mhurhangee/patent-ind-claim-en huggingface dataset:
A housing member , configured to accommodate a receiver audio assembly , the housing member comprises a rear shell , a middle frame and a sound transmission gap for sound transmission; wherein the rear shell and the middle frame define an accommodating cavity for accommodating the receiver audio assembly , characterized in that the accommodating cavity is provided with an opening for sound transmission, and the opening is opposite to the rear shell ; and wherein the middle frame is provided with a sound transmission channel which is disposed inside the middle frame and passes through the middle frame , and the accommodating cavity communicates with the sound transmission channel and the sound transmission gap via the opening . the accommodating cavity is provided with an opening for sound transmission, and the opening is opposite to the rear shell ; and wherein the middle frame is provided with a sound transmission channel which is disposed inside the middle frame and passes through the middle frame , and the accommodating cavity communicates with the sound transmission channel and the sound transmission gap via the opening .
An aqueous solution comprising an antibody protein which is a monoclonal antibody wherein the antibody protein is an IgG immunoglobulin present at a concentration of 10 to 200 mg/ml and a stabilizing mixture of (i) a chelating agent which is EDTA present at a concentration of 0.1 to 10 mM; (ii) a C3 polyol which is selected from glycerol and 1,2-propanediol present at a concentration of 100 to 500 mM; (iii) a non-ionic surfactant present at a concentration of 10 to 2000 μg/mL and (iv) a buffer.
Evolved Node B (eNodeB) connectable to a communication network, the eNodeB comprising a first interface and a second interface , wherein the first interface is connected to a mobile management entity (MME) of the network, in which the second interface is local to the eNodeB and in which the second interface is connected to a content delivery network (CDN) for the communication network and in which the first interface is a S1-AP interface, wherein the eNodeB is configured to: - retrieve parameters of a CDN bearer connected to the MME from the first interface and - recognize and reroute transparently the CDN bearer traffic through the local interface. - retrieve parameters of a CDN bearer connected to the MME from the first interface and - recognize and reroute transparently the CDN bearer traffic through the local interface.
An arc welding control method of performing arc welding by periodically repeating a first heat input period (Th) having a first heat input amount and a second heat input period (Tc) having a second heat input amount to a welding subject using a welding wire that is a consumable electrode, wherein each of the first heat input period (Th) and the second heat input period (Tc) includes a short-circuit period (Ts) and an arc period (Ta), and the release of short-circuit is detected during the short-circuit period (Ts) in the second heat input period (Tc), characterized in that , when the release of the short-circuit is detected during the short-circuit period (Ts) in the second heat input period (Tc), a welding current during the arc period (Ta) in the second heat input period (Tc) is set to be less than a current immediately before the release of the short-circuit, and the welding current during the arc period (Ta) in the second heat input period (Tc) is set to be less than a welding current during the arc period (Ta) in the first heat input period (Th), or a total sum of energy indicated by an integral of the welding current over time during the arc period (Ta) in the second heat input period (Tc) is set to be less than a total sum of energy indicated by an integral of the welding current over time during the arc period (Ta) in the first heat input period (Th).
A gate valve apparatus, comprising: a housing defining a flow path ; a first valve seat located within the housing around a periphery of the flow path and comprising a first peripheral seal surface ; and a gate valve member which is moveable laterally across the flow path between a first position in which the flow path is open and a second position in which the flow path is closed; a first cutter provided on an edge region of a first surface of the gate valve member to be moveable across the flow path with the gate valve member along a first cutting plane ; and a first seal pocket defined by a depression in the first surface of the gate valve member , wherein a second peripheral seal surface is provided within the first seal pocket , wherein the first valve seat and the gate valve member are axially moveable relative to each other to permit a portion of the first valve seat to become received into the first seal pocket of the gate valve member when said gate valve member is located within its second position to provide sealing engagement between the first and second peripheral seal surfaces . a housing defining a flow path ; a first valve seat located within the housing around a periphery of the flow path and comprising a first peripheral seal surface ; and a gate valve member which is moveable laterally across the flow path between a first position in which the flow path is open and a second position in which the flow path is closed; a first cutter provided on an edge region of a first surface of the gate valve member to be moveable across the flow path with the gate valve member along a first cutting plane ; and a first seal pocket defined by a depression in the first surface of the gate valve member , wherein a second peripheral seal surface is provided within the first seal pocket , wherein the first valve seat and the gate valve member are axially moveable relative to each other to permit a portion of the first valve seat to become received into the first seal pocket of the gate valve member when said gate valve member is located within its second position to provide sealing engagement between the first and second peripheral seal surfaces .
A belt installation tool to be installed on an outer periphery of a first pulley for use in winding a belt stretchable in a peripheral direction between the first pulley and a second pulley with an inter-axial distance between the first pulley and the second pulley remaining fixed, wherein the belt installation tool comprises: a pulley pressing part arranged on the outer periphery of the first pulley and, when the belt is wound thereon, capable of being pressed toward the outer periphery of the first pulley by a tension of the belt ; a belt hold part for hooking and holding a part deviated from the outer periphery of the first pulley , of the belt wound on the pulley pressing part ; and a belt pressing part arranged opposed to the outer periphery of the first pulley for pressing a part extending along the outer periphery of the first pulley , of the belt wound on the pulley pressing part , against the outer periphery of the first pulley , wherein the pulley pressing part comprises a plate section and a friction member disposed on a first pulley side of the plate section for enhancing the frictional force between the pulley pressing part and the outer periphery of the first pulley , characterized in that a protection layer having elasticity is arranged on the friction member on a side of the outer periphery of the first pulley so as to come into contact with the outer periphery of the first pulley when the belt installation tool is installed on the outer periphery of the first pulley , wherein the protection layer is attached to the inner-peripheral-surface side of the friction member . a pulley pressing part arranged on the outer periphery of the first pulley and, when the belt is wound thereon, capable of being pressed toward the outer periphery of the first pulley by a tension of the belt ; a belt hold part for hooking and holding a part deviated from the outer periphery of the first pulley , of the belt wound on the pulley pressing part ; and a belt pressing part arranged opposed to the outer periphery of the first pulley for pressing a part extending along the outer periphery of the first pulley , of the belt wound on the pulley pressing part , against the outer periphery of the first pulley , wherein the pulley pressing part comprises a plate section and a friction member disposed on a first pulley side of the plate section for enhancing the frictional force between the pulley pressing part and the outer periphery of the first pulley ,
Coupling guard for a rotor , the coupling guard comprising: - a housing configured for enclosing the rotor in an inner space of the housing , said housing being configured for extending longitudinally along a length of the rotor around an axis of longitudinal extension (LH) of the housing in order to surround at least said length of the rotor ; - a ventilation system for creating a flow of gas in said inner space from a housing gas inlet to a housing gas outlet from which the gas is exhausted outside of the housing ; wherein the gas inlet comprises a pipe extending along a pipe longitudinal axis (L) from outside to inside the housing , said pipe comprising a first opening located outside the housing and a second opening located inside the housing in said inner space , the pipe being configured for having its second opening close to the rotor when the housing encloses the latter, the second opening comprising at least a curved edge (C1) wherein a projection of the curved edge (C1) onto a plane extending parallel to the longitudinal axis (L) of the pipe and parallel to the axis of longitudinal extension (LH) is a segment of curve, characterized in that said curved edge (C1) is obtained as an intersection of a plane with the pipe , wherein said plane is parallel to the housing axis of longitudinal extension (LH) and tilted of an acute angle with respect to the longitudinal axis (L). - a housing configured for enclosing the rotor in an inner space of the housing , said housing being configured for extending longitudinally along a length of the rotor around an axis of longitudinal extension (LH) of the housing in order to surround at least said length of the rotor ; - a ventilation system for creating a flow of gas in said inner space from a housing gas inlet to a housing gas outlet from which the gas is exhausted outside of the housing ; wherein the gas inlet comprises a pipe extending along a pipe longitudinal axis (L) from outside to inside the housing , said pipe comprising a first opening located outside the housing and a second opening located inside the housing in said inner space , the pipe being configured for having its second opening close to the rotor when the housing encloses the latter, the second opening comprising at least a curved edge (C1) wherein a projection of the curved edge (C1) onto a plane extending parallel to the longitudinal axis (L) of the pipe and parallel to the axis of longitudinal extension (LH) is a segment of curve, characterized in that said curved edge (C1) is obtained as an intersection of a plane with the pipe , wherein said plane is parallel to the housing axis of longitudinal extension (LH) and tilted of an acute angle with respect to the longitudinal axis (L).
A process for making yeast-derived soluble mannan-oligosaccharide comprising: washing yeast cell wall with water and separating the soluble and insoluble material; extracting mannan-oligosaccharide from the insoluble material with base; separating the soluble mannan-oligosaccharide solution from insoluble material; quenching the soluble mannan-oligosaccharide solution with acid; concentrating the soluble mannan-oligosaccharide solution; adding yeast cell wall solution to the soluble mannan-oligosaccharide solution; and spray-drying the yeast cell wall and soluble mannan-oligosaccharide solution. washing yeast cell wall with water and separating the soluble and insoluble material; extracting mannan-oligosaccharide from the insoluble material with base; separating the soluble mannan-oligosaccharide solution from insoluble material; quenching the soluble mannan-oligosaccharide solution with acid; concentrating the soluble mannan-oligosaccharide solution; adding yeast cell wall solution to the soluble mannan-oligosaccharide solution; and spray-drying the yeast cell wall and soluble mannan-oligosaccharide solution.
A method for displaying contents in a smart home environment, comprising: measuring a network status of each of a plurality of terminal devices included in a home network which configures the smart home environment, wherein the measuring the network status includes measuring an available bandwidth; recognizing terminal information including a location and a property of each terminal device; and displaying each terminal device and the network status and the terminal information thereof on a screen of a mobile terminal through which a user is currently reproducing the contents, wherein each terminal device is capable of reproducing the contents, when the user selects any one of the displayed terminal devices, adjusting a quality of the contents in accordance with the network status and the terminal information of the selected terminal device, reproducing the contents having quality adjusted in accordance with the network status and the terminal information of the terminal device selected through the selected terminal device, and wherein the displaying of each terminal device comprises each terminal device being displayed as an icon, wherein a location of the icon indicates a location of each terminal device in the smart home environment and a size of the icon indicates a resolution of the terminal device, wherein connection lines to each terminal device are displayed and a thickness of the connection lines indicates the measured available bandwidth. measuring a network status of each of a plurality of terminal devices included in a home network which configures the smart home environment, wherein the measuring the network status includes measuring an available bandwidth; recognizing terminal information including a location and a property of each terminal device; and displaying each terminal device and the network status and the terminal information thereof on a screen of a mobile terminal through which a user is currently reproducing the contents, wherein each terminal device is capable of reproducing the contents, when the user selects any one of the displayed terminal devices, adjusting a quality of the contents in accordance with the network status and the terminal information of the selected terminal device, reproducing the contents having quality adjusted in accordance with the network status and the terminal information of the terminal device selected through the selected terminal device, and wherein the displaying of each terminal device comprises each terminal device being displayed as an icon, wherein a location of the icon indicates a location of each terminal device in the smart home environment and a size of the icon indicates a resolution of the terminal device, wherein connection lines to each terminal device are displayed and a thickness of the connection lines indicates the measured available bandwidth.
An antenna failure compensation method, comprising: performing a channel estimation based on a received pilot symbol to obtain a channel estimation value (S201); obtaining noise energy of each antenna based on the channel estimation value (S202); correcting an estimated frequency offset value based on the noise energy (S203), wherein correcting the estimated frequency offset value based on the noise energy is performed according to the following formula: Δ f adjust = Δ φ adjust 2 π × Δ t , where Δ f adjust is the corrected estimated frequency offset value, and Δ φ adjust is a corrected phase difference, wherein Δ φ adjust = angle ∑ ka Rx = 0 ka Rx − 1 Δ P ka Rx / NI ka Rx , where Δ P ka Rx = ∑ k = 0 M − 1 H k ka Rx 1 × conj H k ka Rx 0 , NI ka Rx is the noise energy, H ( k,ka Rx ,i ) is the channel estimation value, k is a carrier index number, ka Rx is an antenna index number, i is a time slot index number, M is the number of carriers, and Δ t is an interval between time slots; and performing a frequency offset compensation based on the corrected estimated frequency offset value (S204). performing a channel estimation based on a received pilot symbol to obtain a channel estimation value (S201); obtaining noise energy of each antenna based on the channel estimation value (S202); correcting an estimated frequency offset value based on the noise energy (S203), wherein correcting the estimated frequency offset value based on the noise energy is performed according to the following formula: Δ f adjust = Δ φ adjust 2 π × Δ t , where Δ f adjust is the corrected estimated frequency offset value, and Δ φ adjust is a corrected phase difference, wherein Δ φ adjust = angle ∑ ka Rx = 0 ka Rx − 1 Δ P ka Rx / NI ka Rx , where Δ P ka Rx = ∑ k = 0 M − 1 H k ka Rx 1 × conj H k ka Rx 0 , NI ka Rx is the noise energy, H ( k,ka Rx ,i ) is the channel estimation value, k is a carrier index number, ka Rx is an antenna index number, i is a time slot index number, M is the number of carriers, and Δ t is an interval between time slots; and performing a frequency offset compensation based on the corrected estimated frequency offset value (S204).
A method for forming a solidified isolation material downhole at or about an isolation location in an open or cased wellbore, the solidified isolation material being formed from mixing of two or more chemical components, the method comprising: extending a retrievable delivery sub-system downhole to the isolation location, the delivery sub-system comprising a tubing assembly having at least two fluidly separated delivery channels (TA, TB); delivering the two or more chemical components downhole to the isolation location through the delivery sub-system , each delivery channel (TA, TB) delivering at least one of the two or more chemical components; mixing the two or more chemical components in a downhole injection tool to form a solidifying isolation mixture wherein the solidifying isolation mixture solidifies to the solidified isolation material after a period of time; and injecting via a mixing tube the solidifying isolation mixture into the wellbore at or about the isolation location, the mixing tube being capable of being sheared off from the downhole injection tool under a pulling force; applying a pulling force to the downhole injection tool for shearing off the mixing tube ; and removing the delivery sub-system and the downhole injection tool from the isolation location. extending a retrievable delivery sub-system downhole to the isolation location, the delivery sub-system comprising a tubing assembly having at least two fluidly separated delivery channels (TA, TB); delivering the two or more chemical components downhole to the isolation location through the delivery sub-system , each delivery channel (TA, TB) delivering at least one of the two or more chemical components; mixing the two or more chemical components in a downhole injection tool to form a solidifying isolation mixture wherein the solidifying isolation mixture solidifies to the solidified isolation material after a period of time; and injecting via a mixing tube the solidifying isolation mixture into the wellbore at or about the isolation location, the mixing tube being capable of being sheared off from the downhole injection tool under a pulling force; applying a pulling force to the downhole injection tool for shearing off the mixing tube ; and removing the delivery sub-system and the downhole injection tool from the isolation location.
A liquid discharging apparatus comprising: a head having a nozzle configured to discharge a liquid ; a reservoir configured to store the liquid such that the liquid has a liquid surface (LS), and such that the liquid surface is positioned higher than an opening of the nozzle in a state that the reservoir stores the liquid of a maximum storable amount, the maximum storable amount being a maximum amount of the liquid capable of being stored in the reservoir; characterized by comprising: an atmosphere port connecting a gas layer of the reservoir and outside of the reservoir, the gas layer being positioned in the reservoir and above the liquid surface, wherein an inner diameter d of the nozzle and a head difference h satisfy the expression of phd / σcosθ ≤ 4 / g, provided that ρ is a specific weight of the liquid, σ is a surface tension of the liquid, θ is a contact angle of the liquid in the nozzle and g is gravitational acceleration, the head difference h being a difference in height between a meniscus formed in the opening of the nozzle and an upper end of the atmosphere port. a head having a nozzle configured to discharge a liquid ; a reservoir configured to store the liquid such that the liquid has a liquid surface (LS), and such that the liquid surface is positioned higher than an opening of the nozzle in a state that the reservoir stores the liquid of a maximum storable amount, the maximum storable amount being a maximum amount of the liquid capable of being stored in the reservoir; characterized by comprising: an atmosphere port connecting a gas layer of the reservoir and outside of the reservoir, the gas layer being positioned in the reservoir and above the liquid surface, wherein an inner diameter d of the nozzle and a head difference h satisfy the expression of phd / σcosθ ≤ 4 / g, provided that ρ is a specific weight of the liquid, σ is a surface tension of the liquid, θ is a contact angle of the liquid in the nozzle and g is gravitational acceleration, the head difference h being a difference in height between a meniscus formed in the opening of the nozzle and an upper end of the atmosphere port. an atmosphere port connecting a gas layer of the reservoir and outside of the reservoir, the gas layer being positioned in the reservoir and above the liquid surface, wherein an inner diameter d of the nozzle and a head difference h satisfy the expression of phd / σcosθ ≤ 4 / g, provided that ρ is a specific weight of the liquid, σ is a surface tension of the liquid, θ is a contact angle of the liquid in the nozzle and g is gravitational acceleration, the head difference h being a difference in height between a meniscus formed in the opening of the nozzle and an upper end of the atmosphere port.
A thermal storage system for use with a gas turbine engine having an intercooler , comprising: a secondary cooler configured to be in communication with the intercooler when in use; a thermal energy storage tank configured to be in communication with the secondary cooler and the intercooler when in use; and a temperature conditioning device positioned about the gas turbine engine when in use and in communication with the thermal energy storage tank; the temperature conditioning device comprises an inlet heat exchange coil configured to provide heat or cooling about the gas turbine engine; the thermal storage system further comprising a chiller in communication with the inlet heat exchange coil and the thermal energy storage tank and a chiller by-pass line around the chiller. a secondary cooler configured to be in communication with the intercooler when in use; a thermal energy storage tank configured to be in communication with the secondary cooler and the intercooler when in use; and a temperature conditioning device positioned about the gas turbine engine when in use and in communication with the thermal energy storage tank; the temperature conditioning device comprises an inlet heat exchange coil configured to provide heat or cooling about the gas turbine engine; the thermal storage system further comprising a chiller in communication with the inlet heat exchange coil and the thermal energy storage tank and a chiller by-pass line around the chiller.