79 results about "Transition time" patented technology

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive a rank information change signal associated with rules for switching between a two-layer (2L) mode and a four-layer (4L) mode via an antenna panel displacement operation. The UE may transmit a transition time parameter associated with an amount of time for transitioning between the 2L mode and the 4L mode. Numerous other aspects are described.

Various boost circuits that are used to improve or reduce the time needed to transition an electric machine from an off-state to an on-state at the start of a next pulse during pulsed controlled operation. With these various boost circuits, the naturally generated Back Electromotive Force or “BEMF” that is induced when an electrical machine transitions from the on state to the off state at the end of an on pulse is harvested, rectified, and stored on a storage device. The harvested energy is then made available to the electric machine as a “boost” voltage at the onset of the next on pulse, resulting in a reduced transition time from the off-state to the on-state.

The present invention is a personal care device comprising an elongated handle for manually moving the personal care device along a body surface, a working head attached to the handle for effecting a personal care treatment to the body surface, wherein an adjustment device including at least one adjustment actuator is provided for adjusting at least one treatment characteristic, wherein the adjustment actuator is configured and controlled to adjust the at least one treatment characteristic from a first setting to a second setting within a transition time period of not less than 0.1 seconds and not more than 1.5 seconds.

Systems, computer program products, and methods are described for dynamic power management in signal conductors, such as PCIe links. An example system determines an imminent change in link usage based on a combination of the received historical and predicted link usage information. In response, the example system either triggers a transition from a current operational state to a subsequent operational state, or dynamically adjusts a time period associated with the transition of the signal conductor from a current operational state to a subsequent operational state. These operational states are defined within a predefined sequence of operational power states, ranging from low-power states to active states. The adjustment of the transition time period serves as a mechanism to accommodate variations in link usage patterns, ensuring that transitions between operational states are both timely and efficient, optimizing the link's operational efficiency and reducing potential delays in data processing.

Various boost circuits that are used to improve or reduce the time needed to transition an electric machine from an off-state to an on-state at the start of a next pulse during pulsed controlled operation. With these various boost circuits, the naturally generated Back Electromotive Force or “BEMF” that is induced when an electrical machine transitions from the on state to the off state at the end of an on pulse is harvested, rectified, and stored on a storage device. The harvested energy is then made available to the electric machine as a “boost” voltage at the onset of the next on pulse, resulting in a reduced transition time from the off-state to the on-state.

In one aspect, the present invention relates to a control unit (100) for providing control instructions (ci) for controlling a laser cutting machine (L) by determining transition phases for converting different dynamic laser beam shapes of the laser cutting machine (L), wherein the laser cutting machine (L) preferably comprises a dynamic laser beam shaping module (DBSM) for dynamically changing the laser beam shape. The control unit (100) comprises: a cutting plan interface (101) for receiving a cutting plan to be processed for cutting out parts of a workpiece, wherein each part is defined by a cutting profile comprising cutting segments sorted in a queue; an assignment tool (102) configured to assign a specific dynamic laser beam shape from a set of dynamic laser beam shapes to each cutting segment in the queue of cutting segments according to predefined evaluation criteria; a transition tool (104) for determining the transition phases between every two consecutive specific dynamic laser beam shapes, wherein within a transition time (t), a first specific dynamic laser beam shape among two consecutive specific dynamic laser beam shapes is converted into a second specific dynamic laser beam shape among the two consecutive specific dynamic laser beam shapes; a processor (P) configured to iteratively access the assignment tool (102) for determining a specific dynamic laser beam shape for each cutting segment in the queue of cutting segments, and wherein the processor (P) is further configured to access the transition tool (104) for determining all transition phases between every two consecutive specific dynamic laser beam shapes, and wherein the processor (P) is configured to provide control instructions (ci) for controlling the laser cutting machine (L) for executing the received cutting plan by applying: 1. the specific dynamic laser beam shape determined by the assignment tool (102), and 2. the transition phases between every two consecutive specific dynamic laser beam shapes determined by the transition tool (104).

The invention discloses an animation processing method and device, equipment and a medium product, and the method comprises the steps: responding to a transition triggering event of a first animation, obtaining a second animation, the first animation and the second animation comprise the same object model, and there is a model penetration risk between K parts in the object model; performing attitude acquisition on the K parts in the first animation to obtain first part attitude data; carrying out attitude acquisition on the K parts in the second animation to obtain attitude data of the second parts; according to the first part attitude data and the second part attitude data, predicting a model-crossing risk factor, and based on the model-crossing risk factor, determining a target transition duration between the first animation and the second animation, the target transition duration being negatively correlated with the model-crossing risk factor; and the first animation is transited to the second animation according to the target transition duration, so that the problem of mold crossing in the animation transition process is reduced, the equipment storage space and processing resources consumed in the animation transition process are saved, and the animation transition efficiency is improved.

Computer-implemented methods and systems are provided to measure a load transition time of an electrical system. A selection of a transition mode is received, such as closing or opening transitioning the transition mode. An electrical signal from or derived from the sense lead is monitored to sense a power supply status of the load by the first and second power sources on the electrical system. The sensing lead may be connected or coupleable to the electrical system or a component thereof according to the implemented conversion mode. The occurrence of contact revocation and the occurrence of contact landing associated with the load transition operation are identified from the monitored electrical signals or signals derived therefrom. A load transition time is measured and output based on the identified timing of contact revocation and landing occurrence and the selected transition pattern.

A processing device in a memory sub-system determines a current temperature of a memory device and accesses historical transition data for management units at a plurality of temperatures. The processing device determines a transition time based on the historical transition data and current temperature, sets a scan frequency based on the transition time, and traverses management units at the scan frequency to maintain the management units in a transient state with lower raw bit error rate. The scan frequency may be set to be less than the transition time to prevent management units from transitioning to a stable state with higher raw bit error rate.

An inverter circuit, usable in a clock buffer circuit, includes a main inverter stage having a first transistor of a first conductivity type coupled in series with a second transistor of a second conductivity type, wherein control electrodes of the first and second transistors are coupled to an input node and first current electrodes of the first and second transistors are coupled at an output node. The inverter circuit also includes a first set of additional transistors of the first conductivity type, a second set of additional transistors of the second conductivity type, and a set of switches configured to connect a first transistor of the first set of additional transistors in series with the first transistor for a first time period while connecting a first transistor of the second set of additional transistors in parallel with the second transistor during the first time period.

This disclosure relates to techniques for performing changes to measurement procedures in association with a change in communication and / or measurement configuration. A minimum transition time for a change can be determined and / or a new association for a previously unassociated measurement object can be determined.

To suppress a decrease in the power saving effect compared to a case where a transition time until the device transitions to a mode in which the time until execution of processing becomes possible is longer than the other modes among a plurality of modes is constant.SOLUTION: When a process occurs in an image forming apparatus, the processor in the image forming apparatus determines whether a human presence sensor has detected a user immediately before the process has occurred (S10). When the result of the determination in step S10 is Yes, the processor increments the count value corresponding to the LP mode by 1 (S12). On the other hand, when the result of the determination in step S10 is No, the processor increments the count value corresponding to the mode when the process occurred by 1 (S14). From each of these count values, the processor calculates the proportion of times the process occurred in a mode that takes a short time to become executable, and determines the transition time based on this proportion.SELECTED DRAWING: Figure 10

A drive system for a switch can include a control module configured to control, directly or indirectly, a state of a switch between a first state and a second state. The drive system can also include a transition timing system configured to measure a transition time that the switch is in transit between the first state and the second state.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive a rank information change signal associated with rules for switching between a two-layer (2L) mode and a four-layer (4L) mode via an antenna panel displacement operation. The UE may transmit a transition time parameter associated with an amount of time for transitioning between the 2L mode and the 4L mode. Numerous other aspects are described.

A radiographic imaging apparatus includes a selection unit configured to select a preparatory driving mode from among a plurality of preparatory driving modes, and a drive unit configured to perform preparatory driving in the preparatory driving mode selected by the selection unit during a transition time of transition from a standby state to an imaging enabled state, wherein the plurality of preparatory driving modes is different from each other in the transition time of transition from the standby state to the imaging enabled state, and wherein the selection unit selects a preparatory driving mode from among the plurality of preparatory driving modes such that the transition time of transition from the standby state to the imaging enabled state is equal to or shorter than a radiation irradiation preparation time of a radiation generation apparatus.

An inverter circuit, usable in a clock buffer circuit, includes a main inverter stage having a first transistor of a first conductivity type coupled in series with a second transistor of a second conductivity type, wherein control electrodes of the first and second transistors are coupled to an input node and first current electrodes of the first and second transistors are coupled at an output node. The inverter circuit also includes a first set of additional transistors of the first conductivity type, a second set of additional transistors of the second conductivity type, and a set of switches configured to connect a first transistor of the first set of additional transistors in series with the first transistor for a first time period while connecting a first transistor of the second set of additional transistors in parallel with the second transistor during the first time period.

An envelope tracking system includes an envelope signal generator; a power modulator coupled to the envelope signal generator, the power modulator including a switching regulator path configured to provide an output voltage at an output node to a power amplifier when in an average power tracking (APT) mode, the switching regulator path configured to operate with a linear path to provide the output voltage at the output node to the power amplifier when in an envelope tracking (ET) mode; a capacitor having a first terminal and a second terminal, the first terminal coupled to ground; a switch coupled between the output node and the second terminal of the capacitor, the switch configured to selectively disconnect the capacitor from the output node; and a circuit coupled between the output node and the second terminal of the capacitor, the circuit including a bidirectional current limiting switch, the circuit configured to charge or discharge the capacitor such that a voltage across the capacitor changes from a first voltage to a second voltage.

The invention discloses an elevator operation management method. The method comprises the steps that 1, a relation table of corresponding relations among operation items, operation action processes, operation key images and first relative position relations is established in advance; 2, determining an operation action process, an operation key image and a first relative position relation of the operation item according to the relation table; 3, determining a second relative position relation and a third relative position relation; step 4, determining a first transition time for changing the relative position relation between the operation part and the operation object from the second relative position relation to the first relative position relation and a second transition time for changing the relative position relation between the operation part and the operation object from the first relative position relation to the third relative position relation; 5, determining a first moment according to the operation process and the operation key image; 6, determining a second moment and a third moment according to the first moment, the first transition time and the second transition time; and step 7, outputting the first switching instruction when the current moment is the second moment, and outputting the second switching instruction when the current moment is the third moment.

First device 200 (e.g. smart-POD) in motion (e.g. carried by a runner 600) arrives at a predetermined position proximate a checkpoint 230 (e.g. intermediate checkpoint or finish line). First device de

A boost circuit and method is described for supplying a boost voltage to a rotor of the electric machine, just as the electric machine is pulsed on, the boost voltage aids the rotor in quickly overcoming its start-up inductance, rapidly turn on the rotor. As a result, much faster transition times are realized each time the electric machine transitions from the off state to the on state at the start of a pulse. By reducing the transition time, the overall efficiency of the electric machine is significantly improved.

An adaptive transition controller for a resonant converter system, the adaptive transition controller comprising: a derivative circuit configured to receive a first signal indicative of a resonant current through an inductor in the resonant converter system and generate a derivative signal indicative of a derivative of the first signal; a peak detector circuit configured to generate a peak signal indicative of a peak of the derivative signal over a time period; an integrator circuit configured to integrate the peak signal to generate an extended signal; and a comparator circuit configured to generate an end transition signal when the spread signal exceeds a second signal indicative of a magnetization current in a magnetization inductance of a transformer in the resonant converter system.

Apparatus, methods and systems associated with electronic devices can involve determining a plurality of available services providing content, wherein each service has an associated content format; determining an order of the plurality of available services, based on the content format of each service and a sequence of switching between the plurality of available services, to reduce a transition time when switching, based on the sequence, from a first one of the plurality of available services to a second one of the plurality of services different from the first one; generating, based on the order, a list of the plurality of available services representing a program guide, wherein the first and second services are adjacent in the program guide; and enabling, based on the program guide, switching from the first service to the second service.

The invention provides an active disturbance rejection control method and system applied to unmanned aerial vehicle attitude control, and the method comprises the steps: setting a transition process, inputting a desired signal, and obtaining a discrete expression of the desired signal; obtaining the relation between the speed factor and the transition time and the expected signal through the discrete expression of the expected signal; setting a discrete form of extended state observation, calculating through the discrete form of extended state observation to obtain an amplification coefficient of observed total disturbance and control quantity, and obtaining a fal active disturbance rejection function expression of the unmanned aerial vehicle; designing a control rate by adopting a nonlinear combination of an error and an error differential, and obtaining an output value of nonlinear error feedback of the unmanned aerial vehicle by applying a fal active disturbance rejection function; and the disturbance compensation process of the unmanned aerial vehicle is carried out through the observed total disturbance, the amplification coefficient of the control quantity and the output value fed back by the nonlinear error of the unmanned aerial vehicle. The active-disturbance-rejection control method is applied to attitude control of the four-rotor unmanned aerial vehicle, and the stability of the unmanned aerial vehicle can be effectively improved.

An adaptive transition controller for a resonant converter system, including: a derivative circuit configured to receive a first signal indicative of a resonant current through an inductor in the resonant converter system and produce a derivative signal indicative of a derivative of the first signal; a peak detector circuit configured to produce a peak signal indicative of a peak value of the derivative signal over a time period; an integrator circuit configured to integrate the peak signal to produce an extension signal; and a comparator circuit configured to produce an end transition signal when the extension signal exceeds a second signal indicative of the magnetizing current in a magnetizing inductance of a transformer in the resonant converter system.

Systems, apparatuses, and methods for serial peripheral interfaces are provided, particularly for PVT compensated serial peripheral interfaces with slow transition serial interface IO transmitter with reduced delay. The serial peripheral interfaces may include driver circuitry, pre-driver circuitry, PVT compensated current sink circuitry, and PVT compensated current source circuit. The PVT compensated current sink circuitry and PVT compensated current source circuit may generate and transmit signals compensating for PVT to the pre-driver circuitry, which may generate and transmit signals controlling IO data signals generated by the driver circuitry. The IO data signals generated may be compensated for process, voltage, and temperature. The compensation may provide IO data signals with slower transition times and with reduced delays.

A method includes determining a state of the user that is any one of an attention state and an attention absence state. If the user is in the attention absence state, the indication by the progress indicator is modified to indicate a first fake progress of the execution of the task slower than the current real task progress. If the state of the user is the attention state for a time period longer than a transition time period after a last transition of the state of the user from the attention absence state back to the attention state, a current progress of the execution of the task is indicated by the progress indicator, otherwise the indication by the progress indicator during the transition time period is modified to indicate a second fake progress of the execution of the task faster than the current real task progress.

A power adjustment method and device, the method comprising: a terminal device reporting capability information to a network device, the capability information comprising a first transition time value, the first transition time value being a transition time value when the terminal device performs power adjustment; the first transition time value being one or more of at least one transition time, and the at least one transition time having a corresponding relationship with a subcarrier spacing (SCS) supported by the terminal device; and the terminal device performing power adjustment according to the first transition time value. Through the method of the present application, the terminal device can report the transition time required for power adjustment through the capability value, and can perform accurate power adjustment process according to the reported transition time.

There is provided techniques for adjusting timing of output audio signals to achieve desired inter-channel time difference (ITD) between output audio signals. A method comprises receiving a current ITD value and an audio frame, and determining transition times t1, t2 to perform a time shift to apply to at least one of a first output signal and a second output signal based on the ITD of a current frame and an ITD of a previous frame. The time shift within the determined transition times t1, t2 is applied in generation of the first output signal and the second output signal.

The present disclosure relates to a solution for transition between receivers. In particular, the network device configures a plurality of thresholds to the terminal device. The terminal device determines a threshold based on its supported transition time and the plurality of thresholds. The terminal device performs a transition between receives based on the threshold.

The present technology relates to a wireless communication apparatus and a wireless communication method, and a wireless communication terminal and a wireless communication method capable of improving communication efficiency. The wireless communication apparatus of the present technology includes a communication control unit that determines a link for frame transmission to a wireless communication terminal from among a plurality of links on the basis of information regarding a first transition time, for each of the plurality of links, required for the wireless communication terminal to transition from a multi-link state in which communication is performed by using the plurality of links to a single-link state in which communication can be performed by using any one of the links. The present technology can be applied to, for example, a wireless communication apparatus compatible with an EMLSR operation.