mhurhangee/patent-ind-claim-en huggingface dataset:
A control apparatus for controlling consumer equipment provided in a consumer facility, the control apparatus comprising: a controller configured to select one or more operable functions among a plurality of functions of the consumer equipment according to an operation state of the control apparatus and whether or not an operation apparatus , which operates the consumer equipment , is located outside the consumer facility, the operation state being associated with the selected one or more operable functions, wherein the operation state includes at least one of a normal operation state of the control apparatus, an abnormal state of the control apparatus, and a power saving state of control apparatus, transmit information indicating the selected one or more operable functions to the operation apparatus , and transmit a request message for requesting execution of a function designated from the selected one or more operable functions to the consumer equipment , when the control apparatus receives an operation instruction of the designated function of the selected one or more operable functions from the operation apparatus . a controller configured to select one or more operable functions among a plurality of functions of the consumer equipment according to an operation state of the control apparatus and whether or not an operation apparatus , which operates the consumer equipment , is located outside the consumer facility, the operation state being associated with the selected one or more operable functions, wherein the operation state includes at least one of a normal operation state of the control apparatus, an abnormal state of the control apparatus, and a power saving state of control apparatus, transmit information indicating the selected one or more operable functions to the operation apparatus , and transmit a request message for requesting execution of a function designated from the selected one or more operable functions to the consumer equipment , when the control apparatus receives an operation instruction of the designated function of the selected one or more operable functions from the operation apparatus .
A method comprising: calculating a current associated with a motor of an elevator based on an output of a speed regulator; and controlling the elevator based on the current; characterized by comparing the current to a limit associated with at least one of a drive and the motor , controlling the elevator comprises finishing an elevator run when the comparison indicates that the current is less than the limit, and controlling the elevator comprises at least one of (i) halting the elevator, (ii) slowly bringing the elevator to a stop and running the elevator back to an initial position, and (iii) reducing a speed reference and having the elevator proceed to an initial landing, when the comparison indicates that the current is greater than the limit. calculating a current associated with a motor of an elevator based on an output of a speed regulator; and controlling the elevator based on the current; characterized by comparing the current to a limit associated with at least one of a drive and the motor , controlling the elevator comprises finishing an elevator run when the comparison indicates that the current is less than the limit, and controlling the elevator comprises at least one of (i) halting the elevator, (ii) slowly bringing the elevator to a stop and running the elevator back to an initial position, and (iii) reducing a speed reference and having the elevator proceed to an initial landing, when the comparison indicates that the current is greater than the limit.
Low-voltage circuit breaker (LS) for a low-voltage AC circuit, having: - a Rogowski coil (RS1, RS2, RS3, RSN) for ascertaining the electric current level of a conductor (L1, L2, L3, N) of the low-voltage AC circuit, which Rogowski coil outputs an analogue voltage (A1, A2, A3, AN) that is equivalent to the electric current level of the conductor, - an interruption unit (UE) having contacts (K) for interrupting the low-voltage AC circuit, - an electronic trip unit (ETU), which is connected to the Rogowski coil (SE1) and to the interruption unit (UE), with a microprocessor (MP) that are configured in such a way that an interruption of the low-voltage AC circuit is initiated when current limit values and/or current/time period limit values of the phase conductor are exceeded, wherein the Rogowski coil (RS1, RS2, RS3, RSN) is connected to an analogue integrator (INT) that is followed by an analogue-digital converter (ADU) that converts the integrated analogue voltage (uc(t)) into a digital signal (P1, P2, P3, PN), characterized in that the digital signal (P1, P2, P3, PN) is processed further by the microprocessor in such a way that the phase shift generated by the Rogowski coil and by components that follow the Rogowski coil is compensated for, so that correct-phase current values (ip(t)) are available for the detection of fault situations to protect the low-voltage AC circuit. - a Rogowski coil (RS1, RS2, RS3, RSN) for ascertaining the electric current level of a conductor (L1, L2, L3, N) of the low-voltage AC circuit, which Rogowski coil outputs an analogue voltage (A1, A2, A3, AN) that is equivalent to the electric current level of the conductor, - an interruption unit (UE) having contacts (K) for interrupting the low-voltage AC circuit, - an electronic trip unit (ETU), which is connected to the Rogowski coil (SE1) and to the interruption unit (UE), with a microprocessor (MP) that are configured in such a way that an interruption of the low-voltage AC circuit is initiated when current limit values and/or current/time period limit values of the phase conductor are exceeded, wherein the Rogowski coil (RS1, RS2, RS3, RSN) is connected to an analogue integrator (INT) that is followed by an analogue-digital converter (ADU) that converts the integrated analogue voltage (uc(t)) into a digital signal (P1, P2, P3, PN), characterized in that the digital signal (P1, P2, P3, PN) is processed further by the microprocessor in such a way that the phase shift generated by the Rogowski coil and by components that follow the Rogowski coil is compensated for, so that correct-phase current values (ip(t)) are available for the detection of fault situations to protect the low-voltage AC circuit.
A computer-implemented method , comprising: establishing, at a first client device (102-1, 102-2), a wireless communication link with a second client device (102-2, 102-1); receiving , at the first client device, and in response to a detection that the second client device is within a predefined proximity of the first client device, application information associated with a first application executing at the second client device, the second client device having a user interface state of the first application, at least a portion of the application information being received via the wireless communication link; and executing , at the first client device, a second application corresponding to the first application, the second application having an initial user interface state corresponding to the user interface state of the first application at the second client device; wherein executing the second application includes transitioning from a system state in which the second application is not executing as a foreground application to a system state in which the second application is executing as the foreground application. establishing, at a first client device (102-1, 102-2), a wireless communication link with a second client device (102-2, 102-1); receiving , at the first client device, and in response to a detection that the second client device is within a predefined proximity of the first client device, application information associated with a first application executing at the second client device, the second client device having a user interface state of the first application, at least a portion of the application information being received via the wireless communication link; and executing , at the first client device, a second application corresponding to the first application, the second application having an initial user interface state corresponding to the user interface state of the first application at the second client device; wherein executing the second application includes transitioning from a system state in which the second application is not executing as a foreground application to a system state in which the second application is executing as the foreground application.
A method comprising: a client (CP) applying a plurality of changes to a client branch graph, wherein the client branch graph is maintained in a memory space which has been allocated to the client,; the client recording the plurality of changes to the client branch graph in a change store also maintained in the memory space; the client transferring a first set of one or more protocol requests including one or more batch protocol requests to a display server , wherein the first set of protocol requests contain data from the change store specifying the plurality of changes, wherein the display server is configured to apply the plurality of changes to a remote branch graph, wherein one or more graphical objects are described in the remote branch graph; wherein each one of said one or more batch protocol requests includes two or more changes of said plurality of changes; and wherein the display server is further configured to attach the remote branch graph to a scene graph and to render the scene graph. a client (CP) applying a plurality of changes to a client branch graph, wherein the client branch graph is maintained in a memory space which has been allocated to the client,; the client recording the plurality of changes to the client branch graph in a change store also maintained in the memory space; the client transferring a first set of one or more protocol requests including one or more batch protocol requests to a display server , wherein the first set of protocol requests contain data from the change store specifying the plurality of changes, wherein the display server is configured to apply the plurality of changes to a remote branch graph, wherein one or more graphical objects are described in the remote branch graph; wherein each one of said one or more batch protocol requests includes two or more changes of said plurality of changes; and wherein the display server is further configured to attach the remote branch graph to a scene graph and to render the scene graph.
A universal canister flush valve with an adjustable overflow height, comprising: a valve body configured to be fixed relative to a toilet tank and having a hollow wall defining an internal flow passage; a guide post coupled to and extending away from the valve body ; afloat fitted about and configured to slide relative to the guide post between a closed position and an open position, the float having an open top ; and an extender that selectively couples to the open top in a first position, in which a first end of the extender is received in or inserted over the open top and coupled to the open top , and in a second position, in which a second end of the extender is received in or inserted over the open top and coupled to the open top , such that flipping the extender over adjusts the overflow height, wherein the extender and float define a first overflow height in the first position and define a second overflow height in the second position. a valve body configured to be fixed relative to a toilet tank and having a hollow wall defining an internal flow passage; a guide post coupled to and extending away from the valve body ; afloat fitted about and configured to slide relative to the guide post between a closed position and an open position, the float having an open top ; and an extender that selectively couples to the open top in a first position, in which a first end of the extender is received in or inserted over the open top and coupled to the open top , and in a second position, in which a second end of the extender is received in or inserted over the open top and coupled to the open top , such that flipping the extender over adjusts the overflow height,
A method of controlling an energy storage system , the energy storage system including a plurality of batteries (202A, 202B, ... , 202N) that provide a DC voltage output coupled through a respective plurality of power converters (212A, 212B, ... , 212N) to a DC bus , the method comprising: providing one or more constraints to an optimization problem algorithm characterised in that the method further comprises: determining by the optimization problem algorithm a DC bus voltage (V Bus ) value that results in an about minimum total power dissipation for the plurality of power converters; calculating a respective control variable for each of the respective plurality of power converters based on the determined DC bus voltage value; generating control processor executable instructions to implement control of each of the respective plurality of power converters to achieve the calculated respective control variable; and providing to at least one processor the executable instructions, which when executed by the at least one processor cause the at least one processor to command respective ones of the plurality of power converters to operate based on the calculated respective control variable. determining by the optimization problem algorithm a DC bus voltage (V Bus ) value that results in an about minimum total power dissipation for the plurality of power converters; calculating a respective control variable for each of the respective plurality of power converters based on the determined DC bus voltage value; generating control processor executable instructions to implement control of each of the respective plurality of power converters to achieve the calculated respective control variable; and providing to at least one processor the executable instructions, which when executed by the at least one processor cause the at least one processor to command respective ones of the plurality of power converters to operate based on the calculated respective control variable.
Stimulation device, at least comprising: a source of energy, an electronic unit, an actuator coupled to the electronic unit and/or the energy source, and wherein the electronic unit comprises a control unit, a housing, wherein the power source, the electronic unit and the actuator are arranged in the housing, a fixation unit coupled to the housing, the fixation unit configured to fix the stimulation device on or in a heart, wherein the actuator is configured to emit electromagnetic waves for stimulating genetically manipulated tissue, and wherein the control unit is configured to control the stimulation of said tissue by means of the electromagnetic waves of the actuator, wherein the electronic unit comprises a pickup unit configured to measure data characterizing tissue activity and/or success of a stimulation, wherein the electronic unit comprises an evaluation unit configured to evaluate measurement data with respect to a requirement of a stimulation and/or with respect to a success of a stimulation; characterized in that the electronic unit further comprises a 3D accelerometer which is used to control of the success of the therapy by evaluating, after every optical stimulation, whether an acceleration of the stimulation device fixed to the myocardium has been detected. a source of energy, an electronic unit, an actuator coupled to the electronic unit and/or the energy source, and wherein the electronic unit comprises a control unit, a housing, wherein the power source, the electronic unit and the actuator are arranged in the housing, a fixation unit coupled to the housing, the fixation unit configured to fix the stimulation device on or in a heart, wherein the actuator is configured to emit electromagnetic waves for stimulating genetically manipulated tissue, and wherein the control unit is configured to control the stimulation of said tissue by means of the electromagnetic waves of the actuator, wherein the electronic unit comprises a pickup unit configured to measure data characterizing tissue activity and/or success of a stimulation, wherein the electronic unit comprises an evaluation unit configured to evaluate measurement data with respect to a requirement of a stimulation and/or with respect to a success of a stimulation; characterized in that the electronic unit further comprises a 3D accelerometer which is used to control of the success of the therapy by evaluating, after every optical stimulation, whether an acceleration of the stimulation device fixed to the myocardium has been detected.
A multi-aperture imaging device, comprising: an image sensor ; an array of optical channels (16a-h), each optical channel (16a-h) including optics (64a-h) for imaging a partial field of view (72a-d) of a total field of view onto an image sensor region (24a-h) of the image sensor ; and beam-deflecting means switchable between a first rotational position and a second rotational position by executing a switching movement and configured to deflect, in a first rotational position, optical paths (26a-h) of the optical channels (16a-h) into a first viewing direction (27 1 ) and to deflect, in a second rotational position, the optical paths (26a-h) of the optical channels (16a-h) into a second viewing direction (27 1 ); wherein the array is configured to execute, based on the switching movement, an adjustment movement for adjusting an orientation of the array with respect to the beam-deflecting means ; wherein the beam-deflecting means comprises two opposite main sides formed to be reflective and is configured to guide, in the first position, the optical paths with a first main side of the beam-deflecting means into the first viewing direction (27 1 ) and to guide, in the second position, the optical paths with a second main side into the second viewing direction (27 2 ). an image sensor ; an array of optical channels (16a-h), each optical channel (16a-h) including optics (64a-h) for imaging a partial field of view (72a-d) of a total field of view onto an image sensor region (24a-h) of the image sensor ; and beam-deflecting means switchable between a first rotational position and a second rotational position by executing a switching movement and configured to deflect, in a first rotational position, optical paths (26a-h) of the optical channels (16a-h) into a first viewing direction (27 1 ) and to deflect, in a second rotational position, the optical paths (26a-h) of the optical channels (16a-h) into a second viewing direction (27 1 ); wherein the array is configured to execute, based on the switching movement, an adjustment movement for adjusting an orientation of the array with respect to the beam-deflecting means ; wherein the beam-deflecting means comprises two opposite main sides formed to be reflective and is configured to guide, in the first position, the optical paths with a first main side of the beam-deflecting means into the first viewing direction (27 1 ) and to guide, in the second position, the optical paths with a second main side into the second viewing direction (27 2 ).
A light device for motor vehicle, comprising a light source , a reflective surface and a colour surface , the reflective surface having a proximal part of concave shape, close to and facing the light source , the proximal part making it possible to direct the light beam emitted by the light source outward the light device , the reflective surface being arranged to allow an observer outside the light device to view at least part of the colour surface through the reflective surface , the colour surface having a different colour than the reflective surface , characterized in that the light source flushes with or slightly sets back from the colour surface , so that the light source is not directly visible by an observer of the light device.
A measuring device for characterizing an inhomogeneous, fluid medium, and for determining the density, the mass flow, and/or the viscosity of the medium, comprising: An oscillator which has at least one measuring tube that can vibrate for conducting the medium, and which has at least one vibration mode with a natural frequency that depends on the density of the medium; An exciter for initiating the vibration mode; At least one vibration sensor for registering vibrations of the oscillator ; and An operating and evaluation circuit which is configured to supply the exciter with an exciter signal, to register signals from the vibration sensor, to use the signals from the vibration sensor to determine current values of the natural frequency of the oscillator and fluctuations in the natural frequency, and to generate a media state message with a fluctuation-dependent media state value, characterized in that the media state value continues to depend on a measured flow value which characterizes the flow occurring in the fluctuations. An oscillator which has at least one measuring tube that can vibrate for conducting the medium, and which has at least one vibration mode with a natural frequency that depends on the density of the medium; An exciter for initiating the vibration mode; At least one vibration sensor for registering vibrations of the oscillator ; and An operating and evaluation circuit which is configured to supply the exciter with an exciter signal, to register signals from the vibration sensor, to use the signals from the vibration sensor to determine current values of the natural frequency of the oscillator and fluctuations in the natural frequency, and to generate a media state message with a fluctuation-dependent media state value, characterized in that the media state value continues to depend on a measured flow value which characterizes the flow occurring in the fluctuations.
A motion assistance apparatus, comprising: a proximal support configured to support a proximal part of a user; a first drive link and a second drive link , the first drive link and the second drive link each configured to perform translational motions with respect to the proximal support such that the first drive link and the second drive link perform the translational motions at different velocities; a support link rotatably connected to the first drive link and the second drive link ; a distal support connected to the support link , the distal support configured to support a distal part of the user; a coupling link configured to rotate about a first rotation axis (A1) on the proximal support , the coupling link rotatably connected to the first drive link and the second drive link ; a connecting link configured to rotate about a second rotation axis (A2) on the proximal support , the connecting link rotatably connected to the second drive link , the first rotation axis (A1) being a different rotational axis from the second rotation axis (A2); and an actuator configured to move one of the support link , the first drive link , the second drive link , the coupling link , and the connecting link . a proximal support configured to support a proximal part of a user; a first drive link and a second drive link , the first drive link and the second drive link each configured to perform translational motions with respect to the proximal support such that the first drive link and the second drive link perform the translational motions at different velocities; a support link rotatably connected to the first drive link and the second drive link ; a distal support connected to the support link , the distal support configured to support a distal part of the user; a coupling link configured to rotate about a first rotation axis (A1) on the proximal support , the coupling link rotatably connected to the first drive link and the second drive link ; a connecting link configured to rotate about a second rotation axis (A2) on the proximal support , the connecting link rotatably connected to the second drive link , the first rotation axis (A1) being a different rotational axis from the second rotation axis (A2); and an actuator configured to move one of the support link , the first drive link , the second drive link , the coupling link , and the connecting link .