mhurhangee/patent-ind-claim-en huggingface dataset:
A method for synchronizing a source device with a sink device , comprising: transmitting, by the source device, a stream of packets to the sink device; receiving feedback at the source device from the sink device indicating packet arrival times of the packets at the sink device; characterized by determining, by the source device, based at least on the feedback, an average time shift in the packet arrival times at the sink device, wherein the average time shift is relative to expected packet arrival times of the packets at the sink device; detecting, by the source device, that the average time shift exceeds a threshold; and in response to the detecting, adjusting, by the source device, a streaming time of the stream of packets to synchronize, within a predefined tolerance, the source device with the sink device. transmitting, by the source device, a stream of packets to the sink device; receiving feedback at the source device from the sink device indicating packet arrival times of the packets at the sink device; characterized by determining, by the source device, based at least on the feedback, an average time shift in the packet arrival times at the sink device, wherein the average time shift is relative to expected packet arrival times of the packets at the sink device; detecting, by the source device, that the average time shift exceeds a threshold; and in response to the detecting, adjusting, by the source device, a streaming time of the stream of packets to synchronize, within a predefined tolerance, the source device with the sink device.
A method of synchronization control in a wireless power transmission system, the method comprising: network-connecting a first power transmitting unit, PTU, to a second PTU operating in a slave mode by setting an operation mode of the first PTU to a master mode; and transmitting a signal from the second PTU to a power receiving unit, PRU, by controlling, by the first PTU, either one or both of a communication time and a communication frequency of the second PTU, such that the signal transmitted from the second PTU and a signal transmitted from the first PTU do not overlap. network-connecting a first power transmitting unit, PTU, to a second PTU operating in a slave mode by setting an operation mode of the first PTU to a master mode; and transmitting a signal from the second PTU to a power receiving unit, PRU, by controlling, by the first PTU, either one or both of a communication time and a communication frequency of the second PTU, such that the signal transmitted from the second PTU and a signal transmitted from the first PTU do not overlap.
Demolition robot comprising, a power supply system for an electric motor that drives a hydraulic pump in the demolition robot , a DC bus to provide a DC current from an AC source or a first or second DC source , means to control and monitor the voltage level (VDCnom) of the DC bus and to supply a pre-determined load current (L) from the DC bus to the electric motor , means (SW1, SW2) to activate the power supply system, wherein the load current (I L ) is a DC current and in that the electric motor comprises a DC motor, a voltage regulator arranged between the DC motor 20 and the DC bus 34, 34' and by which the load current (I L ) that is supplied to the DC motor can be regulated, a control unit intended to be carried by an operator of the demolition robot for remote control of the demolition robot , characterised in that the load current (I L ) that is supplied to the DC motor by the voltage regulator can be regulated manually by the influence of control means, i.e. switches or buttons on the control unit or, automatically through the influence of a current sensor arranged at the voltage regulator or a corresponding electronic regulator that is connected in a manner that transfers signals, and is thus capable of providing feedback, with the voltage regulator of supplying load current (I L ). a power supply system for an electric motor that drives a hydraulic pump in the demolition robot , a DC bus to provide a DC current from an AC source or a first or second DC source , means to control and monitor the voltage level (VDCnom) of the DC bus and to supply a pre-determined load current (L) from the DC bus to the electric motor , means (SW1, SW2) to activate the power supply system, wherein the load current (I L ) is a DC current and in that the electric motor comprises a DC motor, a voltage regulator arranged between the DC motor 20 and the DC bus 34, 34' and by which the load current (I L ) that is supplied to the DC motor can be regulated, a control unit intended to be carried by an operator of the demolition robot for remote control of the demolition robot , characterised in that the load current (I L ) that is supplied to the DC motor by the voltage regulator can be regulated manually by the influence of control means, i.e. switches or buttons on the control unit or, automatically through the influence of a current sensor arranged at the voltage regulator or a corresponding electronic regulator that is connected in a manner that transfers signals, and is thus capable of providing feedback, with the voltage regulator of supplying load current (I L ).
A method for providing collision protection in an aircraft , the method comprising: receiving a sensor input from a sensor positioned on the aircraft and operatively coupled with a processor , wherein the sensor is configured to identify obstacles within a field of view; receiving a pilot command stream from a pilot; identifying an obstacle within the field of view based at least in part on said sensor input; determining a region from a plurality of regions within the field of view in which the obstacle is positioned, wherein the region is determined based at least in part on the sensor input; setting a control input as a function of the region determined in the determining step; inputting the control inputs to a proportional-derivative 'PD' controller to generate control data; generating, via the processor , a control command stream as a function of the control data; and comparing, via the processor , the control command stream to the pilot command stream to determine whether the pilot command stream from the pilot is safe. receiving a sensor input from a sensor positioned on the aircraft and operatively coupled with a processor , wherein the sensor is configured to identify obstacles within a field of view; receiving a pilot command stream from a pilot; identifying an obstacle within the field of view based at least in part on said sensor input; determining a region from a plurality of regions within the field of view in which the obstacle is positioned, wherein the region is determined based at least in part on the sensor input; setting a control input as a function of the region determined in the determining step; inputting the control inputs to a proportional-derivative 'PD' controller to generate control data; generating, via the processor , a control command stream as a function of the control data; and comparing, via the processor , the control command stream to the pilot command stream to determine whether the pilot command stream from the pilot is safe.
Capacitive reading apparatus for a pointing instrument , with a carrier provided for arrangement in relation to a rotating pointer of the pointer instrument , on which carrier a large number of n radial electrodes are arranged in a circular arc in alternation with radial counter electrodes , wherein the counter electrodes are electrically connected with one another and are connected to a first measurement terminal of a capacitance-to-digital converter , wherein the n electrodes are connected via an n x k connection matrix and a downstream 1-out-of-k multiplexer to a second measurement terminal of the capacitance digital converter , and wherein the n x k connection matrix connects each of the n electrodes with one of the k channels of the 1-out-of-k multiplexer in each case, wherein the connecting pattern varies along the circular arc to form an ascertainment of a position of the pointer . wherein the counter electrodes are electrically connected with one another and are connected to a first measurement terminal of a capacitance-to-digital converter , wherein the n electrodes are connected via an n x k connection matrix and a downstream 1-out-of-k multiplexer to a second measurement terminal of the capacitance digital converter , and wherein the n x k connection matrix connects each of the n electrodes with one of the k channels of the 1-out-of-k multiplexer in each case, wherein the connecting pattern varies along the circular arc to form an ascertainment of a position of the pointer .
A system for controlling knock in a plurality of cylinders included in an engine, the system comprising: a plurality of knock sensors; and a controller coupled to each of the plurality of knock sensors, the controller configured to: receive a plurality of cylinder knock values corresponding to each of the plurality of knock sensors, determine an average knock value from the plurality of cylinder knock values, determine a cylinder spark timing offset value that comprises a difference between the average knock value and each of the plurality of cylinder knock values for each cylinder in the plurality of cylinders, determine an average spark timing offset value based on the cylinder spark timing offset value relative to a number of cylinders in the plurality of cylinders, and determine an adjusted spark timing value for each of the plurality of cylinders by subtracting the average spark timing offset value from a spark timing value of each of the plurality of cylinders. a plurality of knock sensors; and a controller coupled to each of the plurality of knock sensors, the controller configured to: receive a plurality of cylinder knock values corresponding to each of the plurality of knock sensors, determine an average knock value from the plurality of cylinder knock values, determine a cylinder spark timing offset value that comprises a difference between the average knock value and each of the plurality of cylinder knock values for each cylinder in the plurality of cylinders, determine an average spark timing offset value based on the cylinder spark timing offset value relative to a number of cylinders in the plurality of cylinders, and determine an adjusted spark timing value for each of the plurality of cylinders by subtracting the average spark timing offset value from a spark timing value of each of the plurality of cylinders. receive a plurality of cylinder knock values corresponding to each of the plurality of knock sensors, determine an average knock value from the plurality of cylinder knock values, determine a cylinder spark timing offset value that comprises a difference between the average knock value and each of the plurality of cylinder knock values for each cylinder in the plurality of cylinders, determine an average spark timing offset value based on the cylinder spark timing offset value relative to a number of cylinders in the plurality of cylinders, and determine an adjusted spark timing value for each of the plurality of cylinders by subtracting the average spark timing offset value from a spark timing value of each of the plurality of cylinders.
A body cavity imaging system , comprising: a catheter configured for delivery to a body cavity defined by surrounding tissue; a plurality of ultrasound transducers coupled to a distal end of the catheter , wherein the plurality of ultrasound transducers are disposed on a plurality of splines of a 3D array; a plurality of biopotential electrodes disposed on the plurality of splines of the 3D array; wherein a biopotential electrode and an ultrasound transducer are disposed together to form an electrode/transducer pair, and the system includes a plurality of electrode/transducer pairs; an electronics module configured to selectively turn on/off each ultrasound transducer according to a predetermined activation sequence and to process signals received from each ultrasound transducer to produce a 3D display of the surrounding tissue, characterized by : the activation sequence comprising a pattern of turning on/off the plurality of ultrasound transducers that avoids the sequential activation of two neighboring ultrasound transducers on a single spline, across splines and/or diagonally across splines. a catheter configured for delivery to a body cavity defined by surrounding tissue; a plurality of ultrasound transducers coupled to a distal end of the catheter , wherein the plurality of ultrasound transducers are disposed on a plurality of splines of a 3D array; a plurality of biopotential electrodes disposed on the plurality of splines of the 3D array; wherein a biopotential electrode and an ultrasound transducer are disposed together to form an electrode/transducer pair, and the system includes a plurality of electrode/transducer pairs; an electronics module configured to selectively turn on/off each ultrasound transducer according to a predetermined activation sequence and to process signals received from each ultrasound transducer to produce a 3D display of the surrounding tissue, characterized by : the activation sequence comprising a pattern of turning on/off the plurality of ultrasound transducers that avoids the sequential activation of two neighboring ultrasound transducers on a single spline, across splines and/or diagonally across splines.
A vibrating apparatus for excavation and/or demolition, comprising a frame which can be associated with the movable arm of an excavator which is actuated along an advancement direction (A), a vibrating assembly which is supported by said frame so that it can move with an alternating translational motion along a work direction (L), and at least one work tool (4; 4a, 4b) which is associated with said vibrating assembly , wherein the vibrating apparatus comprises at least two of said work tools (4; 4a, 4b), which are associated with said vibrating assembly and are distributed along a transverse direction (T) which is transverse to said work direction (L), the transverse direction (T) and the work direction (L) being adapted to be arranged, during use, transversely to said advancement direction (A) characterized in that the vibrating apparatus comprises a crossmember and at least one support which is interposed between said vibrating assembly and the crossmember .
Double-walled dinner plate having a cavity which is at least partially filled with a phase change material (PCM) that stores or radiates thermal energy as latent heat by phase transformation from a solid to a liquid state or from a liquid to a solid state, characterized in that a sponge-like polymer structure is provided in the cavity, in which the phase change material is enclosed.
A computer-implemented method for providing haptic feedback based on media content , the computer-implemented method comprising: processing the media content into a plurality of components comprising a first component and a second component; determining a first priority value related to the first component and a second priority value related to the second component; comparing the first priority value with the second priority value; determining a difference between the first priority value and the second priority value based on the comparison; determining, in response to the comparison, a first scaled priority value related to the first component and a second scaled priority value related to the second component, wherein the higher of the two priority values is scaled up and/or the lower of the two priority values is scaled down if a difference between the first priority value and the second priority value is non-zero; generating a first control signal based on the first scaled priority value and a second control signal based on the second scaled priority value; providing the first control signal to a first haptic output device , wherein the first control signal causes the first haptic output device to output the first haptic feedback; and providing the second control signal to a second haptic output device , wherein the second control signal causes the second haptic output device to output the second haptic feedback. processing the media content into a plurality of components comprising a first component and a second component; determining a first priority value related to the first component and a second priority value related to the second component; comparing the first priority value with the second priority value; determining a difference between the first priority value and the second priority value based on the comparison; determining, in response to the comparison, a first scaled priority value related to the first component and a second scaled priority value related to the second component, wherein the higher of the two priority values is scaled up and/or the lower of the two priority values is scaled down if a difference between the first priority value and the second priority value is non-zero; generating a first control signal based on the first scaled priority value and a second control signal based on the second scaled priority value; providing the first control signal to a first haptic output device , wherein the first control signal causes the first haptic output device to output the first haptic feedback; and providing the second control signal to a second haptic output device , wherein the second control signal causes the second haptic output device to output the second haptic feedback.
Plug-in connector part for connection to a mating plug-in connector part , having a housing part , a connector part which is to be latched to the housing part and which has a plug-in portion on which at least one contact element for plug-in connection to the mating plug-in connector part is arranged, and a cover element which is to be connected to the connector part and which has at least one line outlet for receiving an electrical line which is connected to the connector part , characterized by a frame part which is to be connected to the connector part in a latching manner and which is configured to fix the cover element relative to the connector part in a position fitted onto the connector part .
A ceiling system , comprising: at least two elongate carriers , configured to support at least one ceiling panel ; at least one elongate beam ; at least two connecting brackets ; and at least two suspension hangers , configured to support the ceiling system from a structure; wherein each elongate carrier is supported at one or more suspension locations provided on said elongate carrier, and the suspension hangers are directly coupled to the elongate carriers at the suspension locations ; each elongate beam is coupled to at least two elongate carriers by a respective connecting bracket , at respective locations separate from the one or more suspension locations on the elongate carriers ; the connecting brackets are coupled to the elongate carriers by a push-fit connection; and the connecting brackets are coupled to the elongate beam by a push-fit connection. at least two elongate carriers , configured to support at least one ceiling panel ; at least one elongate beam ; at least two connecting brackets ; and at least two suspension hangers , configured to support the ceiling system from a structure; wherein each elongate carrier is supported at one or more suspension locations provided on said elongate carrier, and the suspension hangers are directly coupled to the elongate carriers at the suspension locations ; each elongate beam is coupled to at least two elongate carriers by a respective connecting bracket , at respective locations separate from the one or more suspension locations on the elongate carriers ; the connecting brackets are coupled to the elongate carriers by a push-fit connection; and the connecting brackets are coupled to the elongate beam by a push-fit connection.
An apparatus for drilling curved and straight sections of a wellbore , comprising: a drilling assembly comprising an upper section and a lower section , the drilling assembly configured to include a drill bit at an end of the lower section that is rotatable by a drive in the upper section of the drilling assembly , the drilling assembly further configured to be connected to a drill pipe that is rotatable from a surface location, wherein the drilling assembly further includes: a bearing assembly in the lower section ; a first shaft and a second shaft to transmit a rotational motion from the drive to the drill bit , wherein the first shaft is a flexible shaft coupled to the drive and to the second shaft , the second shaft is disposed in the bearing assembly and coupled to the drill bit ; and a pivot member between the upper section and the lower section that couples the upper section to the lower section , wherein the lower section tilts relative to the upper section about a pivot member axis when the drill pipe is rotationally stationary to allow drilling of a curved section of the wellbore through rotation of the drill bit by the drive , wherein the pivot member axis is perpendicular to the longitudinal axis of the drilling assembly ; wherein rotating the drill pipe causes a reduction of the tilt between the upper section and the lower section when the drill pipe is rotated to allow drilling of a straight section of the wellbore . a bearing assembly in the lower section ; a first shaft and a second shaft to transmit a rotational motion from the drive to the drill bit , wherein the first shaft is a flexible shaft coupled to the drive and to the second shaft , the second shaft is disposed in the bearing assembly and coupled to the drill bit ; and a pivot member between the upper section and the lower section that couples the upper section to the lower section , wherein the lower section tilts relative to the upper section about a pivot member axis when the drill pipe is rotationally stationary to allow drilling of a curved section of the wellbore through rotation of the drill bit by the drive , wherein the pivot member axis is perpendicular to the longitudinal axis of the drilling assembly ; wherein rotating the drill pipe causes a reduction of the tilt between the upper section and the lower section when the drill pipe is rotated to allow drilling of a straight section of the wellbore .