mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna system comprising: an antenna adapted for transmitting or receiving an electromagnetic wave or signal; an array of lenses configured to control the direction of the electromagnetic wave or signal, characterised in that each lens in the array is independently controllable; and the antenna system further comprises a controller for receiving position information of the lenses and a desired objective beam pattern of the antenna system, wherein the controller is adapted to utilize the position information to configure the angular position of each lens in the array such that the array of lenses produces a plurality of beams providing the desired objective beam pattern. an antenna adapted for transmitting or receiving an electromagnetic wave or signal; an array of lenses configured to control the direction of the electromagnetic wave or signal, characterised in that each lens in the array is independently controllable; and the antenna system further comprises a controller for receiving position information of the lenses and a desired objective beam pattern of the antenna system, wherein the controller is adapted to utilize the position information to configure the angular position of each lens in the array such that the array of lenses produces a plurality of beams providing the desired objective beam pattern.
An inhibitor of ClpP for use in a method of treating an individual with obesity and/or diabetes, the method comprising administering the inhibitor of ClpP to the individual in an amount effective for decreasing an amount of fat tissue in the individual, preventing or reducing weight gain of the individual, increasing insulin sensitivity of the individual, and/or increasing glucose tolerance of the individual.
Method for determining an arc on a power transmission line (K1-K3, L1-L3), wherein at least one test signal (U11, U21, U31, U41) is coupled into the power transmission line (K1-K3, L1-L3) and an interference signal at an interference point , which is formed by the arc, is generated along the power transmission line (K1-K3, L1-L3) with the aid of the at least one test signal (U11, U21, U31, U41), which interference signal is acquired as at least one measuring signal (U12, U22) and the arc is determined from the at least one measuring signal (U12, U22), characterised in that the arc is determined by detecting at least one intermodulation product from the at least one test signal (U11, U21, U31, U41) and the mains signal of the power transmission line (K1-K3, L1-L3) in the at least one measuring signal (U12, U22).
An operation support system for a construction machine, the operation support system comprising: an environmental information acquisition unit configured to obtain environmental information of the construction machine to be supported; a generator configured to generate multiple operation patterns or multiple arrangement patterns for the construction machine such that a rating regarding a predetermined target index becomes relatively high, the generator including a simulator configured to simulate movements included in an operation based on input conditions or simulate an operation related to an arrangement of the construction machine to be supported to generate an operation pattern that is included in the multiple operation patterns or an arrangement pattern that is included in the multiple arrangement patterns; and a reinforcement learning unit 2 . configured to select, based on the multiple operation patterns or the multiple arrangement patterns generated by the generator, an operation pattern or an arrangement pattern with which the rating regarding the predetermined target index of an operation of the construction machine to be supported becomes relatively high under an environment corresponding to the environmental information obtained by the environmental information acquisition unit; and an output unit configured to output the operation pattern or the arrangement pattern selected by the reinforcement learning unit. an environmental information acquisition unit configured to obtain environmental information of the construction machine to be supported; a generator configured to generate multiple operation patterns or multiple arrangement patterns for the construction machine such that a rating regarding a predetermined target index becomes relatively high, the generator including a simulator configured to simulate movements included in an operation based on input conditions or simulate an operation related to an arrangement of the construction machine to be supported to generate an operation pattern that is included in the multiple operation patterns or an arrangement pattern that is included in the multiple arrangement patterns; and a reinforcement learning unit 2 . configured to select, based on the multiple operation patterns or the multiple arrangement patterns generated by the generator, an operation pattern or an arrangement pattern with which the rating regarding the predetermined target index of an operation of the construction machine to be supported becomes relatively high under an environment corresponding to the environmental information obtained by the environmental information acquisition unit; and an output unit configured to output the operation pattern or the arrangement pattern selected by the reinforcement learning unit.
A method for determining a synthesized engine parameter of a gas turbine engine , comprising: obtaining an initial model parameter from an onboard model associated with the gas turbine engine ; determining a correction factor for the onboard model by modifying a difference between the onboard model and an aero-thermal model of the gas turbine engine using first and second engine parameters and first and second operating conditions , wherein the first and second engine parameters are independent from one another over an operating envelope of the gas turbine engine ; scaling the initial model parameter by applying the correction factor thereto to obtain a corrected model parameter ; and outputting the corrected model parameter as the synthesized engine parameter. obtaining an initial model parameter from an onboard model associated with the gas turbine engine ; determining a correction factor for the onboard model by modifying a difference between the onboard model and an aero-thermal model of the gas turbine engine using first and second engine parameters and first and second operating conditions , wherein the first and second engine parameters are independent from one another over an operating envelope of the gas turbine engine ; scaling the initial model parameter by applying the correction factor thereto to obtain a corrected model parameter ; and outputting the corrected model parameter as the synthesized engine parameter.
Method for producing a wrought product made of an aluminium alloy wherein: a) a molten metal bath having an aluminium base is produced, composed, in wt%, of Mg: 3.8-4.2; Mn: 0.3 - 0.8 and preferably 0.5-0.7; Sc: 0.1-0.3; Zn: 0.1-0.4; Ti: 0.01 - 0.05 and preferably 0.015-0.030; Zr: 0.07 - 0.15 and preferably 0.08-0.12; Cr: ≤ 0.01; Fe: ≤ 0.15; Si < 0.1; other elements ≤ 0.05 each and ≤ 0.15 combined, the remainder being aluminium; b) an unwrought product is cast from said metal bath; c) said unwrought product is homogenised at a temperature that lies in the range 370°C to 450°C, for a duration that lies in the range 2 to 50 hours such that the equivalent time at 400°C lies in the range 5 to 100 hours, the equivalent time t(eq) at 400°C being defined by the formula: t eq = ∫ exp − 29122 / T dt exp − 29122 / T ref where T is the current temperature expressed in Kelvin, which changes over time t (in hours) and Tref is a reference temperature of 400°C (673 K), t(eq) being expressed in hours, the constant Q/R = 29122 K being derived from the activation energy for the diffusion of Zr, Q = 242000 J/mol, d) the unwrought product thus homogenised is hot-worked with an initial temperature in the range 350°C to 450°C and is optionally cold-worked; e) a flattening and/or straightening process is optionally carried out; f) an annealing process is optionally carried out at a temperature that lies in the range 300°C to 350°C. a) a molten metal bath having an aluminium base is produced, composed, in wt%, of Mg: 3.8-4.2; Mn: 0.3 - 0.8 and preferably 0.5-0.7; Sc: 0.1-0.3; Zn: 0.1-0.4; Ti: 0.01 - 0.05 and preferably 0.015-0.030; Zr: 0.07 - 0.15 and preferably 0.08-0.12; Cr: ≤ 0.01; Fe: ≤ 0.15; Si < 0.1; other elements ≤ 0.05 each and ≤ 0.15 combined, the remainder being aluminium; Mg: 3.8-4.2; Mn: 0.3 - 0.8 and preferably 0.5-0.7; Sc: 0.1-0.3; Zn: 0.1-0.4; Ti: 0.01 - 0.05 and preferably 0.015-0.030; Zr: 0.07 - 0.15 and preferably 0.08-0.12; Cr: ≤ 0.01; Fe: ≤ 0.15; Si < 0.1; other elements ≤ 0.05 each and ≤ 0.15 combined, the remainder being aluminium; b) an unwrought product is cast from said metal bath; c) said unwrought product is homogenised at a temperature that lies in the range 370°C to 450°C, for a duration that lies in the range 2 to 50 hours such that the equivalent time at 400°C lies in the range 5 to 100 hours, the equivalent time t(eq) at 400°C being defined by the formula: t eq = ∫ exp − 29122 / T dt exp − 29122 / T ref where T is the current temperature expressed in Kelvin, which changes over time t (in hours) and Tref is a reference temperature of 400°C (673 K), t(eq) being expressed in hours, the constant Q/R = 29122 K being derived from the activation energy for the diffusion of Zr, Q = 242000 J/mol, d) the unwrought product thus homogenised is hot-worked with an initial temperature in the range 350°C to 450°C and is optionally cold-worked; e) a flattening and/or straightening process is optionally carried out; f) an annealing process is optionally carried out at a temperature that lies in the range 300°C to 350°C.
A hydraulic flow boost arrangement comprising a first port , a second port and a tank for a working fluid, further comprising a first displacement-type ring gear machine having a first internal gear and a second displacement-type ring gear machine having a second internal gear, wherein an inlet port of the first ring gear machine is connected to the first port and an outlet port of the second ring gear machine is connected to the second port , wherein the first displacement-type ring gear machine is a motor and wherein second displacement-type ring gear machine is a pump, wherein the tank is in fluid communication to a first tank connection line for the working fluid, wherein a first shaft of the first internal gear and a second shaft of the second internal gear are connected such that the first shaft and the second shaft rotate with the same rotational speed, wherein a first displacement volume (V1) of the first ring gear machine is different from a second displacement volume (V2) of the second ring gear machine , wherein an inlet port of the second ring gear machine is connected to an outlet port of the first gear machine and the first tank connection line , wherein the tank is in fluid communication to the first tank connection line via a check valve means , wherein the check valve means is configured to prevent backflow of working fluid from the output port of the first ring gear machine into the tank .
A method for the integrated production of chemicals comprising the steps of: a) in a first reaction zone, contacting an epoxide in the presence of a carbonylation catalyst with a syngas stream containing hydrogen and carbon monoxide thereby causing carbon monoxide in the industrial gas which is a syngas stream to react with the epoxide to provide an epoxide carbonylation product, and b) removing an upgraded gas stream from the first reaction zone wherein the upgraded gas stream has a higher hydrogen to carbon monoxide (CO) than the starting syngas stream. a) in a first reaction zone, contacting an epoxide in the presence of a carbonylation catalyst with a syngas stream containing hydrogen and carbon monoxide thereby causing carbon monoxide in the industrial gas which is a syngas stream to react with the epoxide to provide an epoxide carbonylation product, and b) removing an upgraded gas stream from the first reaction zone wherein the upgraded gas stream has a higher hydrogen to carbon monoxide (CO) than the starting syngas stream.
A vial assembly comprising: a vial comprising a vial body and a vial neck , the vial neck having a syringe interface ; and a vial cap having a central opening including a threaded segment that engages the syringe interface characterised in that the vial assembly further comprises a plug , said plug having a lower stopper portion that fits within the vial neck and an upper portion that attaches to an upper portion of the vial cap. a vial comprising a vial body and a vial neck , the vial neck having a syringe interface ; and a vial cap having a central opening including a threaded segment that engages the syringe interface characterised in that the vial assembly further comprises a plug , said plug having a lower stopper portion that fits within the vial neck and an upper portion that attaches to an upper portion of the vial cap.
Aqueous liquid oral gliptin composition comprising: - 1 - 5 w/v% of a gliptin or a pharmaceutically acceptable salt or ester thereof, - a thickening agent, chosen from the group, consisting of hydroxyethylcellulose, hydroxypropylcellulose, sodium alginate, sodium carboxymethylcellulose, gellan gum, polyethylene oxide polymer and combinations thereof, and - an artificial non-sugar alcohol sweetening agent, chosen from the group consisting of sucralose, sodium saccharin, aspartame, acesulfame-K, cyclamate and combinations thereof, the solution having a sugar alcohol content of less than 25 w/v% and a pH of 3 to 8. - 1 - 5 w/v% of a gliptin or a pharmaceutically acceptable salt or ester thereof, - a thickening agent, chosen from the group, consisting of hydroxyethylcellulose, hydroxypropylcellulose, sodium alginate, sodium carboxymethylcellulose, gellan gum, polyethylene oxide polymer and combinations thereof, and - an artificial non-sugar alcohol sweetening agent, chosen from the group consisting of sucralose, sodium saccharin, aspartame, acesulfame-K, cyclamate and combinations thereof,
A method performed by an apparatus of a user plane node, comprising: receiving , from a session management node, a request to receive packets for a multicast session and/or to send packets for the multicast session within a protocol data unit, PDU, session; determining whether the user plane node was already configured to receive incoming packets for the multicast session; and informing the session management node as to whether the user plane node was already configured to receive the incoming packets for the multicast session, thereby triggering the session management node to set up a tunnel between the user plane node and a multicast broadcast user plane node or to detect that no tunnel set up is required. receiving , from a session management node, a request to receive packets for a multicast session and/or to send packets for the multicast session within a protocol data unit, PDU, session; determining whether the user plane node was already configured to receive incoming packets for the multicast session; and informing the session management node as to whether the user plane node was already configured to receive the incoming packets for the multicast session, thereby triggering the session management node to set up a tunnel between the user plane node and a multicast broadcast user plane node or to detect that no tunnel set up is required.
An exhaust purification system of an internal combustion engine comprising: a catalyst arranged in an exhaust passage of the internal combustion engine and able to store oxygen; an ammonia detection device arranged in the exhaust passage at a downstream side of the catalyst in a direction of flow of exhaust; an air-fuel ratio control part configured to control an air-fuel ratio of inflowing exhaust gas flowing into the catalyst to a target air-fuel ratio, wherein the air-fuel ratio control part is configured to perform rich control making the target air-fuel ratio richer than a stoichiometric air-fuel ratio, and make the target air-fuel ratio leaner than the stoichiometric air-fuel ratio when an output value of the ammonia detection device rises to a reference value in the rich control; and characterized by a temperature detection part configured to detect or estimate a temperature of the catalyst or a temperature of exhaust gas flowing out from the catalyst , wherein the air-fuel ratio control part is configured to make the reference value smaller the higher the temperature detected or estimated by the temperature detection part. a catalyst arranged in an exhaust passage of the internal combustion engine and able to store oxygen; an ammonia detection device arranged in the exhaust passage at a downstream side of the catalyst in a direction of flow of exhaust; an air-fuel ratio control part configured to control an air-fuel ratio of inflowing exhaust gas flowing into the catalyst to a target air-fuel ratio, wherein the air-fuel ratio control part is configured to perform rich control making the target air-fuel ratio richer than a stoichiometric air-fuel ratio, and make the target air-fuel ratio leaner than the stoichiometric air-fuel ratio when an output value of the ammonia detection device rises to a reference value in the rich control; and characterized by a temperature detection part configured to detect or estimate a temperature of the catalyst or a temperature of exhaust gas flowing out from the catalyst , wherein the air-fuel ratio control part is configured to make the reference value smaller the higher the temperature detected or estimated by the temperature detection part.
A vascular stent , comprising: a stent body , comprising a plurality of ring-shaped units arranged at intervals and a connecting portion connecting all the ring-shaped units into a tubular structure, wherein the tubular structure comprises a first covered segment and a second covered segment that are provided with membrane, the stent body further comprises an exposed segment configured for engaging the first covered segment and the second covered segment , characterized in that the exposed segment is woven by a preset metal wire, and the exposed segment is provided with mesh holes and at least one keel-wire running through both ends of the exposed segment , and the keel-wire is woven around the preset metal wire along an axial direction of the exposed segment . a stent body , comprising a plurality of ring-shaped units arranged at intervals and a connecting portion connecting all the ring-shaped units into a tubular structure, wherein the tubular structure comprises a first covered segment and a second covered segment that are provided with membrane, the stent body further comprises an exposed segment configured for engaging the first covered segment and the second covered segment , characterized in that the exposed segment is woven by a preset metal wire, and the exposed segment is provided with mesh holes and at least one keel-wire running through both ends of the exposed segment , and the keel-wire is woven around the preset metal wire along an axial direction of the exposed segment .
A power amplifier circuit configured to reduce an amount of distortion in an output signal in a wired communication network, the circuit comprising: an input to receive an input signal; a distortion monitoring circuit configured to generate and output a distortion feedback signal at a first output of the power amplifier circuit , wherein the distortion monitoring circuit includes a first resistor network , the first resistor network coupled in a first feedback path between the input and a second output of the power amplifier circuit , the first resistor network having a first node , wherein resistance values of resistors in the first resistor network are sized to minimize a fundamental signal at the first node in the first resistor network , wherein the distortion monitoring circuit includes a second resistor network , the second resistor network coupled in a second feedback path between the input and the second output of the power amplifier circuit , the second resistor network having a second node , wherein the resistance values of the resistors in the second resistor network are sized to minimize a fundamental signal at a second node in the second resistor network , wherein at least one of the first node in the first resistor network and the second node in the second resistor network are coupled to the first output of the power amplifier circuit to provide the distortion feedback signal; and wherein the second output provides the output signal. an input to receive an input signal; a distortion monitoring circuit configured to generate and output a distortion feedback signal at a first output of the power amplifier circuit , wherein the distortion monitoring circuit includes a first resistor network , the first resistor network coupled in a first feedback path between the input and a second output of the power amplifier circuit , the first resistor network having a first node , wherein resistance values of resistors in the first resistor network are sized to minimize a fundamental signal at the first node in the first resistor network , wherein the distortion monitoring circuit includes a second resistor network , the second resistor network coupled in a second feedback path between the input and the second output of the power amplifier circuit , the second resistor network having a second node , wherein the resistance values of the resistors in the second resistor network are sized to minimize a fundamental signal at a second node in the second resistor network , wherein at least one of the first node in the first resistor network and the second node in the second resistor network are coupled to the first output of the power amplifier circuit to provide the distortion feedback signal; and wherein the second output provides the output signal.
A microfluidic device comprising: a separation medium having a first flow path with a first directional axis; and a protein renaturation component in fluid communication with the separation medium and having a second flow path with a second directional axis aligned in a different direction from the first directional axis, and characterised in that the microfluidic device further comprises a binding medium in fluid communication with the separation medium and having a third flow path. a separation medium having a first flow path with a first directional axis; and a protein renaturation component in fluid communication with the separation medium and having a second flow path with a second directional axis aligned in a different direction from the first directional axis, and characterised in that the microfluidic device further comprises a binding medium in fluid communication with the separation medium and having a third flow path.