mhurhangee/patent-ind-claim-en huggingface dataset:
A superconducting electrical rotating machine including a rotor comprising a plurality of superconducting field poles arranged in a circumferential direction so as to correspond to a plurality of phases of a stator armature winding of the superconducting electrical rotating machine , the rotor being disposed coaxially with the stator in an internal space of the cylindrical stator in which the armature winding of the plurality of phases is arranged in the circumferential direction, each of the superconducting field poles comprising: a superconducting coil body formed by spirally winding a superconducting wire material ; wherein each of the superconducting field poles further comprising: a respective outer magnetic field-deflecting member (60; 61) more ferromagnetic than the superconducting coil body, the outer magnetic field-deflecting member being arranged on or in the vicinity of an end face of the superconducting coil body at a radially outer side of the rotor; and a respective inner magnetic field-deflecting member (50; 51; 52) more ferromagnetic than the superconducting coil body, the inner magnetic field-deflecting member being arranged on or in the vicinity of an end face of the superconducting coil body at a radially inner side of the rotor, wherein in each of the superconducting field poles, a volume of the inner magnetic field-deflecting member (50; 51; 52) is larger than a volume of the outer magnetic field-deflecting member (60; 61). a superconducting coil body formed by spirally winding a superconducting wire material ; wherein each of the superconducting field poles further comprising: a respective outer magnetic field-deflecting member (60; 61) more ferromagnetic than the superconducting coil body, the outer magnetic field-deflecting member being arranged on or in the vicinity of an end face of the superconducting coil body at a radially outer side of the rotor; and a respective inner magnetic field-deflecting member (50; 51; 52) more ferromagnetic than the superconducting coil body, the inner magnetic field-deflecting member being arranged on or in the vicinity of an end face of the superconducting coil body at a radially inner side of the rotor, wherein in each of the superconducting field poles, a volume of the inner magnetic field-deflecting member (50; 51; 52) is larger than a volume of the outer magnetic field-deflecting member (60; 61). a respective outer magnetic field-deflecting member (60; 61) more ferromagnetic than the superconducting coil body, the outer magnetic field-deflecting member being arranged on or in the vicinity of an end face of the superconducting coil body at a radially outer side of the rotor; and a respective inner magnetic field-deflecting member (50; 51; 52) more ferromagnetic than the superconducting coil body, the inner magnetic field-deflecting member being arranged on or in the vicinity of an end face of the superconducting coil body at a radially inner side of the rotor, wherein in each of the superconducting field poles, a volume of the inner magnetic field-deflecting member (50; 51; 52) is larger than a volume of the outer magnetic field-deflecting member (60; 61).
Control unit of an automation system for determining an execution time of an application program , wherein the control unit is a programmable logic controller, having: a first time determination unit , which is designed to determine the execution time for the control unit and/or another control unit in a first operating mode , wherein the determination of the execution time takes into account at least one boundary condition, and wherein the determination of the execution time takes into account statistical data relating to the runtime of instructions of the application program of the control unit or a linear representation of the real time of the control unit; characterized in that the at least one boundary condition is a condition of the hardware or software of the control unit or of the other control unit; wherein the first time determination unit changes from the first operating mode to a second operating mode by means of a switch ; wherein the first operating mode is a time determination mode and the second operating mode is a normal mode. a first time determination unit , which is designed to determine the execution time for the control unit and/or another control unit in a first operating mode , wherein the determination of the execution time takes into account at least one boundary condition, and wherein the determination of the execution time takes into account statistical data relating to the runtime of instructions of the application program of the control unit or a linear representation of the real time of the control unit; characterized in that the at least one boundary condition is a condition of the hardware or software of the control unit or of the other control unit; wherein the first time determination unit changes from the first operating mode to a second operating mode by means of a switch ; wherein the first operating mode is a time determination mode and the second operating mode is a normal mode.
A system for underwater use, comprising: an autonomous mother unmanned underwater vehicle (AMUV) , which comprises a communication system and a sensor package , and at least one auxiliary unmanned underwater vehicle (UUV) , the AMUV being configured to: autonomously search for and detect undersea objects potentially present in an undersea region of interest (ROI), generate object information relating to the objects detected thereby to enable identification of at least one object of interest (OOI) among the detected objects, and selectively transport said at least one UUV to at least within a predetermined distance from a location of said at least one OOI; said at least one UUV being configured to interact with said at least one OOI at least within said predetermined distance; wherein the AMUV is further configured to approach said location and the sensor package is configured to obtain image data at the location subsequent to said interaction with the respective said OOI to thereby provide verification information indicative of said interaction between said at least one UUV and said OOI; wherein the communications system is at least configured to transmit at least said verification information; and wherein the OOI is a mine and wherein said interaction comprises neutralizing the mine. an autonomous mother unmanned underwater vehicle (AMUV) , which comprises a communication system and a sensor package , and at least one auxiliary unmanned underwater vehicle (UUV) , the AMUV being configured to: autonomously search for and detect undersea objects potentially present in an undersea region of interest (ROI), generate object information relating to the objects detected thereby to enable identification of at least one object of interest (OOI) among the detected objects, and selectively transport said at least one UUV to at least within a predetermined distance from a location of said at least one OOI; autonomously search for and detect undersea objects potentially present in an undersea region of interest (ROI), generate object information relating to the objects detected thereby to enable identification of at least one object of interest (OOI) among the detected objects, and selectively transport said at least one UUV to at least within a predetermined distance from a location of said at least one OOI; said at least one UUV being configured to interact with said at least one OOI at least within said predetermined distance; wherein the AMUV is further configured to approach said location and the sensor package is configured to obtain image data at the location subsequent to said interaction with the respective said OOI to thereby provide verification information indicative of said interaction between said at least one UUV and said OOI; wherein the communications system is at least configured to transmit at least said verification information; and wherein the OOI is a mine and wherein said interaction comprises neutralizing the mine.
A system comprising: a battery ; a power supply ; a switch ; a device being configured to be alternatively powered by the battery or by the power supply; at least one sensor (110-114; 105) being configured for sensing data that impacts the operation and the lifetime of the battery; a battery monitoring module operatively coupled to the switch and configured to control the switch for switching, based at least on the sensor data and at least one predefined curve, between a first mode where the device and the battery are powered by the power supply and the switch is open and a second mode where the device is powered by the battery and the switch is closed, said predefined curve being a characteristic curve of the battery, wherein the at least one sensor (110-114; 105) comprises one or several among : - a temperature sensor arranged for sensing a temperature of the battery; - a humidity sensor arranged for sensing a humidity ratio of an environment of the battery, - a pressure sensor arranged for sensing pressure of the environment of the battery; - a vibration sensor arranged for sensing vibrations around the battery; and a shunt and an amperemeter arranged for determining a load value applied to the battery. a battery ; a power supply ; a switch ; a device being configured to be alternatively powered by the battery or by the power supply; at least one sensor (110-114; 105) being configured for sensing data that impacts the operation and the lifetime of the battery; a battery monitoring module operatively coupled to the switch and configured to control the switch for switching, based at least on the sensor data and at least one predefined curve, between a first mode where the device and the battery are powered by the power supply and the switch is open and a second mode where the device is powered by the battery and the switch is closed, said predefined curve being a characteristic curve of the battery, wherein the at least one sensor (110-114; 105) comprises one or several among : - a temperature sensor arranged for sensing a temperature of the battery; - a humidity sensor arranged for sensing a humidity ratio of an environment of the battery, - a pressure sensor arranged for sensing pressure of the environment of the battery; - a vibration sensor arranged for sensing vibrations around the battery; and a shunt and an amperemeter arranged for determining a load value applied to the battery. - a temperature sensor arranged for sensing a temperature of the battery; - a humidity sensor arranged for sensing a humidity ratio of an environment of the battery, - a pressure sensor arranged for sensing pressure of the environment of the battery; - a vibration sensor arranged for sensing vibrations around the battery; and a shunt and an amperemeter arranged for determining a load value applied to the battery.
A curing agent for epoxy coatings comprising a composition of: an adduct of: a diglycidyl ether of a bisphenol having an epoxy equivalent weight from 200 to 300, and a first polyamine; wherein the adduct has a weight average molecular weight (measured according to the method disclosed in the description) less than or equal to 1150 a second polyamine different than the first polyamine; and water; wherein the composition is a solution, wherein the composition has an amine hydrogen equivalent weight, based on solids, of less than or equal to 105, and wherein the composition comprises from 10 wt.% to 90 wt.% of the adduct; from 10 wt.% to 90 wt.% of the second polyamine; and from 1 wt.% to 50 wt.% of water, wherein the total wt.% is 100 wt.%. a diglycidyl ether of a bisphenol having an epoxy equivalent weight from 200 to 300, and a first polyamine; wherein the adduct has a weight average molecular weight (measured according to the method disclosed in the description) less than or equal to 1150 a second polyamine different than the first polyamine; and water; wherein the composition is a solution, wherein the composition has an amine hydrogen equivalent weight, based on solids, of less than or equal to 105, and wherein the composition comprises from 10 wt.% to 90 wt.% of the adduct; from 10 wt.% to 90 wt.% of the second polyamine; and from 1 wt.% to 50 wt.% of water, wherein the total wt.% is 100 wt.%.
A method of cleaning a membrane, the method comprising: pre-rinsing the membrane; cleaning the membrane using a solution comprising an enzyme and an agent having a pH compatible with the enzyme, the solution having a temperature compatible with the membrane; preventing any divalent ions in the solution from precipitation; reducing an activity of the enzyme by adding a binding agent capable of deactivating the enzyme to the solution, wherein the method is without rinsing the solution from the membrane from the time the solution is contacted with the membrane to the time used for reducing the activity of the enzyme; and post-rinsing the membrane for removal of the solution. pre-rinsing the membrane; cleaning the membrane using a solution comprising an enzyme and an agent having a pH compatible with the enzyme, the solution having a temperature compatible with the membrane; preventing any divalent ions in the solution from precipitation; reducing an activity of the enzyme by adding a binding agent capable of deactivating the enzyme to the solution, wherein the method is without rinsing the solution from the membrane from the time the solution is contacted with the membrane to the time used for reducing the activity of the enzyme; and post-rinsing the membrane for removal of the solution.
A system for automating a quality assessment of digital fundus image, the system comprising: a processor ; and memory encoding instructions which, when executed by the processor , cause the system to: obtain a digital fundus image file; analyze a first quality of the digital fundus image file using a model to estimate a right time to capture a fundus image, the right time being when a pupil is large enough; capture a subsequent digital fundus image at the right time; and analyze a second quality of the subsequent digital fundus image file using the model to estimate a disease state. a processor ; and memory encoding instructions which, when executed by the processor , cause the system to: obtain a digital fundus image file; analyze a first quality of the digital fundus image file using a model to estimate a right time to capture a fundus image, the right time being when a pupil is large enough; capture a subsequent digital fundus image at the right time; and analyze a second quality of the subsequent digital fundus image file using the model to estimate a disease state. obtain a digital fundus image file; analyze a first quality of the digital fundus image file using a model to estimate a right time to capture a fundus image, the right time being when a pupil is large enough; capture a subsequent digital fundus image at the right time; and analyze a second quality of the subsequent digital fundus image file using the model to estimate a disease state.
A solder processing method, wherein a plurality of solder pieces (Wh1, Wh2) are sequentially supplied into a substantially tubular soldering tip that is extended vertically, the solder pieces (Wh1, Wh2) having a structure in which a layer of a flux is provided within a tubular solder layer, heat from a heater of a heater unit is transmitted to the soldering tip and melts the solder pieces (Wh1, Wh2), within the soldering tip , the solder pieces (Wh1, Wh2) are erected such that the second solder piece (Wh2), which is subsequently supplied, sits on the first solder piece (Wh1), which is first supplied, the second solder piece (Wh2) is closer to the heater unit than the first solder piece (Wh1), and the solder pieces (Wh1, Wh2) are melted such that the molten solder is supplied downward. wherein a plurality of solder pieces (Wh1, Wh2) are sequentially supplied into a substantially tubular soldering tip that is extended vertically, the solder pieces (Wh1, Wh2) having a structure in which a layer of a flux is provided within a tubular solder layer, heat from a heater of a heater unit is transmitted to the soldering tip and melts the solder pieces (Wh1, Wh2), within the soldering tip , the solder pieces (Wh1, Wh2) are erected such that the second solder piece (Wh2), which is subsequently supplied, sits on the first solder piece (Wh1), which is first supplied, the second solder piece (Wh2) is closer to the heater unit than the first solder piece (Wh1), and the solder pieces (Wh1, Wh2) are melted such that the molten solder is supplied downward.
An interconnect board (ICB) assembly comprising: an ICB frame configured to accommodate cell leads of unidirectional battery cells having the cell leads formed on one side such that the cell leads face each other; and a bus bar electrically connectable to the cell leads by being assembled to the ICB frame , wherein the cell leads are placeable on the top surface and the bottom surface of the ICB frame , and the ICB assembly is coupled to another ICB frame by a hinge structure in the length direction of the ICB frame . an ICB frame configured to accommodate cell leads of unidirectional battery cells having the cell leads formed on one side such that the cell leads face each other; and a bus bar electrically connectable to the cell leads by being assembled to the ICB frame , wherein the cell leads are placeable on the top surface and the bottom surface of the ICB frame , and the ICB assembly is coupled to another ICB frame by a hinge structure in the length direction of the ICB frame .
An apparatus for activating the surface friction of post-like carrier members, wherein the apparatus comprises a device which is suitable for reducing a height of the apparatus when the apparatus is loaded with a compressive force, wherein a controlled settlement of a post-like carrier member in the building ground can be evoked that is sufficient for activating the surface friction; characterized in that the apparatus comprises an upper part and a lower part and the device comprises at least one compression element , wherein the at least one compression element is arranged between the upper part and the lower part in such a way that the at least one compression element serves as a spacer in order to form a gap between the upper part and the lower part ; and in that the at least one compression element is configured to be compressed in a controlled manner under a predetermined load by the compressive force and wherein the height of the apparatus is reduced to such an extent until the gap is closed and the upper part and the lower part come into contact with one another, wherein a further reduction in the height of the apparatus is prevented as far as possible.
A method for obtaining yeast proteins, comprising the following steps: a) providing a yeast cream; b) exposing this yeast cream to thermal plasmolysis at a temperature of between 70 and 95 °C for a time of between 30 seconds and 4 hours, preferably between 1 minute and 3 hours, preferably between 40 minutes and 2 hours; c) subjecting the whole to the activity of at least one ribonuclease and one glucanase, sequentially or simultaneously, at a temperature of between 40 and 65 °C, preferably 60°C for a time of between 8 and 24h, preferably 18h; d) separating the insoluble fraction and soluble fraction; wherein the insoluble fraction collected at step d) is taste-free, has a nucleotide content of less than 3 % and true protein content of at least 72 %. a) providing a yeast cream; b) exposing this yeast cream to thermal plasmolysis at a temperature of between 70 and 95 °C for a time of between 30 seconds and 4 hours, preferably between 1 minute and 3 hours, preferably between 40 minutes and 2 hours; c) subjecting the whole to the activity of at least one ribonuclease and one glucanase, sequentially or simultaneously, at a temperature of between 40 and 65 °C, preferably 60°C for a time of between 8 and 24h, preferably 18h; d) separating the insoluble fraction and soluble fraction;
Method for influencing a suction or pressure flow generated by a fan (1; 17) in an arrangement comprising a flow channel in which a mass flow loaded with foreign substances is moved, at least one fan (1; 17) which is connected to the flow channel and moves the loaded mass flow , an electric drive (2; 18), a control system (3; 19), wherein a sensor is arranged in the flow channel and is connected to the control (3; 19) via a line , the measured values of the sensor are transmitted to the control (3; 19), and/or the torque of the electric drive (2; 18) and/or the torque of the fan (1; 17) and/or the energy requirement of the electric drive (2; 18) are determined and the measured values are transferred to the controller (3; 19), the controller (3; 19) determines from the measured values the operating characteristic values required for the operation of the fan (1; 17) and provides the electric drive (2; 18) with the amount of energy which is required to maintain the operating characteristic values of the fan (1; 17), characterised in that the amount of energy made available to the fan by the control system is generated by a generator , that the generator is driven by an internal combustion engine , and that an energy storage device is associated with the arrangement, and the energy storage device is connected to the control system and is controlled by the latter, wherein electrical energy generated by the generator is temporarily stored in phases of increased resistance in the flow channel . a flow channel in which a mass flow loaded with foreign substances is moved, at least one fan (1; 17) which is connected to the flow channel and moves the loaded mass flow , an electric drive (2; 18), a control system (3; 19), wherein a sensor is arranged in the flow channel and is connected to the control (3; 19) via a line , the measured values of the sensor are transmitted to the control (3; 19), and/or the torque of the electric drive (2; 18) and/or the torque of the fan (1; 17) and/or the energy requirement of the electric drive (2; 18) are determined and the measured values are transferred to the controller (3; 19), the controller (3; 19) determines from the measured values the operating characteristic values required for the operation of the fan (1; 17) and provides the electric drive (2; 18) with the amount of energy which is required to maintain the operating characteristic values of the fan (1; 17), characterised in that the amount of energy made available to the fan by the control system is generated by a generator , that the generator is driven by an internal combustion engine , and that an energy storage device is associated with the arrangement, and the energy storage device is connected to the control system and is controlled by the latter, wherein electrical energy generated by the generator is temporarily stored in phases of increased resistance in the flow channel .