mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode meandering correction device, which is a meandering correction device at the time of transferring an electrode to be wound around a winding core to form a jelly roll electrode assembly, the electrode meandering correction device comprising: an input inclination adjustment mechanism of an input clamp configured to input the electrode to the winding core; an edge position control (EPC) unit provided with a determination edge position sensor (EPS) disposed before the winding core to measure an edge position of the electrode as a determination EPS edge position value, and an EPC roller configured to adjust the edge position of the electrode to match a determination EPS edge reference value (A); and a controller configured to control the EPC unit and the input inclination adjustment mechanism , wherein the controller feedback-controls the edge position of the electrode so that the determination EPS edge position value matches the determination EPS edge reference value (A), acquires determination EPS edge position value data when the determination EPS edge position value changes over time to converge to the determination EPS edge reference value (A) by the feedback control, and selects data values changed by influence of the input inclination of the input clamp from among the determination EPS edge position value data and feedback-controls the input inclination adjustment mechanism to correct the input inclination by comparison of these data values and the determination EPS edge reference value (A). an input inclination adjustment mechanism of an input clamp configured to input the electrode to the winding core; an edge position control (EPC) unit provided with a determination edge position sensor (EPS) disposed before the winding core to measure an edge position of the electrode as a determination EPS edge position value, and an EPC roller configured to adjust the edge position of the electrode to match a determination EPS edge reference value (A); and a controller configured to control the EPC unit and the input inclination adjustment mechanism , wherein the controller feedback-controls the edge position of the electrode so that the determination EPS edge position value matches the determination EPS edge reference value (A), acquires determination EPS edge position value data when the determination EPS edge position value changes over time to converge to the determination EPS edge reference value (A) by the feedback control, and selects data values changed by influence of the input inclination of the input clamp from among the determination EPS edge position value data and feedback-controls the input inclination adjustment mechanism to correct the input inclination by comparison of these data values and the determination EPS edge reference value (A).
A method for determining structural vibration mode characteristics of a component , the method comprising: preparing a digital image correlation (DIC) dataset for the component ; applying a dynamic mode decomposition (DMD) technique to the DIC dataset to determine a plurality of DMD modes; selecting at least one dominant DMD mode from the plurality of DMD modes; classifying each of the at least one selected dominant DMD mode as a standing wave or a traveling wave; and determining structural vibration mode characteristics of the component by extracting the structural vibration mode characteristics from each of the at least one selected dominant DMD mode having a standing wave classification. preparing a digital image correlation (DIC) dataset for the component ; applying a dynamic mode decomposition (DMD) technique to the DIC dataset to determine a plurality of DMD modes; selecting at least one dominant DMD mode from the plurality of DMD modes; classifying each of the at least one selected dominant DMD mode as a standing wave or a traveling wave; and determining structural vibration mode characteristics of the component by extracting the structural vibration mode characteristics from each of the at least one selected dominant DMD mode having a standing wave classification.
A wax inhibitor composition comprising A) the reaction product obtainable by reaction of i) a carboxylic acid containing an optionally substituted cycloaliphatic hydrocarbyl residue with ii) an alkylene polyamine, B) a polymeric wax inhibitor, and C) an organic solvent. A) the reaction product obtainable by reaction of i) a carboxylic acid containing an optionally substituted cycloaliphatic hydrocarbyl residue with ii) an alkylene polyamine, i) a carboxylic acid containing an optionally substituted cycloaliphatic hydrocarbyl residue with ii) an alkylene polyamine, B) a polymeric wax inhibitor, and C) an organic solvent.
Wind turbine , comprising - a tower , - a drive train which has a rotor , a rotor bearing , preferably a gearbox , and a generator , - a cylinder , the longitudinal axis of which extends transversely to the longitudinal axis of the tower , and which, on one side thereof, partially houses the drive train , and - a hood which closes the cylinder on the other side thereof, characterized in that the drive train has means for guiding cooling air between its end face that is opposite the rotor and its lateral face, the cylinder houses an inner cylinder which divides the interior of the cylinder into an outer cylinder gap and an inner cylinder interior , and the hood is designed as an air-to-air heat exchanger, the inner cylinder being communicatively connected to the end face of the drive train that is opposite the rotor and to the hood , thus forming a closed cooling circuit. - a tower , - a drive train which has a rotor , a rotor bearing , preferably a gearbox , and a generator , - a cylinder , the longitudinal axis of which extends transversely to the longitudinal axis of the tower , and which, on one side thereof, partially houses the drive train , and - a hood which closes the cylinder on the other side thereof,
A User Equipment, UE, comprising: means for receiving, following a maximum permissible exposure, MPE, event occurring during operation over a first carrier such that the UE is no longer operating over the first carrier, a first signal , over a second carrier , for configuring the UE to determine a status of the MPE event associated with a previously used first carrier; means for determining, responsive to receipt of the first signal, a current status of the MPE event associated with the previously used first carrier; and means for transmitting, responsive to receipt of the first signal, a second signal over the second carrier, wherein the second signal comprises an indication of the current status of the MPE event associated with the previously used first carrier. means for receiving, following a maximum permissible exposure, MPE, event occurring during operation over a first carrier such that the UE is no longer operating over the first carrier, a first signal , over a second carrier , for configuring the UE to determine a status of the MPE event associated with a previously used first carrier; means for determining, responsive to receipt of the first signal, a current status of the MPE event associated with the previously used first carrier; and means for transmitting, responsive to receipt of the first signal, a second signal over the second carrier, wherein the second signal comprises an indication of the current status of the MPE event associated with the previously used first carrier.
A system comprising an electronic user interface device , a control unit and a connection cable; wherein the electronic user interface device is included in a housing , the electronic user interface device being configured to be coupled to the control unit via the connection cable , the connection cable at least comprising a first optical fiber for transporting light, wherein the electronic user interface device comprises a light inlet opening coupleable with the first optical fiber (8a; 8b) and configured to receive light from a region outside the housing of the device and configured to couple the received light into the first optical fiber for transmitting the light to the control unit when the user interface device is switched off; and characterised in that the control unit is configured to detect changes of the light received from the electronic user interface device via the first optical fiber and to activate power supply to the user interface device to switch on the electronic user interface device based upon the detected changes. wherein the electronic user interface device comprises a light inlet opening coupleable with the first optical fiber (8a; 8b) and configured to receive light from a region outside the housing of the device and configured to couple the received light into the first optical fiber for transmitting the light to the control unit when the user interface device is switched off; and characterised in that the control unit is configured to detect changes of the light received from the electronic user interface device via the first optical fiber and to activate power supply to the user interface device to switch on the electronic user interface device based upon the detected changes.
Method for generating energy from a gas flow comprising a gas component, such as CO 2 , the method comprising the steps of: - providing the gas flow to a flow channel containing water; - production of cations and anions from the gas component absorbed in water and that reacts with water; - providing a cation-selective electrode and an anion-selective electrode capable of sorbing cations and anions respectively, wherein, to provide the cation and anion selectivity, at least one electrode of the at least two electrodes is separated from the flow channel with an anion exchange membrane and at least one other electrode of the at least two electrodes is separated from the flow channel with a cation exchange membrane and/or the electrodes are chemically modified by filling interparticle pores with polyelectrolyte gel; - diffusing of the cations towards the cation-selective electrode and of the anions towards the anion-selective electrode; - sorbing the cations and anions by the electrodes ; - transporting of electrons through an electrical circuit to maintain electro-neutrality of the electrodes; and - generating electrical energy. - providing the gas flow to a flow channel containing water; - production of cations and anions from the gas component absorbed in water and that reacts with water; - providing a cation-selective electrode and an anion-selective electrode capable of sorbing cations and anions respectively, wherein, to provide the cation and anion selectivity, at least one electrode of the at least two electrodes is separated from the flow channel with an anion exchange membrane and at least one other electrode of the at least two electrodes is separated from the flow channel with a cation exchange membrane and/or the electrodes are chemically modified by filling interparticle pores with polyelectrolyte gel; - diffusing of the cations towards the cation-selective electrode and of the anions towards the anion-selective electrode; - sorbing the cations and anions by the electrodes ; - transporting of electrons through an electrical circuit to maintain electro-neutrality of the electrodes; and - generating electrical energy.
A pigment printing ink jet ink composition comprising: a pigment; a resin particle; a sulfonate-based anionic surfactant; and water; wherein the resin particle is a polycarbonate-based urethane resin particle, and a content of the resin particle is equal to or more than 2.5% by mass. a pigment; a resin particle; a sulfonate-based anionic surfactant; and water; wherein the resin particle is a polycarbonate-based urethane resin particle, and a content of the resin particle is equal to or more than 2.5% by mass.
A pedal unit for a vehicle, in particular a utility vehicle, having at least one pedal shaft , at least one control cam , at least one pedal and at least one lever arm , the pedal being permanently fixed to the pedal shaft by means of the lever arm and the control cam also being permanently fixed to the pedal shaft , characterised in that a bearing bush is arranged at one end of the pedal shaft , the pedal unit further having a pedal plate with a first shaft mounting and a second shaft mounting , the pedal shaft being fixed to or mounted on the pedal plate by means of the first and second shaft mountings , the first shaft mounting having an opening with an oval and/or slot-shaped cross section that is bigger than the cross section of a first pedal-shaft bearing section of the pedal shaft by means of which the pedal shaft is or can be introduced into the first shaft mounting during assembly.
Electric drive axle , comprising a first and a second drive shaft being axially aligned, an electric drive module and a differential module , wherein the electric drive module comprises an electric motor and a planetary gear set , wherein both the electric motor and the planetary gear set are coaxially arranged about the drive shafts , wherein output means of the electric drive module is connected to input means of the differential module , wherein the input means is or can be set in drive connection with the right and left drive shaft , such that a drive force generated by the electric drive module can be transferred to the first and/or second drive shaft , wherein the electric drive axel comprises a coupling between the output means and the input means , wherein the coupling is arranged to allow for the output means and the input means to slide into engagement in an axial direction.
A sealing system for sealing bed and embankment areas of a water body in water-bearing condition, comprising: - a working platform ; - a first feed device ; - a connecting device ; - a lowering ramp having a concrete formwork shell; - a second feed device ; and - a moving device ; wherein the working platform being arranged above a water area of a water area to be sealed and comprising a working surface ; wherein the first feeding device is configured to apply webs of a concrete formwork shell to the working surface, wherein the concrete formwork shell being a web-shaped flexible concrete formwork shell having a plurality of cavities for receiving a concrete material; wherein the connecting device is configured to connect the plurality of webs of the concrete formwork shell to a continuous sealing surface ; wherein the lowering ramp is supported at a first end on the working platform and at a second end opposite the first end can be lowered in the direction of the bottom of the watercourse with the concrete formwork shell, wherein the lowering ramp in a first lowered state (P1) extends obliquely downwards from the working platform in the direction of the bottom of the watercourse, and wherein the lowering ramp is configured to at least partially support the sealing surface when being introduced into the water and when being deposited on the bottom of the watercourse; the second feeding device being configured to introduce a concrete material into at least a part of the cavities in a central region of the concrete formwork shell located on the lowering ramp for successive lowering of the concrete formwork shell via the lowering ramp up to the support on a surface of the bottom of the watercourse ; wherein the moving device is configured to move the working platform along the water body; and wherein the concrete formwork shell having lateral regions which laterally adjoin the central region in the direction of the water and which are rolled up over the lowering ramp during lowering. - a working platform ; - a first feed device ; - a connecting device ; - a lowering ramp having a concrete formwork shell; - a second feed device ; and - a moving device ;
A switched-mode power supply comprising: - a resistive feedback loop (R) having an adjustable value; - first and second series-connected transistors, the first transistor being connected between the ground and a first node and the second transistor being connected between the first node and a node of application of the power supply voltage (VBAT) if the switched-mode power supply is a buck converter, or between the first node and an output node of the power supply (V2) if the switched-mode power supply is a boost converter, the first and second transistors being capable of being controlled by a generation circuit the signals for controlling the first and second transistors; - a first circuit capable of detecting whether the duty cycle of an input signal (PWM) of the generation circuit is equal to 100%; and - a second circuit capable of maintaining the second transistor on if the duty cycle of the input signal of the circuit for generating (PWM) is equal to 100%, characterized in that the feedback loop comprises first and second states, the second state being capable of: - if the power supply is a buck power supply, modify the resistance of the feedback loop to increase the feedback voltage in order to make the feedback voltage (V1) greater than or equal to the power supply voltage (VBAT) and to make the duty cycle equal to 100 %; or - if the power supply is a boost power supply, modify the resistance of the feedback loop to decrease the feedback voltage in order to make the feedback voltage (V1) smaller than or equal to a power supply voltage (VBAT) and to make the duty cycle equal to 100 %. - a resistive feedback loop (R) having an adjustable value; - first and second series-connected transistors, the first transistor being connected between the ground and a first node and the second transistor being connected between the first node and a node of application of the power supply voltage (VBAT) if the switched-mode power supply is a buck converter, or between the first node and an output node of the power supply (V2) if the switched-mode power supply is a boost converter, the first and second transistors being capable of being controlled by a generation circuit the signals for controlling the first and second transistors; - a first circuit capable of detecting whether the duty cycle of an input signal (PWM) of the generation circuit is equal to 100%; and - a second circuit capable of maintaining the second transistor on if the duty cycle of the input signal of the circuit for generating (PWM) is equal to 100%, - if the power supply is a buck power supply, modify the resistance of the feedback loop to increase the feedback voltage in order to make the feedback voltage (V1) greater than or equal to the power supply voltage (VBAT) and to make the duty cycle equal to 100 %; or - if the power supply is a boost power supply, modify the resistance of the feedback loop to decrease the feedback voltage in order to make the feedback voltage (V1) smaller than or equal to a power supply voltage (VBAT) and to make the duty cycle equal to 100 %.
A computer-implemented method for detecting a bulk operation at a storage service storing content, the method comprising: creating (502; 810) a model based on a usage pattern associated with content stored in a remote data store associated with the storage service; detecting an attempted operation performed on the content; and in response to a determination that the attempted operation deviates from the usage pattern, modifying (512; 840) a preservation policy for the content at the storage service by increasing a number of previous versions of the content preserved at the storage service. creating (502; 810) a model based on a usage pattern associated with content stored in a remote data store associated with the storage service; detecting an attempted operation performed on the content; and in response to a determination that the attempted operation deviates from the usage pattern, modifying (512; 840) a preservation policy for the content at the storage service by increasing a number of previous versions of the content preserved at the storage service.
Food depositing apparatus comprising an elongated trough , at least one feed roller arranged longitudinally in the trough and in distance of the inside of the trough providing a mass transportation gap extending to at least one longitudinal mass deposit opening at the bottom of the trough , which feed roller periphery comprises a number of longitudinally extending recesses in each of which is arranged a pivotable blade , which is movable between an outer position (A) and an inner position (B), and which in its outer position (A) is extending outside the periphery of the roller and in its inner position (B) is in the recess and in level with or inside the periphery , characterised in, that the trailing edges of the blades are maintained in engagement with the trailing sides of the recesses thereby providing the pivots , and so that the front edges of the blades are radially movable by the pivotable movements.
A method for manufacturing an insertion tube of an endoscope from a tubular element, wherein the insertion tube comprises a proximal passive flexible portion (C) and a distal bending portion (A), wherein cuts (98, 99; 990, 991) are provided in the proximal passive flexible portion (C), for enabling bending of the proximal passive flexible portion (C,) wherein the cuts (98, 99; 990, 991) in the proximal passive flexible portion (C) are formed such that adjacent cuts (98, 99; 990, 991) are unequally spaced; characterized in that main cuts (98; 990) are provided in the proximal passive flexible portion (C), said main cuts (98; 990) being equally spaced apart from each other (H) in the longitudinal direction of the proximal passive flexible portion (C), and adjacent to the main cuts (98; 990), auxiliary cuts (99; 991) are provided in the proximal passive flexible portion (C), said auxiliary cuts (99; 991) being arranged, in the longitudinal direction of the proximal passive flexible portion (C), closer (N) to the adjacent main cuts (98; 990) on one side of the auxiliary cuts (99; 991) than to the adjacent main cuts (98; 990) on the other side of the auxiliary cuts (99; 991). wherein the insertion tube comprises a proximal passive flexible portion (C) and a distal bending portion (A), wherein cuts (98, 99; 990, 991) are provided in the proximal passive flexible portion (C), for enabling bending of the proximal passive flexible portion (C,) wherein the cuts (98, 99; 990, 991) in the proximal passive flexible portion (C) are formed such that adjacent cuts (98, 99; 990, 991) are unequally spaced; main cuts (98; 990) are provided in the proximal passive flexible portion (C), said main cuts (98; 990) being equally spaced apart from each other (H) in the longitudinal direction of the proximal passive flexible portion (C), and adjacent to the main cuts (98; 990), auxiliary cuts (99; 991) are provided in the proximal passive flexible portion (C), said auxiliary cuts (99; 991) being arranged, in the longitudinal direction of the proximal passive flexible portion (C), closer (N) to the adjacent main cuts (98; 990) on one side of the auxiliary cuts (99; 991) than to the adjacent main cuts (98; 990) on the other side of the auxiliary cuts (99; 991).