mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger , comprising: a first header ; a second header ; a first tank comprising an inlet and an outlet , adapted to be coupled to the first header ; a second tank opposite to the first tank , adapted to be coupled to the second header ; a plurality of heat exchange tubes deployed in parallel to each other between the first header and the second header , , wherein the adjacent tubes of the plurality of heat exchange tubes providing a fluidal communication between the first tank and the second tank form a first set of tubes , at least one second tube having substantially rectangular cross section, disposed between the first header and the second header , wherein the second tube is in fluidic communication with the first set of tubes through the second tank ; and at least one intermediate tube , disposed between the first header and the second header , configured to block the fluid communication between the first tank and the second tank , wherein the at least one intermediate tube is located between the at least one second tube and the first set of tubes characterized in that the first tank comprises a pair of baffles configured to receive one end of an intermediate tube to fluidly isolate the first tank and the second tank , the pair of baffles acting as barrier to restrict direct fluid flow from the inlet to the outlet in the first tank . a first header ; a second header ; a first tank comprising an inlet and an outlet , adapted to be coupled to the first header ; a second tank opposite to the first tank , adapted to be coupled to the second header ; a plurality of heat exchange tubes deployed in parallel to each other between the first header and the second header , , wherein the adjacent tubes of the plurality of heat exchange tubes providing a fluidal communication between the first tank and the second tank form a first set of tubes , at least one second tube having substantially rectangular cross section, disposed between the first header and the second header , wherein the second tube is in fluidic communication with the first set of tubes through the second tank ; and at least one intermediate tube , disposed between the first header and the second header , configured to block the fluid communication between the first tank and the second tank , wherein the at least one intermediate tube is located between the at least one second tube and the first set of tubes characterized in that the first tank comprises a pair of baffles configured to receive one end of an intermediate tube to fluidly isolate the first tank and the second tank , the pair of baffles acting as barrier to restrict direct fluid flow from the inlet to the outlet in the first tank .
A method of preparing a superabsorbent polymer, comprising: adding a hydrous gel polymer, produced by polymerizing a monomer composition comprising a water-soluble ethylenic unsaturated monomer and a polymerization initiator, with a water dispersion containing water, an organic solvent and particles having i) a BET specific surface area of 300 to 1500 m 2 /g and ii) a porosity of 50% or more, wherein the particles have a particle size ranging from 2 nm to 50 μm, wherein the particles are used in an amount of 1 to 25 parts by weight based on 100 parts by weight of the mixture comprising water and organic solvent, wherein the particles have superhydrophobicity with a water contact angle of 125° or more, wherein the specific surface area is measured using a BET meter, wherein the porosity is determined from the tap density (ρ t ) and the true density (ρ s ) of Equation 1: Porosity % = 1 − ρ t / ρ s * 100 , the method further comprising adding a surface crosslinking agent to the ground hydrous gel polymer so that surface crosslinking is carried out and then adding the water dispersion containing particles. adding a hydrous gel polymer, produced by polymerizing a monomer composition comprising a water-soluble ethylenic unsaturated monomer and a polymerization initiator, with a water dispersion containing water, an organic solvent and particles having i) a BET specific surface area of 300 to 1500 m 2 /g and ii) a porosity of 50% or more, wherein the particles have a particle size ranging from 2 nm to 50 μm, wherein the particles are used in an amount of 1 to 25 parts by weight based on 100 parts by weight of the mixture comprising water and organic solvent, wherein the particles have superhydrophobicity with a water contact angle of 125° or more, wherein the specific surface area is measured using a BET meter, wherein the porosity is determined from the tap density (ρ t ) and the true density (ρ s ) of Equation 1: Porosity % = 1 − ρ t / ρ s * 100 , the method further comprising adding a surface crosslinking agent to the ground hydrous gel polymer so that surface crosslinking is carried out and then adding the water dispersion containing particles.
A composition for use in a method of vaccinating an animal, said composition comprising an expression vector, wherein the vector comprises a first polynucleotide encoding a Hendra virus G polypeptide and a second polynucleotide encoding a Hendra virus F polypeptide, wherein said vector is a canarypox vector; further wherein the Hendra virus G polypeptide is SEQ ID NO: 3 and the Hendra virus F polypeptide is SEQ ID NO: 6, said composition further comprising a pharmaceutically or veterinarily acceptable carrier, excipient, adjuvant, or vehicle.
An air conditioner comprising: a body rear panel forming an upper rear external appearance and having an inlet for admitting air; a body front panel coupled to the body rear panel , forming a front external appearance, and having an outlet for discharging air; blowing modules for discharging air to the outlet , the blowing modules comprising a plurality of blowing fans vertically arranged for blowing air; a guide panel disposed between the blowing modules and the body front panel and having a guide hole for guiding air from the blowing modules to the outlet ; a door unit rotatably coupled to the guide panel for closing the outlet and the guide hole ; and a shroud panel having shroud holes through which air flows to the blowing modules , wherein portions around the shroud holes are formed in a shape of a dome and the blowing modules are disposed therein for guiding air from the blowing modules forward, wherein the guide panel comprises a plurality of blowing fan covers corresponding to the plurality of blowing fans to cover the plurality of blowing fans , wherein the door unit comprises a door panel configured to move between the guide panel and the body front panel to open or close the outlet and the guide hole , and a door guide fin protruding downward, wherein the guide panel further comprises a door guide rail formed in an arc shape, wherein the door guide fin is inserted into the door guide rail and slides along the door guide rail , and wherein the door guide rail is disposed on the front side of the blowing fan covers . a body rear panel forming an upper rear external appearance and having an inlet for admitting air; a body front panel coupled to the body rear panel , forming a front external appearance, and having an outlet for discharging air; blowing modules for discharging air to the outlet , the blowing modules comprising a plurality of blowing fans vertically arranged for blowing air; a guide panel disposed between the blowing modules and the body front panel and having a guide hole for guiding air from the blowing modules to the outlet ; a door unit rotatably coupled to the guide panel for closing the outlet and the guide hole ; and a shroud panel having shroud holes through which air flows to the blowing modules , wherein portions around the shroud holes are formed in a shape of a dome and the blowing modules are disposed therein for guiding air from the blowing modules forward, wherein the guide panel comprises a plurality of blowing fan covers corresponding to the plurality of blowing fans to cover the plurality of blowing fans , wherein the door unit comprises a door panel configured to move between the guide panel and the body front panel to open or close the outlet and the guide hole , and a door guide fin protruding downward, wherein the guide panel further comprises a door guide rail formed in an arc shape, wherein the door guide fin is inserted into the door guide rail and slides along the door guide rail , and wherein the door guide rail is disposed on the front side of the blowing fan covers .
A pre-impregnated part , usable in a thermoplastic manner, and intended to manufacture a finished part made from composite material, the pre-impregnated part comprising: - a main layer made from a first composite material including a first matrix made from a thermoplastic material and first reinforcing fibers embedded in the first matrix , the main layer being obtained from a main complex including at least a first layer of fibers comprising at least the first reinforcing fibers and at least a first layer of matrix comprising the thermoplastic material, - a reinforcing layer made from a second composite material including a second matrix made from a thermoplastic material and second reinforcing fibers embedded in the second matrix , the reinforcing layer being obtained from a reinforcing complex including at least a second layer of fibers comprising at least the second reinforcing fibers and at least a second matrix layer comprising the thermoplastic material, said reinforcing layer being fastened on at least a portion of the main layer , the pre-impregnated part having the flattened shape of at least a portion of the finished part to be manufactured from said pre-impregnated part , characterised in that the surface of the main layer is smaller than the developed surface of the part to be manufactured. - a main layer made from a first composite material including a first matrix made from a thermoplastic material and first reinforcing fibers embedded in the first matrix , the main layer being obtained from a main complex including at least a first layer of fibers comprising at least the first reinforcing fibers and at least a first layer of matrix comprising the thermoplastic material, - a reinforcing layer made from a second composite material including a second matrix made from a thermoplastic material and second reinforcing fibers embedded in the second matrix , the reinforcing layer being obtained from a reinforcing complex including at least a second layer of fibers comprising at least the second reinforcing fibers and at least a second matrix layer comprising the thermoplastic material, said reinforcing layer being fastened on at least a portion of the main layer , the pre-impregnated part having the flattened shape of at least a portion of the finished part to be manufactured from said pre-impregnated part , characterised in that the surface of the main layer is smaller than the developed surface of the part to be manufactured.
A centrifugal compressor comprising: an impeller ; and a housing having a scroll passage of spiral shape formed on an outer peripheral side of the impeller , characterized in that , when a circumferential-directional position of the scroll passage is represented by an angular position with respect to a scroll end of the scroll passage , and in a cross-section obtained by cutting the scroll passage along a plane including a rotational axis (L) of the impeller at a circumferential-directional position where the angular position is θ, F(θ) is defined as: F θ = A / R / r , where A is a cross-sectional area of the scroll passage , R is a distance from the rotational axis (L) to a scroll center (Os) of the cross-section of the scroll passage , and r is a radius of the impeller , 0.35 ≤ F 360 ° ≤ 0.65 , and 0.08 × F 360 ° ≤ F 60 ° ≤ 0.4 × F 360 ° , and wherein, when a reference change rate Δ which is a change rate of F(θ) in a range of θ from 60° to 360° is defined as: Δ = F 360 ° − F 60 ° / 360 ° − 60 ° , the scroll passage includes a first region where F(θ) changes at a smaller change rate than the reference change rate at least partially in a range of θ from 60° to 270°, wherein the first region includes: a change rate decreasing region where the change rate of F(θ) decreases; and a change rate increasing region, downstream of the change rate decreasing region, where the change rate of F(θ) increases. an impeller ; and a housing having a scroll passage of spiral shape formed on an outer peripheral side of the impeller , characterized in that , when a circumferential-directional position of the scroll passage is represented by an angular position with respect to a scroll end of the scroll passage , and in a cross-section obtained by cutting the scroll passage along a plane including a rotational axis (L) of the impeller at a circumferential-directional position where the angular position is θ, F(θ) is defined as: F θ = A / R / r , where A is a cross-sectional area of the scroll passage , R is a distance from the rotational axis (L) to a scroll center (Os) of the cross-section of the scroll passage , and r is a radius of the impeller , 0.35 ≤ F 360 ° ≤ 0.65 , and 0.08 × F 360 ° ≤ F 60 ° ≤ 0.4 × F 360 ° , and wherein, when a reference change rate Δ which is a change rate of F(θ) in a range of θ from 60° to 360° is defined as: Δ = F 360 ° − F 60 ° / 360 ° − 60 ° , the scroll passage includes a first region where F(θ) changes at a smaller change rate than the reference change rate at least partially in a range of θ from 60° to 270°, wherein the first region includes: a change rate decreasing region where the change rate of F(θ) decreases; and a change rate increasing region, downstream of the change rate decreasing region, where the change rate of F(θ) increases. a change rate decreasing region where the change rate of F(θ) decreases; and a change rate increasing region, downstream of the change rate decreasing region, where the change rate of F(θ) increases.
Use in Organic Rankin Cycle of an azeotrope-like composition comprising from 1 to 85 % by weight of E-1,1,1,4,4,4-hexafluoro-2-butene and 15 to 99 % by weight of E-1-chloro-3,3,3-trifluoropropene.
A method for transmitting and receiving information with a base Station, BS, by a User Equipment, UE, in a wireless communication system, the method comprising: receiving downlink control information, DCI, for cross carrier scheduling from the BS through a licensed band among serving cells configured for the UE, wherein the DCI includes information on scheduling of a Physical Uplink Shared CHannel, PUSCH, through an unlicensed band among the serving cells and information on a starting position of the PUSCH through the unlicensed band among the serving cells, performing a carrier sensing on the unlicensed band for a time duration, transmitting second information on the starting position of the PUSCH to the BS in an uplink resource of the licensed band, and transmitting the PUSCH through the unlicensed band based on the DCI when the unlicensed band is sensed to be idle during the time duration. receiving downlink control information, DCI, for cross carrier scheduling from the BS through a licensed band among serving cells configured for the UE, wherein the DCI includes information on scheduling of a Physical Uplink Shared CHannel, PUSCH, through an unlicensed band among the serving cells and information on a starting position of the PUSCH through the unlicensed band among the serving cells, performing a carrier sensing on the unlicensed band for a time duration, transmitting second information on the starting position of the PUSCH to the BS in an uplink resource of the licensed band, and transmitting the PUSCH through the unlicensed band based on the DCI when the unlicensed band is sensed to be idle during the time duration.
A method for recovering power in a hydroprocessing process comprising: combining a hydrocarbon feed stream with a first portion of a hydrogen stream to form a combined feed stream; heating the combined feed stream; introducing the heated combined feed stream into a hydroprocessing reaction zone having at least two hydroprocessing beds ; contacting the combined heated feed stream with a first hydroprocessing catalyst at first hydroprocessing conditions to form a first hydroprocessed stream; combining a first part of a second portion of the hydrogen stream with the first hydroprocessed stream to form a first quenched hydroprocessed stream ; contacting the first quenched hydroprocessed stream with a second hydroprocessing catalyst at second hydroprocessing conditions to form a second hydroprocessed stream; directing at least a portion of the at least second portion of the hydrogen stream through a power-recovery turbine to generate electric power therefrom. combining a hydrocarbon feed stream with a first portion of a hydrogen stream to form a combined feed stream; heating the combined feed stream; introducing the heated combined feed stream into a hydroprocessing reaction zone having at least two hydroprocessing beds ; contacting the combined heated feed stream with a first hydroprocessing catalyst at first hydroprocessing conditions to form a first hydroprocessed stream; combining a first part of a second portion of the hydrogen stream with the first hydroprocessed stream to form a first quenched hydroprocessed stream ; contacting the first quenched hydroprocessed stream with a second hydroprocessing catalyst at second hydroprocessing conditions to form a second hydroprocessed stream; directing at least a portion of the at least second portion of the hydrogen stream through a power-recovery turbine to generate electric power therefrom.
The non-therapeutic cosmetic use of a polypeptide comprising multiple alpha-linked lysine residues as an antiperspirant agent, wherein the polypeptide is an alpha-linked homopolypeptide of lysine having a molecular weight of from 15,000 to 30,000.
A magnetic flowmeter flowtube assembly comprising: a conduit having a first end and a second end ; a first neck flange coupled to the first end , the first neck flange having an inside diameter forming the inner surface of the flowtube with a first notch extending radially outwardly therefrom; a second neck flange coupled to the second end , the second neck flange having an inside diameter forming the inner surface of the flowtube with a second notch extending radially outwardly therefrom; a fluoropolymer liner disposed within and extending through the first neck flange , the conduit and the second neck flange ; a pair of electrodes mounted relative to the liner to measure a voltage induced within a process fluid flowing through the liner ; characterised by a first spring-energized seal ring disposed in the first notch ; and a second spring-energized seal ring disposed in the second notch . a conduit having a first end and a second end ; a first neck flange coupled to the first end , the first neck flange having an inside diameter forming the inner surface of the flowtube with a first notch extending radially outwardly therefrom; a second neck flange coupled to the second end , the second neck flange having an inside diameter forming the inner surface of the flowtube with a second notch extending radially outwardly therefrom; a fluoropolymer liner disposed within and extending through the first neck flange , the conduit and the second neck flange ; a pair of electrodes mounted relative to the liner to measure a voltage induced within a process fluid flowing through the liner ; characterised by a first spring-energized seal ring disposed in the first notch ; and a second spring-energized seal ring disposed in the second notch .
A medical instrument comprising a main pipe and a side pipe having a branch flow path branching from a flow path of the main pipe , wherein speed reducing means is provided for reducing a speed, in an axial direction of the main pipe , of a portion of liquid that flows in the flow path of the main pipe , the portion being a portion that flows along a part of an inner circumferential surface of the main pipe , which is located on a side of the main pipe on which the branch flow path is located, characterized in that the speed reducing means has an opening formed in the inner circumferential surface of the main pipe and a step section , which forms a space between the opening and a tip, on the main pipe side, of the branch flow path , and wherein the flow path of the main pipe and the branch flow path of the side pipe communicate with each other by way of the opening . characterized in that the speed reducing means has an opening formed in the inner circumferential surface of the main pipe and a step section , which forms a space between the opening and a tip, on the main pipe side, of the branch flow path , and wherein the flow path of the main pipe and the branch flow path of the side pipe communicate with each other by way of the opening .
A method for authenticating a WiFi network, comprising: sending (1, S501), by a terminal, when determining that a WiFi network exists in an area in which the terminal is located, a request message to an associated authentication center, wherein the request message carries a user identifier, and receiving (3, S504) access verification information sent by the associated authentication center and allocated by the associated authentication center to a user represented by the user identifier; sending , by the terminal, a login request to a WiFi authentication center in the WiFi network, wherein the login request carries the access verification information, and receiving (8, S509) authentication information fed back by the WiFi authentication center and used to respond to the login request, wherein the authentication information carries a user identifier that corresponds to the access verification information and is obtained by the WiFi authentication center from the associated authentication center; and determining (9, S510), by the terminal when the user identifier carried in the authentication information is the same as the user identifier carried in the request message, that the WiFi network is a secure network. sending (1, S501), by a terminal, when determining that a WiFi network exists in an area in which the terminal is located, a request message to an associated authentication center, wherein the request message carries a user identifier, and receiving (3, S504) access verification information sent by the associated authentication center and allocated by the associated authentication center to a user represented by the user identifier; sending , by the terminal, a login request to a WiFi authentication center in the WiFi network, wherein the login request carries the access verification information, and receiving (8, S509) authentication information fed back by the WiFi authentication center and used to respond to the login request, wherein the authentication information carries a user identifier that corresponds to the access verification information and is obtained by the WiFi authentication center from the associated authentication center; and determining (9, S510), by the terminal when the user identifier carried in the authentication information is the same as the user identifier carried in the request message, that the WiFi network is a secure network.