyrolysis temperature T1 ± 20°C, where the heat exchange particles consist of hollow bodies made of a steel or a steel alloy and are filled with a filler and wherein the filler consists of zinc, lead or aluminium or an alloy based on zinc, lead or aluminium and undergoes a phase transformation at T1, d) partial oxidation of the liquid and solid pyrolysis products with regulated introduction of an oxidant, wherein heat exchange particles and liquid and solid pyrolysis products are heating up to an average temperature of greater than or equal to T2 and e) separation of the heat exchange particles from the liquid and solid pyrolysis products and recirculation of the heat exchange particles to mixing with pyrolysis material. a) mixing of heat exchange particles having an average temperature T2 and pyrolysis material, b) drying of the pyrolysis material, wherein heat exchange particles and pyrolysis material are cooling to an average pyrolysis temperature T1 which is less than T2, c) isothermal decomposition of the pyrolysis material to form solid, liquid and gaseous pyrolysis products (29, 34) and drawing-off of the gaseous pyrolysis product at the pyrolysis temperature T1 ± 20°C, where the heat exchange particles consist of hollow bodies made of a steel or a steel alloy and are filled with a filler and wherein the filler consists of zinc, lead or aluminium or an alloy based on zinc, lead or aluminium and undergoes a phase transformation at T1, d) partial oxidation of the liquid and solid pyrolysis products with regulated introduction of an oxidant, wherein heat exchange particles and liquid and solid pyrolysis products are heating up to an average temperature of greater than or equal to T2 and e) separation of the heat exchange particles from the liquid and solid pyrolysis products and recirculation of the heat exchange particles to mixing with pyrolysis material.
An ion exchange membrane electrolytic cell comprising: an anode chamber accommodating an anode and an anode current collector; a cathode chamber accommodating a hydrogen-generating cathode and a cathode current collector; an ion exchange membrane dividing the electrolytic cell into the anode chamber and the cathode chamber; and an elastic cushion formed by winding a metal coil around a corrosion-resistant frame, sandwiched between the anode and the anode current collector or between the hydrogen-generating cathode and the cathode current collector. an anode chamber accommodating an anode and an anode current collector; a cathode chamber accommodating a hydrogen-generating cathode and a cathode current collector; an ion exchange membrane dividing the electrolytic cell into the anode chamber and the cathode chamber; and an elastic cushion formed by winding a metal coil around a corrosion-resistant frame, sandwiched between the anode and the anode current collector or between the hydrogen-generating cathode and the cathode current collector.
A method of measuring the mass thickness of a target sample for use in electron microscopy, comprising: a. Obtaining reference data representative of the X-rays generated within a reference sample when a particle beam having a first set of beam conditions is caused to impinge upon a region of the reference sample, wherein in the region the reference sample has a predetermined thickness between its external surfaces of less than 300 nm and a predetermined mass thickness for at least one element and wherein the region of the reference sample has a uniform thickness and forms part of a self-supporting thin film; b. Causing a particle beam having a second set of beam conditions to impinge upon a region of the target sample, comprising replacing one of the reference sample and the target sample with the other under the particle beam such that the beam current of the first set of beam conditions is identical to the beam current of the second set of beam conditions; c. Monitoring the resulting X-rays generated within the target sample so as to produce monitored data; d. Calculating output data including the mass thickness of the region of the target sample, based upon the monitored data and the reference data. a. Obtaining reference data representative of the X-rays generated within a reference sample when a particle beam having a first set of beam conditions is caused to impinge upon a region of the reference sample, wherein in the region the reference sample has a predetermined thickness between its external surfaces of less than 300 nm and a predetermined mass thickness for at least one element and wherein the region of the reference sample has a uniform thickness and forms part of a self-supporting thin film; b. Causing a particle beam having a second set of beam conditions to impinge upon a region of the target sample, comprising replacing one of the reference sample and the target sample with the other under the particle beam such that the beam current of the first set of beam conditions is identical to the beam current of the second set of beam conditions; c. Monitoring the resulting X-rays generated within the target sample so as to produce monitored data; d. Calculating output data including the mass thickness of the region of the target sample, based upon the monitored data and the reference data.
A mixing unit (1, 1a, 1b, 1c, 1d, 1e, 1f) comprising: a stacked member (2, 2a, 2b, 2c, 2d) in which a plurality of mixing elements (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) are stacked; and wherein the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) includes a plurality of first through holes, and wherein the mixing elements (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) are arranged such that part or all of the first through holes in one of the mixing elements (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) communicate with a first through hole in an adjacent mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) to allow fluid to be passed in a direction in which the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) extends, characterized in that the first through hole in the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) overlaps the first through hole in the adjacent mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) such that the fluid is unevenly divided in the direction in which the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) extends. a stacked member (2, 2a, 2b, 2c, 2d) in which a plurality of mixing elements (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) are stacked; and wherein the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) includes a plurality of first through holes, and wherein the mixing elements (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) are arranged such that part or all of the first through holes in one of the mixing elements (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) communicate with a first through hole in an adjacent mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) to allow fluid to be passed in a direction in which the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) extends, characterized in that the first through hole in the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) overlaps the first through hole in the adjacent mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) such that the fluid is unevenly divided in the direction in which the mixing element (21, 21a, 21b, 21c, 21d, 21e, 21f, 21g, 21h) extends.
A method for producing a filter element, - at least one of the sub-components to be connected to one another being formed from a radiation-permeable material and being at least partially radiated through by means of radiation, - at least one electrically conductive, thermoplastic intermediate layer (22, 22') being arranged between the sub-components to be connected to one another, and - melting of the material being achieved by absorption of the radiation at least in the respective intermediate layer (22, 22'), and the respective sub-components being securely connected to one another after cooling of the material, - characterised in that the respective intermediate layer is arranged protruding into an adjacent installation space for a further electrically conductive sub-component, and - that after the insertion of the further sub-component into the installation space, the respective intermediate layer lies against said further sub-component in an electrically contacting manner. - at least one of the sub-components to be connected to one another being formed from a radiation-permeable material and being at least partially radiated through by means of radiation, - at least one electrically conductive, thermoplastic intermediate layer (22, 22') being arranged between the sub-components to be connected to one another, and - melting of the material being achieved by absorption of the radiation at least in the respective intermediate layer (22, 22'), and the respective sub-components being securely connected to one another after cooling of the material, - characterised in that the respective intermediate layer is arranged protruding into an adjacent installation space for a further electrically conductive sub-component, and - that after the insertion of the further sub-component into the installation space, the respective intermediate layer lies against said further sub-component in an electrically contacting manner.
A lithium electrode comprising: a lithium metal; and a protective layer on at least one surface of the lithium metal, wherein the protective layer comprises a copolymer containing an acetal and a fluorine-based material. a lithium metal; and a protective layer on at least one surface of the lithium metal, wherein the protective layer comprises a copolymer containing an acetal and a fluorine-based material.
A material pushing machine, comprising: a walking device comprising a holding assembly, a power supply assembly, two walking drive motors, two drive wheels, and a supporting wheel, wherein the holding assembly comprises a base plate, the power supply assembly is arranged on the base plate, each of the two walking drive motors is arranged on an opposite side of an end of the base plate and electrically connected to the power supply assembly, each of the two drive wheels is drivable and connected to a corresponding one of the two walking drive motors, and the supporting wheel is arranged in a middle of the base plate on another end; and a material pushing device comprising a material pushing wall, wherein the material pushing wall comprises an annular wall body and a connecting arm extending inwardly from a top end of the annular wall body, wherein the connecting arm is connected to the holding assembly, wherein the annular wall body rotatably surrounds the holding assembly, characterized in that the material pushing device further comprises at least two pulley structures and a circular orbit, wherein the circular orbit seats to an internal wall of the annular wall body, each of the at least two pulley structures comprises a mounting body and a pulley body rotatably mounted on the mounting body, each of the at least two pulley structures being mounted to the holding assembly through the mounting body, wherein the pulley body outwardly seats to a smooth surface of the circular orbit to resist an internal of the annular wall body. a walking device comprising a holding assembly, a power supply assembly, two walking drive motors, two drive wheels, and a supporting wheel, wherein the holding assembly comprises a base plate, the power supply assembly is arranged on the base plate, each of the two walking drive motors is arranged on an opposite side of an end of the base plate and electrically connected to the power supply assembly, each of the two drive wheels is drivable and connected to a corresponding one of the two walking drive motors, and the supporting wheel is arranged in a middle of the base plate on another end; and a material pushing device comprising a material pushing wall, wherein the material pushing wall comprises an annular wall body and a connecting arm extending inwardly from a top end of the annular wall body, wherein the connecting arm is connected to the holding assembly, wherein the annular wall body rotatably surrounds the holding assembly, characterized in that the material pushing device further comprises at least two pulley structures and a circular orbit, wherein the circular orbit seats to an internal wall of the annular wall body, each of the at least two pulley structures comprises a mounting body and a pulley body rotatably mounted on the mounting body, each of the at least two pulley structures being mounted to the holding assembly through the mounting body, wherein the pulley body outwardly seats to a smooth surface of the circular orbit to resist an internal of the annular wall body.
A method of controlling power input into an energy transferring resonant inductive network, the network comprising: - a resonant tank exhibiting a resonance frequency; and - a number of power consuming loads connected to the resonant tank at the resonance frequency, and being connected with at least one energy source comprising at least a converter connecting the source to the network, and configured to convert energy from the source into energy having a central frequency at the resonance frequency of the resonant tank, wherein the method comprises: - determining an amount of power to be input by the source into the network by adaptively balancing energy of the source E source against energy in the network E network, CHARACTERISED BY varying, during energy transfer to the number of power consuming loads, at least a sliding-mode control input u p for the converter; determining whether a balance factor α increases or decreases with the variation of the control input ( u p); and varying at least the control input ( u p) further to approximate a minimum value of the balance factor (α), at which α * E source = E network, and assuming u p ̅ 2 ⋅ α ≡ constant. - a resonant tank exhibiting a resonance frequency; and - a number of power consuming loads connected to the resonant tank at the resonance frequency, and being connected with at least one energy source comprising at least a converter connecting the source to the network, and configured to convert energy from the source into energy having a central frequency at the resonance frequency of the resonant tank, wherein the method comprises: - determining an amount of power to be input by the source into the network by adaptively balancing energy of the source E source against energy in the network E network, CHARACTERISED BY - determining an amount of power to be input by the source into the network by adaptively balancing energy of the source E source against energy in the network E network, CHARACTERISED BY
A light weight, portable cover designed to be assembled for suspension above an airplane, and that can be carried within the airplane, comprising: a light weight base plate (115, 135, 1100, 1450) adapted to be secured by the airplane; a plurality of collapsible poles securely coupled to the light weight base plate to form a frame support structure above the airplane; a light weight sheet material adapted to be coupled to the frame support structure to cover the airplane; wherein the plurality of collapsible poles include a first set of anchor poles (100, 120, 1480) which couple directly to the base plate, and a second set of support poles (145, 150, 155, 165) which couple to one or both of the anchor poles and the sheet material; wherein the light weight sheet material has pockets (310, 320) adapted to be fitted to each of the wing tips and each tip end of a horizontal stabilizer of the airplane and adapted to be engaged with one or more of the collapsible poles and the airplane when erected, wherein the light weight sheet material is further secured to the frame support structure using a plurality of connectors (A,B,C), and wherein the light weight sheet material is adapted to be suspended above the airplane. a light weight base plate (115, 135, 1100, 1450) adapted to be secured by the airplane; a plurality of collapsible poles securely coupled to the light weight base plate to form a frame support structure above the airplane; a light weight sheet material adapted to be coupled to the frame support structure to cover the airplane; wherein the plurality of collapsible poles include a first set of anchor poles (100, 120, 1480) which couple directly to the base plate, and a second set of support poles (145, 150, 155, 165) which couple to one or both of the anchor poles and the sheet material; wherein the light weight sheet material has pockets (310, 320) adapted to be fitted to each of the wing tips and each tip end of a horizontal stabilizer of the airplane and adapted to be engaged with one or more of the collapsible poles and the airplane when erected, wherein the light weight sheet material is further secured to the frame support structure using a plurality of connectors (A,B,C), and wherein the light weight sheet material is adapted to be suspended above the airplane.