mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling an air conditioning system for a passenger compartment of a vehicle by means of a heat sink which is assigned to the passenger compartment, comprising: - controlling the heat sink by means of switches of the heat sink as a function of a switching criterion, and - determining a switching frequency of the heat sink which is based on the switching criterion, characterized by the step of: - switching the switching criterion as a function of the switching frequency. - controlling the heat sink by means of switches of the heat sink as a function of a switching criterion, and - determining a switching frequency of the heat sink which is based on the switching criterion, characterized by the step of: - switching the switching criterion as a function of the switching frequency.
A method comprising: receiving, by a control node (54, 54A-54X) of a software-defined network, SDN, controller (32, 32A, 32B), a route from a compute node (26, 26A-26X) of a plurality of compute nodes in a network; publishing, by the control node and in response to receiving the route, a route update to an in-memory database service (34, 34A, 34B) of the SDN controller; and sending, by the in-memory database service in response to receiving the published route update, the published route update to any of the plurality of compute nodes that have subscribed to receive route updates for an in-memory database instance associated with the control node, wherein the compute node comprises a first compute node, the method further comprising, prior to sending the published route update: receiving, by the in-memory database service, a message from a second compute node of the plurality of compute nodes, the message subscribing to the route updates; and storing, by the in-memory database service, subscription data based on the message from the second compute node. receiving, by a control node (54, 54A-54X) of a software-defined network, SDN, controller (32, 32A, 32B), a route from a compute node (26, 26A-26X) of a plurality of compute nodes in a network; publishing, by the control node and in response to receiving the route, a route update to an in-memory database service (34, 34A, 34B) of the SDN controller; and sending, by the in-memory database service in response to receiving the published route update, the published route update to any of the plurality of compute nodes that have subscribed to receive route updates for an in-memory database instance associated with the control node, wherein the compute node comprises a first compute node, the method further comprising, prior to sending the published route update: receiving, by the in-memory database service, a message from a second compute node of the plurality of compute nodes, the message subscribing to the route updates; and storing, by the in-memory database service, subscription data based on the message from the second compute node. receiving, by the in-memory database service, a message from a second compute node of the plurality of compute nodes, the message subscribing to the route updates; and storing, by the in-memory database service, subscription data based on the message from the second compute node.
A flat knitting machine provided with a needle bed in which a plurality of knitting needles are arranged side-by-side, and a moving body (2A-2D) that is involved in knitting of a knitted fabric by traveling along a rail, the flat knitting machine characterized by: a primary coil that is connected to a power supply of the flat knitting machine and has an axis that is held parallel with an axis of the rail; a tubular member that is provided on the moving body (2A-2D), the primary coil passing through the tubular member; a secondary coil that is wound around the tubular member and receives electrical power from the primary coil through electromagnetic induction; a control circuit that is provided on the moving body (2A-2D) and is connected to the secondary coil; and at least one electrical device (4, 5, 6, 7) that is provided on the moving body (2A-2D) and operates under control of the control circuit. a primary coil that is connected to a power supply of the flat knitting machine and has an axis that is held parallel with an axis of the rail; a tubular member that is provided on the moving body (2A-2D), the primary coil passing through the tubular member; a secondary coil that is wound around the tubular member and receives electrical power from the primary coil through electromagnetic induction; a control circuit that is provided on the moving body (2A-2D) and is connected to the secondary coil; and at least one electrical device (4, 5, 6, 7) that is provided on the moving body (2A-2D) and operates under control of the control circuit.
An apparatus for synthesizing at least one targeted broadband electromagnetic signal, comprising - at least two electromagnetic signal generators (10, 11), wherein the electromagnetic signal generators (10, 11) are configured to provide at least two tributary electromagnetic signals having spectra that overlap at least partially; - at least one signal-combining element, wherein the at least one signal-combining element is configured to merge the at least two tributary electromagnetic signals into at least one combined electromagnetic signal; - at least one signal-detecting element, wherein the at least one signal-detecting element is configured to generate at least one detection output signal by detecting at least a portion of at least one of the at least one combined electromagnetic signal; - at least one controlling element, wherein the at least one controlling element is configured to extract signal information about at least one of a relative amplitude or a relative phase with which the at least two tributary electromagnetic signals are merged into the at least one combined electromagnetic signal from the at least one detection output signal; - at least one actuating element, wherein the at least one actuating element is configured to modify at least one of the amplitude or the phase of at least one of the at least two tributary electromagnetic signals based on the signal information, wherein modifying the at least one of the amplitude or the phase of the at least one of the at least two tributary electromagnetic signals is performed in a manner that at least one of the at least one combined electromagnetic signal corresponds to the at least one targeted broadband electromagnetic signal. - at least two electromagnetic signal generators (10, 11), wherein the electromagnetic signal generators (10, 11) are configured to provide at least two tributary electromagnetic signals having spectra that overlap at least partially; - at least one signal-combining element, wherein the at least one signal-combining element is configured to merge the at least two tributary electromagnetic signals into at least one combined electromagnetic signal; - at least one signal-detecting element, wherein the at least one signal-detecting element is configured to generate at least one detection output signal by detecting at least a portion of at least one of the at least one combined electromagnetic signal; - at least one controlling element, wherein the at least one controlling element is configured to extract signal information about at least one of a relative amplitude or a relative phase with which the at least two tributary electromagnetic signals are merged into the at least one combined electromagnetic signal from the at least one detection output signal; - at least one actuating element, wherein the at least one actuating element is configured to modify at least one of the amplitude or the phase of at least one of the at least two tributary electromagnetic signals based on the signal information,
Balance prosthesis device for an individual, comprising: a sensor module (610, 710, 810) configured to obtain at least one sensor signal indicative of a balance or equilibrium state of the individual; a processing module (620, 720, 820) operably connected to the sensor module (610, 710, 810) and configured to determine at least one neurostimulation signal based at least in part on the obtained sensor signal, involving a determination, based at least in part on the obtained sensor signal, of an estimate of a current body position of the individual with respect to a reference body position and/or an estimate of a future body position with respect to the reference body position; and a transmitter module operably connected to the processing module (620, 720, 820) and configured to transmit the determined neurostimulation signal to a neurostimulation device of the individual; or a neurostimulation module operably connected to the processing module (620, 720, 820); wherein the neurostimulation signal is configured to elicit an artificial sensation in a specific sensory cortex area of the individual via directly stimulating afferent sensory axons of the central or peripheral nervous system of the individual targeting sensory neurons of the sensory cortex area not directly associated with vestibulocortical pathways of the individual; and wherein the elicited artificial sensation provides a balance indication to the individual that is derived at least in part from the obtained sensor signal in order to support, mimic, substitute or enhance the natural sense of balance of the individual. a sensor module (610, 710, 810) configured to obtain at least one sensor signal indicative of a balance or equilibrium state of the individual; a processing module (620, 720, 820) operably connected to the sensor module (610, 710, 810) and configured to determine at least one neurostimulation signal based at least in part on the obtained sensor signal, involving a determination, based at least in part on the obtained sensor signal, of an estimate of a current body position of the individual with respect to a reference body position and/or an estimate of a future body position with respect to the reference body position; and a transmitter module operably connected to the processing module (620, 720, 820) and configured to transmit the determined neurostimulation signal to a neurostimulation device of the individual; or a neurostimulation module operably connected to the processing module (620, 720, 820); wherein the neurostimulation signal is configured to elicit an artificial sensation in a specific sensory cortex area of the individual via directly stimulating afferent sensory axons of the central or peripheral nervous system of the individual targeting sensory neurons of the sensory cortex area not directly associated with vestibulocortical pathways of the individual; and wherein the elicited artificial sensation provides a balance indication to the individual that is derived at least in part from the obtained sensor signal in order to support, mimic, substitute or enhance the natural sense of balance of the individual.
A frame for a shower cubicle tray, wherein the frame comprises: - an outer wall and an inner wall connected by a bottom surface; - a waste water outlet; and wherein a hollow space is provided on the inner side of the inner wall for allowing access to the underlying surface, and wherein the inner wall, the outer wall and the bottom surface form a guide for waste water, characterised in that the frame further comprises height adjustment means and in that the inner wall is provided with a recess into which the waste water outlet is connected. - an outer wall and an inner wall connected by a bottom surface; - a waste water outlet; and
A method for providing improved control of power or voltage oscillation damping in a power transmission system comprising: obtaining an instantaneous magnitude of a signal (|ΔP|) representing an oscillation deviating from steady state quantities in at least one element of the power transmission system, the magnitude of the signal |ΔP|, being an oscillatory component of a system operation reflecting signal, which system operation reflecting signal, reflects a measured power property of the at least one system element, characterised by the further steps of determining the rate of change (d|ΔP|/dt) of the signal, integrating the instantaneous magnitude of the signal (|ΔP|), with an integrating factor (Ki) that is based on the determined rate of change, and forming a phase compensation angle (φ c) based on the integrated instantaneous magnitude of the signal (|ΔP|), for use in a damping control signal generating unit in order to provide power or voltage oscillation damping of the system. obtaining an instantaneous magnitude of a signal (|ΔP|) representing an oscillation deviating from steady state quantities in at least one element of the power transmission system, the magnitude of the signal |ΔP|, being an oscillatory component of a system operation reflecting signal, which system operation reflecting signal, reflects a measured power property of the at least one system element, determining the rate of change (d|ΔP|/dt) of the signal, integrating the instantaneous magnitude of the signal (|ΔP|), with an integrating factor (Ki) that is based on the determined rate of change, and forming a phase compensation angle (φ c) based on the integrated instantaneous magnitude of the signal (|ΔP|), for use in a damping control signal generating unit in order to provide power or voltage oscillation damping of the system.
A poly-ether-ester elastomer resin composition, comprising: 100 parts by weight of a poly-ether-ester block copolymer; 0.05 ~ 2.0 parts by weight of a heat stabilizer; 0.1 ~ 2.0 parts by weight of an ultraviolet absorber; 0.1 ~ 1.0 parts by weight of a hindered amine light stabilizer; and 0.05 ~ 1.0 parts by weight of porous silica.
A method of mounting a tire on a vehicle wheel using a robotic tire mounter having a selectively moveable gripper unit, characterized in that the method comprises: moving the gripper unit downward toward an opening of the tire while in a releasing configuration until gripping elements of the gripper unit are disposed at least partially within an opening of the tire; moving the gripping elements away from one another and into engagement with one of a first or second bead of the tire; continue moving the gripping elements away from one another a predetermined distance to a gripping position so as to slightly deform the opening of the tire; actuating the robotic tire mounter so as to lift the gripping unit, and thereby lifting the tire, and moving the tire to a wheel; actuating the robotic tire mounter so as to lower the tire over the wheel and manipulate the tire over a rim of the wheel such that a rim of the wheel is disposed between the first and second beads of the tire; and moving the gripping elements from the gripping position to the releasing configuration. moving the gripper unit downward toward an opening of the tire while in a releasing configuration until gripping elements of the gripper unit are disposed at least partially within an opening of the tire; moving the gripping elements away from one another and into engagement with one of a first or second bead of the tire; continue moving the gripping elements away from one another a predetermined distance to a gripping position so as to slightly deform the opening of the tire; actuating the robotic tire mounter so as to lift the gripping unit, and thereby lifting the tire, and moving the tire to a wheel; actuating the robotic tire mounter so as to lower the tire over the wheel and manipulate the tire over a rim of the wheel such that a rim of the wheel is disposed between the first and second beads of the tire; and moving the gripping elements from the gripping position to the releasing configuration.
A disc brake comprising: a caliper main body configured to have a pad assembling space that is disposed across over a disc rotor and opens toward an approximate middle thereof in a rotor radial direction and a connector part is disposed to cross the pad assembling space in a rotor axial direction; and a pair of brake pads (29, 29) that are disposed to be opposite to the disc rotor, and a pad spring configured to be engaged with the connector part by a pair of claw portions (151, 151) facing each other, to be installed on the caliper main body, and to bias the brake pads (29, 29) inward in the rotor radial direction, wherein the connector part is installed at the middle position of the caliper main body in the rotor rotational direction, and the pad spring has a symmetrical shape with respect to the center in a longitudinal direction thereof, and the pair of claw portions (151, 151) are engaged with the connector part in a state in which the center in the longitudinal direction is offset in a rotor rotational direction with respect to the center in the rotor rotational direction of the brake pads (29, 29), characterized in that the pad spring is configured such that at least one of the pair of claw portions (151, 151) thereof is inserted into a hole portion formed in the connector part, and a position thereof is regulated relative to the brake pads (29, 29), and the hole portion is formed to be offset from the middle position in the connector part. a caliper main body configured to have a pad assembling space that is disposed across over a disc rotor and opens toward an approximate middle thereof in a rotor radial direction and a connector part is disposed to cross the pad assembling space in a rotor axial direction; and a pair of brake pads (29, 29) that are disposed to be opposite to the disc rotor, and a pad spring configured to be engaged with the connector part by a pair of claw portions (151, 151) facing each other, to be installed on the caliper main body, and to bias the brake pads (29, 29) inward in the rotor radial direction, wherein the connector part is installed at the middle position of the caliper main body in the rotor rotational direction, and the pad spring has a symmetrical shape with respect to the center in a longitudinal direction thereof, and the pair of claw portions (151, 151) are engaged with the connector part in a state in which the center in the longitudinal direction is offset in a rotor rotational direction with respect to the center in the rotor rotational direction of the brake pads (29, 29), characterized in that the pad spring is configured such that at least one of the pair of claw portions (151, 151) thereof is inserted into a hole portion formed in the connector part, and a position thereof is regulated relative to the brake pads (29, 29), and the hole portion is formed to be offset from the middle position in the connector part.
(Currently Amended) A method for estimating a state vector associated with a battery, the method comprising the steps of: determining a time interval that the battery has been electrically decoupled from a load circuit, the time interval starting at a first time; obtaining a first state vector ( x k -1) associated with the battery from a memory, the first state vector ( x k -1) being determined prior to the first time; calculating a second predicted state vector ( x ^ k −) associated with the battery based on the first state vector ( x k -1) and the time interval utilizing a state transition function of f ( x k -1,u k -1,w k -1,k -1,k) where ' f ' represent a predefined mathematical model of a battery cell dynamics, x k -1 is the first state vector at time index k-1, u k -1 is an input to the battery at time index k-1, w k -1 is a process noise at time index k-1, and k-1 and k are subsequent time index variables; measuring a battery voltage output from the battery to obtain a first battery voltage value ( y k) after the first time interval when the battery is electrically re-coupled to the load circuit; estimating a second battery voltage value ( ŷ k) associated with the battery based on the second predicted state vector ( x ^ k −); calculating a voltage error value based on the first battery voltage value and the second battery voltage value; and calculating a third estimated state vector x ^ k + associated with the battery based on the second predicted state vector x ^ k − and the voltage error value. determining a time interval that the battery has been electrically decoupled from a load circuit, the time interval starting at a first time; obtaining a first state vector ( x k -1) associated with the battery from a memory, the first state vector ( x k -1) being determined prior to the first time; calculating a second predicted state vector ( x ^ k −) associated with the battery based on the first state vector ( x k -1) and the time interval utilizing a state transition function of f ( x k -1,u k -1,w k -1,k -1,k) where ' f ' represent a predefined mathematical model of a battery cell dynamics, x k -1 is the first state vector at time index k-1, u k -1 is an input to the battery at time index k-1, w k -1 is a process noise at time index k-1, and k-1 and k are subsequent time index variables; measuring a battery voltage output from the battery to obtain a first battery voltage value ( y k) after the first time interval when the battery is electrically re-coupled to the load circuit; estimating a second battery voltage value ( ŷ k) associated with the battery based on the second predicted state vector ( x ^ k −); calculating a voltage error value based on the first battery voltage value and the second battery voltage value; and calculating a third estimated state vector x ^ k + associated with the battery based on the second predicted state vector x ^ k − and the voltage error value.
A biosensor, comprising sensor material sensitive for at least one analyte in a pressure measurement chamber coupled to a pressure sensor, wherein a pressure prevailing in the pressure measurement chamber can be determined by the pressure sensor, characterised in that the sensor material in the pressure measurement chamber is coupled to a compensation material, which at least partially compensates for a cross-sensitivity-induced change in volume of the sensor material.