mhurhangee/patent-ind-claim-en huggingface dataset:
A blade outer air seal (BOAS) assembly , comprising: an outer case ; a first support arm (242;742), wherein the first support arm (242;742) is fixed to the outer case ; a second support arm (446;746), wherein the second support arm (446;746) is fixed to the outer case ; a control rod configured to rotate about a control rod axis , wherein the control rod is coupled to the first support arm (242;742) and the second support arm (446;746) via insertion into apertures disposed on the first support arm (242;742) and the second support arm (446;746), wherein the control rod is configured to rotate within the apertures and wherein the control rod comprises a first cam ; a unison ring , wherein the unison ring is located radially inward of the outer case and in mechanical communication with the control rod ; and a blade outer air seal (BOAS) , wherein the BOAS comprises a first segment which is coupled to the first cam such that the BOAS is configured to at least one of expand or contract in response to a rotation of the control rod ; characterised in that the control rod comprises a rod arm coupled to the unison ring via a link , wherein the rod arm is configured to rotate about the control rod axis in response to a rotation of the unison ring . an outer case ; a first support arm (242;742), wherein the first support arm (242;742) is fixed to the outer case ; a second support arm (446;746), wherein the second support arm (446;746) is fixed to the outer case ; a control rod configured to rotate about a control rod axis , wherein the control rod is coupled to the first support arm (242;742) and the second support arm (446;746) via insertion into apertures disposed on the first support arm (242;742) and the second support arm (446;746), wherein the control rod is configured to rotate within the apertures and wherein the control rod comprises a first cam ; a unison ring , wherein the unison ring is located radially inward of the outer case and in mechanical communication with the control rod ; and a blade outer air seal (BOAS) , wherein the BOAS comprises a first segment which is coupled to the first cam such that the BOAS is configured to at least one of expand or contract in response to a rotation of the control rod ; characterised in that the control rod comprises a rod arm coupled to the unison ring via a link , wherein the rod arm is configured to rotate about the control rod axis in response to a rotation of the unison ring .
A solid nanocomposite material consisting of a polymer-matrix in which are dispersed alkali metal, hydronium or ammonium salts, notably alkali metal salts of polyanionic metal clusters, the ammonium being a NR 1 R 2 R 3 R 4 + cation, wherein R 1 to R 4 represent, independently of each other, a hydrogen atom or a C 1 -C 6 alkyl group, wherein the polymer-matrix comprises at least a linear or branched polymer or copolymer containing one or several poly(ethylene oxide) (PEO) chains, said polymer or copolymer being optionally crosslinked and each PEO chain having at least 4 ethylene oxide monomer units, and wherein the salts of polyanionic metal clusters interact with the polymer-matrix solely by means of weak interactions in between the alkali metal, hydronium or ammonium cation and the PEO chains of polymer or copolymer.
A radioactive compound represented by the following general formula or a salt thereof: wherein R 1 represents a hydrogen atom or CO 2 R a , R 2 represents a hydrogen atom, a halogen atom or CO 2 R a , R 3 represents a hydrogen atom or a hydroxyalkyl group containing 1 to 10 carbon atoms, R 4 represents a hydrogen atom, a hydroxy group or an alkoxy group containing 1 to 10 carbon atoms, R 5 represents a linear alkyl group containing 1 to 5 carbon atoms in which a hydrogen atom is optionally replaced by a halogen atom, a cyclic alkyl group containing 3 to 5 carbon atoms in which a hydrogen atom is optionally replaced by a halogen atom, a hydroxyalkyl group containing 1 to 5 carbon atoms, or an o-, p- or m-halobenzyl group, A represents CH or a nitrogen atom, X 1 and X 3 each independently represent a hydrogen atom or a halogen atom, X 2 represents a hydrogen atom, a halogen atom or a nitrile group, provided that at least one of X 1 , X 2 and X 3 represents a halogen atom, and each R a independently represents an alkyl group containing 1 to 10 carbon atoms, and; wherein any one of the following (a) to (c) is selected; (a) whilst R 5 is the group represented by -(CH 2 ) n X 4 , n is an integer of 1 to 5 and X 4 is a radioactive halogen atom, (b) X 2 or R 2 is a radioactive halogen atom, or (c) R 5 is a p-halobenzyl group labeled with a radioactive halogen atom. (a) whilst R 5 is the group represented by -(CH 2 ) n X 4 , n is an integer of 1 to 5 and X 4 is a radioactive halogen atom, (b) X 2 or R 2 is a radioactive halogen atom, or (c) R 5 is a p-halobenzyl group labeled with a radioactive halogen atom.
A fastening arrangement for elevator guide rails, said fastening arrangement comprising two bracket parts with a width direction (W) and a perpendicular depth direction (D), each bracket part comprising a vertical branch and a horizontal branch , two fastening points (P1, P2) for mutual attachment of the horizontal branches of the two bracket parts , each fastening point (P1, P2) comprising a first longitudinal opening (021, O22) extending in the width direction (W) in a first horizontal branch , a second longitudinal opening (021, O22) extending in the depth direction (D) in a second horizontal branch , and a first fastening member passing vertically through the two longitudinal openings (021, O22), characterized in that a nest is supported on the first horizontal branch so that the first fastening member extends vertically into the nest and a second fastening member extends horizontally into the nest , the first fastening member and the second fastening member being operatively connected to each other via a power transmission within the nest , whereby rotation of the second fastening member around a longitudinal centre axis of the second fastening member is transferred by the power transmission to a vertical linear movement of the first fastening element generating a pressure joint between the two horizontal branches of the two bracket parts in the fastening point (P1, P2). two bracket parts with a width direction (W) and a perpendicular depth direction (D), each bracket part comprising a vertical branch and a horizontal branch , two fastening points (P1, P2) for mutual attachment of the horizontal branches of the two bracket parts , each fastening point (P1, P2) comprising a first longitudinal opening (021, O22) extending in the width direction (W) in a first horizontal branch , a second longitudinal opening (021, O22) extending in the depth direction (D) in a second horizontal branch , and a first fastening member passing vertically through the two longitudinal openings (021, O22), characterized in that a nest is supported on the first horizontal branch so that the first fastening member extends vertically into the nest and a second fastening member extends horizontally into the nest , the first fastening member and the second fastening member being operatively connected to each other via a power transmission within the nest , whereby rotation of the second fastening member around a longitudinal centre axis of the second fastening member is transferred by the power transmission to a vertical linear movement of the first fastening element generating a pressure joint between the two horizontal branches of the two bracket parts in the fastening point (P1, P2).
An air conditioner comprising: a compressor configured to compress refrigerant and to thereby discharge high pressure refrigerant gas, an outdoor heat exchanger in which the high pressure refrigerant gas is changed to refrigerant fluid, and an outdoor fan configured to blow outdoor air to the outdoor heat exchanger; a decompressor configured to decompress the refrigerant fluid into a low pressure state, an indoor heat exchanger in which the refrigerant in the low pressure state is changed to refrigerant gas; and a controller configured to control a pressure of the refrigerant or a temperature of the refrigerant based on operation conditions including: a first condition that is based on an installation environment of the air conditioner, a second condition that is based on an optimal compression ratio of the compressor, a third condition that is based on an outdoor temperature, and a fourth condition that is based on a default temperature of the refrigerant or a default pressure of the refrigerant, and wherein the first condition that is determined based on the installation environment of the air conditioner includes at least one of a type of the refrigerant, a length of a connection pipe connecting an indoor unit to an outdoor unit , or a difference in pressure level between the outdoor unit and the indoor unit. a compressor configured to compress refrigerant and to thereby discharge high pressure refrigerant gas, an outdoor heat exchanger in which the high pressure refrigerant gas is changed to refrigerant fluid, and an outdoor fan configured to blow outdoor air to the outdoor heat exchanger; a decompressor configured to decompress the refrigerant fluid into a low pressure state, an indoor heat exchanger in which the refrigerant in the low pressure state is changed to refrigerant gas; and a controller configured to control a pressure of the refrigerant or a temperature of the refrigerant based on operation conditions including: a first condition that is based on an installation environment of the air conditioner, a second condition that is based on an optimal compression ratio of the compressor, a third condition that is based on an outdoor temperature, and a fourth condition that is based on a default temperature of the refrigerant or a default pressure of the refrigerant, and wherein the first condition that is determined based on the installation environment of the air conditioner includes at least one of a type of the refrigerant, a length of a connection pipe connecting an indoor unit to an outdoor unit , or a difference in pressure level between the outdoor unit and the indoor unit.
A computer-implemented method performed by a first computing device , the method comprising: determining a key pair comprising a public key and a private key; generating a first shared secret using the private key and a static second device public key; encrypting request data using the first shared secret to obtain encrypted request data; sending a request message including the encrypted request data and the public key to a second computing device ; receiving a response message including encrypted response data and a blinded static second device public key from the second computing device , wherein the blinded static second device public key is determined by blinding the static second device public key with a blinding factor; determining a second shared secret using the private key and the blinded static second device public key; and decrypting the encrypted response data using the second shared secret to determine response data. determining a key pair comprising a public key and a private key; generating a first shared secret using the private key and a static second device public key; encrypting request data using the first shared secret to obtain encrypted request data; sending a request message including the encrypted request data and the public key to a second computing device ; receiving a response message including encrypted response data and a blinded static second device public key from the second computing device , wherein the blinded static second device public key is determined by blinding the static second device public key with a blinding factor; determining a second shared secret using the private key and the blinded static second device public key; and decrypting the encrypted response data using the second shared secret to determine response data.
An electromagnetic energy-absorbing optical product comprising: a) a polymeric substrate and b) a composite coating , said composite coating comprising a first layer , a polyionic binder and a second layer comprising an electromagnetic energy-absorbing insoluble particle, wherein each of said first layer and said second layer include a binding group component which together form a complementary binding group pair, characterized in that said polyionic binder is comprised in said first layer, the second layer includes a screening agent including low molecular weight salts and in that said electromagnetic energy-absorbing particle comprises a pigment and the surface of the pigment includes said binding group component of said second layer. a) a polymeric substrate and b) a composite coating , said composite coating comprising a first layer , a polyionic binder and a second layer comprising an electromagnetic energy-absorbing insoluble particle, wherein each of said first layer and said second layer include a binding group component which together form a complementary binding group pair,
A releasing mechanism for an aerosol generating device , said aerosol generating device being provided with a heating body used to be inserted into an aerosol-forming substrate placeable on the releasing mechanism , the releasing mechanism comprising: a rotary portion comprising an outer case and an inner case , wherein the outer case is sleeved on the inner case , said inner case having an inner chamber for placing said aerosol-forming substrate on the inner case ; characterized in that a pressing mechanism is provided on the inner case , wherein the outer case is movable along a circumferential direction, and the circumferential movement is transferred to a movement along an axial direction which coincides with an axial direction of the inner chamber and an inserting direction of the heating body when inserted into the aerosol-forming substrate, to drive the pressing mechanism for applying a radial pressing force to the aerosol-forming substrate when placed in said inner chamber ; the inner case is connectable to the aerosol generating device rotatably between a first position and a second position. a rotary portion comprising an outer case and an inner case , wherein the outer case is sleeved on the inner case , said inner case having an inner chamber for placing said aerosol-forming substrate on the inner case ; characterized in that a pressing mechanism is provided on the inner case , wherein the outer case is movable along a circumferential direction, and the circumferential movement is transferred to a movement along an axial direction which coincides with an axial direction of the inner chamber and an inserting direction of the heating body when inserted into the aerosol-forming substrate, to drive the pressing mechanism for applying a radial pressing force to the aerosol-forming substrate when placed in said inner chamber ; the inner case is connectable to the aerosol generating device rotatably between a first position and a second position.
Device for measurement of a magnetic field component comprising a detector configured to measure the amplitude of an output signal at an oscillation frequency of an excitation source and to use it to deduce the component of the magnetic field to be measured starting from the value of a resonance gradient characteristic of a proportionality relation between said amplitude and the magnetic field to be measured, characterised in that it comprises a main excitation source outputting a measurement signal (B1) oscillating at a main oscillation frequency and a secondary excitation source outputting a reference signal with a known amplitude (B2) oscillating at a secondary oscillation frequency different from the main oscillation frequency, and in that the detector is also configured to measure the amplitude (V) of the output signal at a harmonic of the secondary oscillation frequency and to use it to deduce the value of said resonance gradient starting from said amplitude of the output signal at a harmonic of the secondary oscillation frequency and the known amplitude of the reference signal.
A gas turbine facility , comprising: a combustor combusting fuel and oxidant; a turbine rotated by combustion gas exhausted from the combustor ; a heat exchanger cooling the combustion gas exhausted from the turbine ; a water vapor remover removing water vapor from the combustion gas which passed through the heat exchanger to regenerate dry working gas therefrom; a compressor compressing the dry working gas until it becomes supercritical fluid; a combustor introduction pipe receiving a part of the dry working gas from the compressor as supercritical fluid and guiding the part of the dry working gas to the combustor via the heat exchanger ; an exhaust pipe branched from the combustor introduction pipe on an upstream side of the heat exchanger to exhaust a part of the dry working gas flowing through the combustor introduction pipe to the outside; a pump configured to pressurize the dry working gas, the pump being controlled in rotation speed independently of a rotation speed of the turbine to vary a flow rate and a pressure of the dry working gas directed to the heat exchanger ; a bypass pipe introducing a remaining part of the dry working gas exhausted from the compressor into a pipe coupling an outlet of the turbine and an inlet of the heat exchanger ; a bypass flow rate regulating valve provided in the bypass pipe to regulate the flow rate of the dry working gas flowing through the bypass pipe ; a control unit controlling an opening of the bypass flow rate regulating valve and the rotation speed of the pump . a combustor combusting fuel and oxidant; a turbine rotated by combustion gas exhausted from the combustor ; a heat exchanger cooling the combustion gas exhausted from the turbine ; a water vapor remover removing water vapor from the combustion gas which passed through the heat exchanger to regenerate dry working gas therefrom; a compressor compressing the dry working gas until it becomes supercritical fluid; a combustor introduction pipe receiving a part of the dry working gas from the compressor as supercritical fluid and guiding the part of the dry working gas to the combustor via the heat exchanger ; an exhaust pipe branched from the combustor introduction pipe on an upstream side of the heat exchanger to exhaust a part of the dry working gas flowing through the combustor introduction pipe to the outside; a pump configured to pressurize the dry working gas, the pump being controlled in rotation speed independently of a rotation speed of the turbine to vary a flow rate and a pressure of the dry working gas directed to the heat exchanger ; a bypass pipe introducing a remaining part of the dry working gas exhausted from the compressor into a pipe coupling an outlet of the turbine and an inlet of the heat exchanger ; a bypass flow rate regulating valve provided in the bypass pipe to regulate the flow rate of the dry working gas flowing through the bypass pipe ; a control unit controlling an opening of the bypass flow rate regulating valve and the rotation speed of the pump .
Base structure for furnishing components , comprising: - a substantially horizontal bottom wall ; - a plurality of perimeter walls which rise upward from said bottom wall forming a containing compartment with it; - a support structure , suitable to close on the upper side said containing compartment ; - lifting means configured to connect said support structure to one or more of said perimeter walls so that said support structure is liftable with respect to said containing compartment , said lifting means being fastened by fastening means to said one or more perimeter walls ; wherein at least one pair of opposite walls of said perimeter walls is in the form of a profiled element which has an internal face and an external face between which a transverse thickness (S) is defined, wherein in said profiled element attachment means are defined, suitable to be engaged at least by said fastening means , characterized in that said attachment means are configured as grooves that extend along at least part of said perimeter walls . - a substantially horizontal bottom wall ; - a plurality of perimeter walls which rise upward from said bottom wall forming a containing compartment with it; - a support structure , suitable to close on the upper side said containing compartment ; - lifting means configured to connect said support structure to one or more of said perimeter walls so that said support structure is liftable with respect to said containing compartment , said lifting means being fastened by fastening means to said one or more perimeter walls ; wherein at least one pair of opposite walls of said perimeter walls is in the form of a profiled element which has an internal face and an external face between which a transverse thickness (S) is defined, wherein in said profiled element attachment means are defined, suitable to be engaged at least by said fastening means , characterized in that said attachment means are configured as grooves that extend along at least part of said perimeter walls .
A redox flow battery comprising: a catholyte; an anolyte; and the ion exchange membrane disposed between the catholyte and the anolyte comprising a porous substrate film having ion exchanging properties, said porous substrate film being filled with the polymerization product of a composition comprising: an ion conductive material; and a water soluble support, wherein the ion conductive material is at least one compound selected from the group consisting of an ion conductive monomer and an ion conductive polymer; and wherein the water soluble support comprises at least one of a water soluble monomer and a water soluble polymer; the water soluble monomer comprising at least one of vinyl alcohol, vinyl acetate, acrylonitrile, and methyl methacrylate; the water soluble polymer comprising at least one of polyacrylamide, polyacrylic acid, poly(acrylamide-co-acrylic acid), polyvinylalcohol, and poly(sodium 4-styrenesulfonate). a catholyte; an anolyte; and the ion exchange membrane disposed between the catholyte and the anolyte comprising a porous substrate film having ion exchanging properties, said porous substrate film being filled an ion conductive material; and a water soluble support, wherein the ion conductive material is at least one compound selected from the group consisting of an ion conductive monomer and an ion conductive polymer; and wherein the water soluble support comprises at least one of a water soluble monomer and a water soluble polymer; the water soluble monomer comprising at least one of vinyl alcohol, vinyl acetate, acrylonitrile, and methyl methacrylate; the water soluble polymer comprising at least one of polyacrylamide, polyacrylic acid, poly(acrylamide-co-acrylic acid), polyvinylalcohol, and poly(sodium 4-styrenesulfonate).
A thrust reverser actuation system for a jet propulsion engine for a vehicle, the thrust reverser actuation system comprising: a plurality of hydraulically-driven thrust reverser actuators for actuating one or more thrust reverser components of the jet propulsion engine; characterised by each actuator comprising: a hydraulic circuit ; and a bi-directional electrically-driven pump configured to pump hydraulic fluid through the hydraulic circuit, wherein the hydraulic circuit and the pump are configured such that the direction of the pump dictates the direction of the actuation of the actuator. a plurality of hydraulically-driven thrust reverser actuators for actuating one or more thrust reverser components of the jet propulsion engine; characterised by each actuator comprising: a hydraulic circuit ; and a bi-directional electrically-driven pump configured to pump hydraulic fluid through the hydraulic circuit, a hydraulic circuit ; and a bi-directional electrically-driven pump configured to pump hydraulic fluid through the hydraulic circuit, wherein the hydraulic circuit and the pump are configured such that the direction of the pump dictates the direction of the actuation of the actuator.