mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a composite component from a plurality of plies of fibres embedded in a resin, the method comprising the following steps: - forming a preliminary component by draping the plurality of fibre plies in a mould; - laying up the preliminary component; - polymerizing the preliminary component arranged in an enclosure equipped with a device for measuring the temperature T inside the enclosure; - demoulding the preliminary component; - testing the dimensions and defect rate, the method being characterized in that the polymerization step comprises the application of a pressure P in the enclosure as soon as the temperature T is greater than or equal to a threshold temperature (Ts), determined by a reference table allowing for the critical dimensions of the composite component and the defect rate required for said composite component. - forming a preliminary component by draping the plurality of fibre plies in a mould; - laying up the preliminary component; - polymerizing the preliminary component arranged in an enclosure equipped with a device for measuring the temperature T inside the enclosure; - demoulding the preliminary component; - testing the dimensions and defect rate,
A method of producing a photocatalyst material, comprising (i) forming a discharge zone with a discharge gap part defined therein by first and second electrodes and facing each other and arranging a dielectric material on a surface of the first electrode facing to the second electrode, (ii) supplying starting material gas containing metal particles or metal compound gas to be a photocatalyst element in oxygen gas to the discharge gap part, (iii) applying an AC voltage between the first electrode and the second electrode to introduce AC power of a predetermined power density into the discharge zone, causing dielectric barrier discharge (silent discharge or creeping discharge) via the dielectric material, creating a state where oxygen gas and ozone gas exist in the discharge gap part, and (iv) modifying the metal particles or the metal compound gas contained in the oxygen gas to photocatalyst particles by a mutual chemical reaction of high-field intermittent discharge plasma due to the dielectric barrier discharge and oxygen gas and ozone gas. (i) forming a discharge zone with a discharge gap part defined therein by first and second electrodes and facing each other and arranging a dielectric material on a surface of the first electrode facing to the second electrode, (ii) supplying starting material gas containing metal particles or metal compound gas to be a photocatalyst element in oxygen gas to the discharge gap part, (iii) applying an AC voltage between the first electrode and the second electrode to introduce AC power of a predetermined power density into the discharge zone, causing dielectric barrier discharge (silent discharge or creeping discharge) via the dielectric material, creating a state where oxygen gas and ozone gas exist in the discharge gap part, and (iv) modifying the metal particles or the metal compound gas contained in the oxygen gas to photocatalyst particles by a mutual chemical reaction of high-field intermittent discharge plasma due to the dielectric barrier discharge and oxygen gas and ozone gas.
Garment including a personal protection device for the protection of a portion of the body of a user, said personal protection device comprising an inflatable member intended to protect at least partially a zone of the body of a user, wherein the personal protection device includes at least a first portion (20, 30, 40) of the inflatable member and a second portion (21, 31, 41) of the inflatable member, wherein the first portion (20, 30, 40) of the inflatable member and the second portion (21, 31, 41) of the inflatable member are superimposed in a corresponding overlapping area or superimposition area (A, B, C), wherein the inflatable element is incorporated inside respective pockets of the garment and the pockets are superimposed like the inflatable member, wherein the personal protection device includes at least one connecting device or structure associated with the first portion (20, 30, 40) of the inflatable member and the second portion (21, 31, 41) of the inflatable member in the overlapping (area A, B, C), and wherein said connecting device or connecting structure is part of the garment and is indirectly associated with the first portion (20, 30, 40) of the inflatable member and the second portion (21, 31, 41) of the inflatable member in the overlapping area (A, B, C). wherein the first portion (20, 30, 40) of the inflatable member and the second portion (21, 31, 41) of the inflatable member are superimposed in a corresponding overlapping area or superimposition area (A, B, C), wherein the inflatable element is incorporated inside respective pockets of the garment and the pockets are superimposed like the inflatable member, wherein the personal protection device includes at least one connecting device or structure associated with the first portion (20, 30, 40) of the inflatable member and the second portion (21, 31, 41) of the inflatable member in the overlapping (area A, B, C), and
A pile for deep foundation piling, which pile is driven or arranged to be driven into the ground, the pile comprising - an upper concrete pile section comprising an upper axial end (8") provided with an upper drive-fit connection member (9") arranged for cooperation with a tube member having a predetermined radial dimension, and - a final upper pile section formed of a tube having the predetermined radial dimension, wherein a lower axial end of the final upper pile section is attached by drive-fit cooperation with the upper drive-fit connection member of the upper concrete pile section. - an upper concrete pile section comprising an upper axial end (8") provided with an upper drive-fit connection member (9") arranged for cooperation with a tube member having a predetermined radial dimension, and - a final upper pile section formed of a tube having the predetermined radial dimension,
A method for producing a shaped sheet metal part provided with an anti-corrosion coating and formed from a higher-strength steel sheet material, comprising the following steps: - shaping a provided starting sheet metal material into a shaped sheet metal part; - forming the anti-corrosion coating following the shaping; characterised in that the anti-corrosion coating is formed by electrolytic application of a zinc/nickel coating to the shaped sheet metal part, wherein at the beginning of the coating operation first of all a thin nickel layer is deposited which subsequently prevents hydrogen embrittlement of the steel sheet material. - shaping a provided starting sheet metal material into a shaped sheet metal part; - forming the anti-corrosion coating following the shaping;
An internal combustion engine for use in a vehicle having a compressed air storage tank, the engine having intake and exhaust ports connected to associated intake and exhaust pipes, characterised by an air connector serving to enable the tank to be filled with gases compressed by the engine, the air connector being mounted opposite an intake or an exhaust port within an associated intake or exhaust pipe and comprising a stopper mounted on a rod that is formed with an air passage incorporating a check valve, wherein, during use of the air connector, the stopper is movable by an actuator between an open position in which the port communicates with the associated intake or exhaust pipe and a closed position in which the stopper isolates the port from the associated intake or exhaust pipe and establishes communication between the port and the tank by way of the air passage in the rod and the check valve, the check valve being biased in a direction to prevent escape of air from the tank.
Trapeze closure for a trapeze for kitesurfing, windsurfing or sailing, having at least one end fitting (22, 24) for coupling to a trapeze harness, and a closure piece which can be brought into tensioning engagement with a retainer element formed on a hook plate carrying a trapeze hook, wherein the closure piece is connected to the end fitting (22, 24) via a pivot lever assembly in such a way that, when the pivot lever assembly is actuated, the end fitting (22, 24) can be adjusted in the tensioning direction, characterized in that the closure piece has at least two approximately parallel, hook-shaped pawls (32, 34) which can be brought into force-fitting and form-fitting engagement with the retainer element, wherein the pivot lever assembly has a pivot plate which is articulated on the closure piece having the pawls (32, 34) via a linkage, and the pivot plate in turn is connected to the end fitting (22, 24) at a distance from the linkage via a swivel joint.
A package, wherein the package comprises: a polymeric outer container, the polymeric outer container having a closed bottom, a sidewall, a neck opposite the closed bottom and defining an opening for receiving product, the polymeric outer container having a longitudinal axis, and an attachment ring disposed adjacent to the neck of the outer container, wherein the attachment ring has a radially outermost edge from the longitudinal axis that defines an outer diameter of the attachment ring, wherein the attachment ring is directly connectable with an actuator of an aerosol dispenser, and wherein the outer diameter of the attachment ring in the package is 32.50 mm with a standard deviation of +/- 0.30 mm; wherein the package further comprises a valve joined with the opening of the polymeric outer container; and the actuator joined directly with the polymeric attachment ring; and a polymeric valve cup connecting the valve with the polymeric outer container, wherein the polymeric valve cup comprises the attachment ring. a polymeric outer container, the polymeric outer container having a closed bottom, a sidewall, a neck opposite the closed bottom and defining an opening for receiving product, the polymeric outer container having a longitudinal axis, and an attachment ring disposed adjacent to the neck of the outer container, wherein the attachment ring has a radially outermost edge from the longitudinal axis that defines an outer diameter of the attachment ring, wherein the attachment ring is directly connectable with an actuator of an aerosol dispenser, and wherein the outer diameter of the attachment ring in the package is 32.50 mm with a standard deviation of +/- 0.30 mm; wherein the package further comprises a valve joined with the opening of the polymeric outer container; and the actuator joined directly with the polymeric attachment ring; and a polymeric valve cup connecting the valve with the polymeric outer container, wherein the polymeric valve cup comprises the attachment ring.
A data bus node integrated circuit comprising: - at least one static address selection terminal, - a detecting circuit for detecting a state of the at least one static address selection terminal, and - a communication circuit for receiving and/or transmitting data over a data bus and adapted for determining a node address identifier taking the detected state of the at least one static address selection terminal into account, wherein the detecting circuit is adapted for detecting the state of the at least one static address selection terminal by determining an electrical property of a passive electronic component when connected to said at least one static address selection terminal, said communication circuit furthermore being adapted for receiving and/or transmitting data over said data bus in accordance with a first communication protocol using said node address identifier for identification of the data bus node integrated circuit, characterized in that: said communication circuit furthermore being adapted for receiving and/or transmitting data over said data bus in accordance with a second communication protocol using a further node address identifier for identification of the data bus node integrated circuit, wherein said communication circuit is adapted for configuring the further node address identifier by using data received using said first communication protocol. - at least one static address selection terminal, - a detecting circuit for detecting a state of the at least one static address selection terminal, and - a communication circuit for receiving and/or transmitting data over a data bus and adapted for determining a node address identifier taking the detected state of the at least one static address selection terminal into account, said communication circuit furthermore being adapted for receiving and/or transmitting data over said data bus in accordance with a second communication protocol using a further node address identifier for identification of the data bus node integrated circuit, wherein said communication circuit is adapted for configuring the further node address identifier by using data received using said first communication protocol.
A pump comprising: a housing; a washing water inlet pipe coupled to the housing to receive washing water; a washing water outlet pipe coupled to the housing to discharge the washing water; an impeller disposed in the housing to discharge the washing water from the washing water inlet pipe to the washing water outlet pipe; a heater coupled to the housing to heat the washing water in the housing and generate steam;and a steam discharge pipe to discharge the steam generated by the heater; characterized by: a selector valve coupled to the steam discharge pipe to block the discharge of the washing water and allow the steam to be discharged, wherein an inlet of the selector valve is disposed below an outlet of the selector valve, wherein the selector valve comprises: a valve body having a flow path formed therein; a valve seat disposed in an outlet side of the valve body; and a valve ball disposed inside the valve body to close the flow path of the valve body in state of contact with the valve seat. a housing; a washing water inlet pipe coupled to the housing to receive washing water; a washing water outlet pipe coupled to the housing to discharge the washing water; an impeller disposed in the housing to discharge the washing water from the washing water inlet pipe to the washing water outlet pipe; a heater coupled to the housing to heat the washing water in the housing and generate steam;and a steam discharge pipe to discharge the steam generated by the heater; characterized by: a selector valve coupled to the steam discharge pipe to block the discharge of the washing water and allow the steam to be discharged, wherein an inlet of the selector valve is disposed below an outlet of the selector valve, wherein the selector valve comprises: a valve body having a flow path formed therein; a valve seat disposed in an outlet side of the valve body; and a valve ball disposed inside the valve body to close the flow path of the valve body in state of contact with the valve seat. a selector valve coupled to the steam discharge pipe to block the discharge of the washing water and allow the steam to be discharged, wherein an inlet of the selector valve is disposed below an outlet of the selector valve, wherein the selector valve comprises: a valve body having a flow path formed therein; a valve seat disposed in an outlet side of the valve body; and a valve ball disposed inside the valve body to close the flow path of the valve body in state of contact with the valve seat. a valve body having a flow path formed therein; a valve seat disposed in an outlet side of the valve body; and a valve ball disposed inside the valve body to close the flow path of the valve body in state of contact with the valve seat.
A conjugate comprising: an immune response modifier; a linker represented by formula: wherein A is CH or N, p is in a range from 1 to 50, R" is a bond or -alkylene-O-, and R' is a bond or alkylene that is optionally interrupted or terminated with one or more amide or ether groups; and an antigen, wherein the immune response modifier is covalently attached to the linker at * through a hydrazone functional group, and wherein the antigen is covalently attached to the linker at ** through an amide, disulfide, urea, thiourea, carbamate, or a carbon-sulfur or carbon-nitrogen bond alpha to an amide or sulfone or directly attached to a succinimide ring. an immune response modifier; a linker represented by formula: wherein A is CH or N, p is in a range from 1 to 50, R" is a bond or -alkylene-O-, and R' is a bond or alkylene that is optionally interrupted or terminated with one or more amide or ether groups; and an antigen, wherein the immune response modifier is covalently attached to the linker at * through a hydrazone functional group, and wherein the antigen is covalently attached to the linker at ** through an amide, disulfide, urea, thiourea, carbamate, or a carbon-sulfur or carbon-nitrogen bond alpha to an amide or sulfone or directly attached to a succinimide ring.
A printhead subsystem for selectively removing portions of a layer of dampening fluid disposed over an arbitrarily reimageable surface in a variable data lithographic system, characterized in that the subsystem comprises: a thermal printhead element disposed proximate said arbitrarily reimageable surface; driving circuitry communicatively connected to said thermal printhead for selectively temporarily heating said thermal printhead to an elevated temperature; whereby portions of said dampening fluid layer proximate said thermal printhead are vaporized and driven off said arbitrarily reimageable surface by said thermal printhead when said thermal printhead is at said elevated temperature to thereby form voids in said dampening fluid layer. a thermal printhead element disposed proximate said arbitrarily reimageable surface; driving circuitry communicatively connected to said thermal printhead for selectively temporarily heating said thermal printhead to an elevated temperature; whereby portions of said dampening fluid layer proximate said thermal printhead are vaporized and driven off said arbitrarily reimageable surface by said thermal printhead when said thermal printhead is at said elevated temperature to thereby form voids in said dampening fluid layer.
An electrochemical cell involving the production or consumption of at least one gas, comprising an anodic compartment, a cathodic compartment and a barrier compartment positioned between the cathodic and anodic compartment, wherein the barrier compartment comprises an ion permeable reinforced separator wherein the ion permeable reinforced separator comprises a first and a second ion permeable separator element (S1, S2) and a hollow by-pass channel integrated in the ion permeable reinforced separator contiguous with said ion permeable separator elements, wherein the first ion permeable separator element is positioned adjacent said cathodic compartment and the second ion permeable separator element positioned adjacent said anodic compartment and at a distance from the first ion permeable separator element to provide a hollow bypass channel between the first and second ion permeable separator elements for containing electrolyte, wherein said first and second separator elements (S1, S2) each comprises an elongated porous web, a binder and a metal oxide or hydroxide dispersed therein and subjected to phase inversion, wherein a resistance to flow of electrolyte through the bypass channel is at least a factor of ten lower than that through the separator elements (S1, S2), wherein each separator element (S1, S2) is liquid permeable and has a bubble point of at least 1 bar and a back-wash resistance of at least 1 bar, and wherein the bubble point is determined using ASTM E128 method.
Filling machine, in particular for the aseptic filling of packaging means, for example, bottles or similar containers, with a fluid filling product, with a drivable transport element circulating about at least one machine axis and with a plurality of filling positions arranged at the transport element with, in each case, at least one filling element forming a discharge opening for the filling product, and with a container carrier (14, 14a), as well as flushing caps (17, 17a-17c) arranged at the filling positions, which can be moved between a starting position, in which they are arranged outside the movement space of the filling elements and the packaging means located at these elements during the filling operation, and a working position, and specifically for forming a sealing position of the respective flushing cap (17, 17a-17c) against the filling element in the working position, and for forming a flushing and/or cleaning path, enclosing at least one discharge opening of the filling element, wherein the flushing caps (17, 17a-17c) are provided at a part of the filling machine which does not circulate with the transport element, characterised in that the filling machine is configured with a housing, delimiting an isolator space, in which the filling elements and the packaging means are accommodated at least during the filling, wherein the flushing caps (17, 17a-17c) are provided at a housing part which is not circulating with the transport element, wherein the drives for the movement and/or placement of the flushing caps (17, 17a-17c) are located between their starting position and working position outside the housing and the isolator space.
An aerosol-generating system comprising: an aerosol-generating device, the aerosol-generating device having, a housing, a heating chamber defining a heating zone, the heating chamber sized to receive at least a portion of an aerosol-forming substrate within the heating zone, an induction element disposed around, or adjacent to, the heating zone, a power supply, and a controller connected to the induction element and configured to provide an alternating electric current to the induction element to generate an alternating magnetic field within the heating zone, in which the induction element can be controlled to sequentially provide a first alternating magnetic field having a first frequency for a first period of time followed by a second alternating magnetic field having a second frequency for a second period of time. an aerosol-generating device, the aerosol-generating device having, a housing, a heating chamber defining a heating zone, the heating chamber sized to receive at least a portion of an aerosol-forming substrate within the heating zone, an induction element disposed around, or adjacent to, the heating zone, a power supply, and a controller connected to the induction element and configured to provide an alternating electric current to the induction element to generate an alternating magnetic field within the heating zone, in which the induction element can be controlled to sequentially provide a first alternating magnetic field having a first frequency for a first period of time followed by a second alternating magnetic field having a second frequency for a second period of time.