228 results about "Time duration" patented technology

The invention relates to the technical field of PCIe (Peripheral Component Interconnect Express), in particular to a PCIe dynamic degradation type link resetting method and system. Comprising the following steps: S1, continuously reading the LTSSM state of a PCIe link, recording the duration of an abnormal state, and when the duration exceeds a preset threshold value, judging that timeout abnormity exists; s2, after the abnormal early warning is received, a dynamic degradation reset instruction for the NVMe controller is initiated; s3, the state machine control unit takes over the reset link initialization process and follows the physical layer priority gt; the link layer is preferentially gt; a priority strategy is simplified by a transaction layer, and a centralized resource guide link rapidly completes training and enters an L0 state. Compared with the prior art, the method has strict protocol compliance, the reset efficiency is improved, and the overall stability and performance of the system are optimized.

Methods, systems, and devices for wireless communications are described. A forwarding device (e.g., a reconfigurable intelligent surface (RIS)) may transmit a capability message indicating one or more timing parameters associated with a time duration for the forwarding device to switch a set of forwarding elements from forwarding in a first direction to forwarding in a second direction. The forwarding device may receive, based on the indicated one or more timing parameters, one or more control messages that instructs the forwarding device to forward signal energy in the first direction during a first symbol period and to forward signal energy in the second direction during a second symbol period. The first symbol period may be different from the second symbol period. The forwarding device may include a primary array including a first set of forwarding elements and a secondary array including a second set of forwarding elements.

A method for determining occupied positions in a space starts by receiving detections of object movement from a radar monitoring the space. Each detection is associated with a position in the space and a time point when the detection was made. The method accumulates detections that have a time point within a first time period of predefined duration, and identifies a set of clusters of detections in the space by analyzing similarity in position of the accumulated detections. Any cluster whose detections are temporally distributed within a proportion of the first time period which is below a predefined proportion threshold are then removed from the set of clusters. The positions in the space that correspond to the set of clusters are determined to be occupied during the first time period.

A terminal according to various embodiments may: receive TDD configuration information for configuring a downlink time duration and an uplink time duration within a time resource period; receive indication information specifying a first time duration associated with full duplex operation of a base station within the time resource period; and perform communication with the base station on the basis of the indication information and the TDD configuration information, wherein on the basis of the indication information indicating only one of a start symbol, a last symbol, and duration of the first time duration, the first time duration is specified by further considering the boundary of one time duration among the uplink time duration and the downlink time duration.

The disclosure pertains to methods and apparatus for performing positioning of wireless transmit and / or receive units (WTRUs) in wireless communication systems. A WTRU may receive configuration information indicating a time window associated with positioning. The configuration information may indicate any of a duration and a periodicity of the time window. The WTRU may receive (1) first scheduling information indicating to transmit a first uplink transmission including a sounding reference signal (SRS) and (2) second scheduling information indicating to transmit a second uplink transmission including a positioning SRS (SRSp). The first uplink transmission may not include any SRSp. On condition that the second uplink transmission is scheduled for transmission during the time window, the WTRU may transmit the second uplink transmission during the time window and may transmit the first uplink transmission only when the first uplink transmission is scheduled for transmission outside of the time window.

A wireless device may receive one or more configuration parameters, of a cell, for physical downlink control channel (PDCCH) monitoring. The one or more configuration parameters may indicate a time duration of a span of one or more symbols for the PDCCH monitoring, and a time gap between two consecutive spans. The wireless device may determine a buffering time offset, for buffering data scheduled by a PDCCH transmission, based on the time gap and a subcarrier spacing of the cell. The wireless device may receive, in a first radio resource, downlink control information (DCI) scheduling a transport block (TB) in a second radio resource. The wireless device may drop the TB in response to a duration, in time, between the first radio resource and the second radio resource being less than, or equal to, the buffering time offset.

The embodiment of the invention discloses a communication method and a communication device, and the method comprises the steps: transmitting a lead code, the lead code comprises a start indication part, and a level state sequence corresponding to the start indication part comprises a high level and a low level; wherein the ratio of the duration of the high level to the duration of the low level is smaller than or equal to a first ratio; or, the duration of the starting indication part is the first duration, the duration of the high level is the second duration or is within a duration interval, and the duration interval is determined based on the reference duration of the high level and the adjustment duration parameter. By adopting the embodiment of the invention, through designing the start indication part in the lead code, the recognition rate of the environmental Internet of Things equipment for transmission from the reader to the environmental Internet of Things equipment (reader to device, R2D) can be improved, so that the receiving performance of the environmental Internet of Things equipment for R2D transmission can be improved.

A method, apparatus and computer program product to protect network resources against attacks. The technique, referred to herein as a Proof of Work, Space and Time (POWST), prevents large scale attacks by making them computationally and resource-intensive, thus increasing the cost of launching such attacks so as to make them cost-prohibitive. More specifically, the approach herein leverages a Euler function to implement a challenge that involves both proof of work and time, as well as proof of space. This challenge is configured to not only consume CPU cycles, but also does so for a required duration (a “challenge duration”) while simultaneously consuming memory (RAM) space (a “challenge space”) on the attacking machine.

A procedure for correcting a time variable (x) is used. spm ) described, which characterizes a reception time of an echo light pulse received during a LiDAR measurement in a temporal reference frame (40). The received echo light pulse originates from a scanning light pulse transmitted by a transmitter of the LiDAR system and reflected at at least one target. A measurement center point time parameter (x spm The temporal center point of the received echo light pulse is determined. A total measurement intensity quantity (A) is determined, which characterizes the total intensity of the received echo light pulse. A measurement pulse width quantity (w) is determined, which characterizes the temporal duration of the echo light pulse reception. An expected total intensity quantity (A) is determined. e ) is specified, which characterizes the total intensity of an ideal echo light pulse. An expected pulse width quantity (w) e) is specified, which characterizes the time length of the ideal echo light pulse. A center-of-mass correction parameter (Δ) sp ) is calculated using the total measured intensity (A), the measured pulse width (w), and the expected total intensity (A e ) and the expected pulse width size (w e ) determined. A corrected center of gravity time parameter (x spk ) is derived from the measurement center time parameter (x spm ) and the center of gravity correction quantity (Δ sp ) determined.

The invention relates to a resource orchestration method and device for a collaborative network, equipment, a storage medium and a program product. Comprising the following steps: constructing an optimization model taking maximization of total satisfaction, minimization of service duration and minimization of energy consumption of an unmanned aerial vehicle as targets; the total satisfaction is the sum of the satisfaction of each target area, the service duration is the sum of the sensing duration, the transmission duration, the calculation time and the flight time corresponding to each target area, and the energy consumption of the unmanned aerial vehicle is the sum of the sensing energy consumption, the transmission energy consumption, the flight energy consumption and the hovering energy consumption corresponding to each target area; solving the optimization model under the constraint of a preset constraint condition to obtain a computing resource allocation strategy and a sensing communication strategy; comprise computing time, sensing duration, service sequences, flight heights and transmission power of various computing resources. By adopting the method, multi-target collaborative optimization is realized, namely, the service duration and the energy consumption of the unmanned aerial vehicle are minimized while the total satisfaction degree of the system is maximized.

This invention provides a method and system for controlling the delay time of electronic detonators, comprising: configuring delay values ​​for each electronic detonator via an initiator; sending delay time calibration commands to all electronic detonators and calculating the total duration of the reference square wave of the delay time calibration commands to obtain T0; calculating T1 based on T0; upon receiving the delay initiation command, the electronic detonator calculates and writes the value to a delay timer based on T1, and decrements the timer; after the delay timer of the electronic detonator reaches zero, writing the value of T1mod div to the delay timer and decrementing the timer; and detonating the electronic detonator after the delay timer reaches zero. This invention uses a frequency-division clock to compensate for the delay time error caused by the delay, thus solving the problem of amplified delay time error caused by using only a frequency-division clock.

To provide a gaming machine that can enhance the enjoyment of the game. [Solution] The result of the lottery includes a specific result that executes a special game advantageous to the player, the performance control means can execute a special performance at a predetermined trigger, the special performance enables the operation of the performance operation means, the performance control means can display a bonus image for a first hour if the performance operation means is operated during a first period which is part of the effective period for operating the performance operation means, and the performance control means can display a bonus image for a second hour which is shorter than the first hour even if the performance operation means is not operated during the first period.

In some aspects, control circuitry receives and stores a user-specified time duration to associate with a skip-forward command. When the user later issues a skip-forward command to advance playback of a media asset to a desired location, the control circuitry retrieves the stored time duration, and determines an expected overshoot value associated with the skip-forward command. The control circuitry then compensates for the expected overshoot by calculating a new location in the media asset based on both the retrieved time duration and expected overshoot value. Upon advancing to the new location, the media asset is played back in a fast-forward mode, e.g., at a speed higher than normal speed.

Time tracking for memory apparatuses is described herein. Time information (e.g., timestamps) received for each power event can be utilized to generate statistical information indicating the duration a computing device has spent in a particular power state. This statistical information can be retrieved by manufacturers for purposes such as data retention analysis.

Example embodiments of the present disclosure are directed to UE triggered measurement reporting. In a method, a first apparatus determines whether a first resource is available for transmitting a notification associated with a measurement report to a second apparatus. The notification indicates at least one event for measurement reporting occurring and / or the measurement report to be transmitted in a second resource. If the first resource is unavailable for the notification, the first apparatus performs at least one of: refraining from transmitting the measurement report in the second resource; dropping or stopping a measurement corresponding to the measurement report; dropping the transmission of the notification; transmitting the notification in the first resource or in a third resource available for the notification; holding the transmission of the notification and / or the measurement report for a time duration, or dropping the notification and / or the measurement report after the time duration.

The application provides a system delay scheduling method executed by an access point router, and an access point AP router. The method comprises monitoring a traffic state of a data packet, determining an average burst duration according to the traffic state, and comparing the average burst duration with a first time threshold and a second smaller time threshold. If the average burst duration exceeds the first time threshold, a second mode is selected; if the average burst duration is less than the second time threshold, a first mode is selected. In the first mode, a transmitter transmits the data packet through a first number of physical layer protocol data units PPDUs. In the second mode, the transmitter transmits the data packet through a second number of PPDUs after a delay time. The second number of PPDUs is less than the first number of PPDUs.

Example embodiments of the present disclosure relate to configured grant (CG) enhancements. An apparatus determines whether at least one resource in a predetermined duration is to be used for CG data transmission, the at least one resource following a target resource in time domain. The apparatus transmits, based on a determination result and to a network device, an indication on the target resource, the indication indicating if the at least one resource is used or cancelled. In this way, UE is capable of indicating the usage of CG occasions per period with little increase in signaling overhead. In some cases, a scheduling priority of the UE can be dynamically updated by the network based on such indication.

Embodiments of this application provide a parameter transmission method and an apparatus, and relate to the field of wireless communication technologies. In the method, the terminal device may receive first information. The first information may include a time parameter. The time parameter may be used to determine a timing offset. The timing offset includes a second timing offset, and the second timing offset indicates a delay of activation of configuration information. The terminal device determines a delay start duration of a random access response (RAR) window based on the second timing offset.

Certain aspects of the present disclosure provide techniques for communication of channel state information during a discontinuous reception cycle. An example method for wireless communications by a user equipment (UE) includes obtaining an indication to report channel state information (CSI), wherein the indication to report the CSI further indicates that communication of the CSI is allowed during an inactive time period of a discontinuous reception (DRX) cycle, and wherein the indication to report the CSI further indicates that communication of the CSI is independent of an on-duration timer associated with the DRX cycle; obtaining one or more reference signals; and sending, during an instance of the inactive time period, a report that includes first CSI based at least in part on the one or more reference signals.

Devices, methods and computer programs for client device operation mode indication are disclosed. A client device obtains a first indication indicating at least a time duration and at least a first period for repeating the time duration. A downlink control information, DCI, received within the indicated time duration includes a second indication indicating a second operation mode of the client device, and the second indication is not included when the DCI is received outside of the indicated time duration. In response to receiving, at the client device, the DCI from a network node device within the indicated time duration, the client device determines the second operation mode of the client device based on the received second indication, and applies the determined second operation mode of the client device.

An electronic device for determining a session duration according to a response message characteristic in a chatbot and an operating method thereof are provided. The electronic device is configured to determine a default session time based on a difficulty level of a response message, determine an additional session time based on conversation history information of the chatbot before the response message is output, determine a session duration that is a sum of the default session time and the additional session time, and provide the session duration.

Systems and methods for lockless timer synchronization, comprising a client, an administrator client device 112 and a server. The administrator client device 112: initializes a timer for an operation; sets a duration for the operation, and starts the timer. The client makes one or more requests for the amount of time left on the timer, before the timer expires. The administrator client device 112 can adjust the duration of the operation, while the timer is paused or unpaused. The administrator client device 112 can pause or unpause the timer.

Systems and methods for determining and reporting actual utilization of a core of a central processing unit (CPU) of a host. Prior to implementation of aspects of the present disclosure, running a poll querying endpoints of a process for work appears to the host's operating system as busy work (e.g., taking full use of the core for the poll duration). However, only a percentage of the duration of the poll is used to process a task of the process, where the remaining duration of the poll is spent querying the endpoints (idle time) and the core is not performing a task. Accordingly, a core utilization reporting system and method automatically detects the processing time of the tasks of a process, determines actual CPU utilization of the core based on a percentage of the time the core is busy polling (doing effectively no work) versus doing actual work (processing a task).

Methods and apparatuses for a timing advance report an NTN is provided. The method of UE comprises: receiving, from a BS, first information including satellite assistance information for a target satellite; receiving, from the BS, second information including timing information, wherein the timing information includes at least one of a start time and a time duration for a synchronization operation; determining whether a RACH-less synchronization operation is configured; and initiating, based on the satellite assistance information and the timing information, the synchronization operation by performing a RA procedure upon a determination that the RACH-less synchronization operation is not configured.

The present application belongs to the technical field of communications. Disclosed are a resource determination method and apparatus, a resource configuration method and apparatus, and a device. The resource determination method in the embodiments of the present application comprises: a first device receiving first configuration information; and the first device determining a PRACH time-domain resource on the basis of the first configuration information, wherein the first configuration information comprises a first RACH configuration parameter, or the first configuration information comprises at least two RACH configuration indices. The first RACH configuration parameter comprises at least one of the following parameters: a radio frame parameter, a subframe parameter, a starting symbol, a PRACH duration, a PRACH preamble format, first indication information, a symbol type of an RACH resource in a time domain, a first parameter, a second parameter, and a third parameter, wherein the first parameter is the number of PRACH slots within a subframe, the second parameter is the number of PRACH occasions within a PRACH slot, and the first indication information is used for indicating whether a cross-symbol-type operation is allowed or not.

The embodiment of the application discloses a method and related device for indicating wake-up in a dual DRX mode, which comprises: a first device sends a first-stage SCI and then sends a second-stage SCI within a preset time window; the first-stage SCI is used to indicate that the format of the second-stage SCI is a new SCI format, such as SCI format 2-C / 2-D, the second-stage SCI in the new SCI format comprises a wake-up indication bit; the wake-up indication bit is used to indicate whether a second device wakes up within a duration timer of a DRX cycle for communication service and whether the second device wakes up within a duration timer of a DRX cycle for positioning service. By using the embodiment of the application, power consumption can be reduced, and a trade-off between power consumption and communication performance and / or positioning performance can be achieved.

In a network device with multiple connections, a system tracks activity across each connection for a predetermined period. This activity comprises at least either a number of idle periods or the duration of a corresponding idle period. The system divides a predetermined time interval into a number of bins. Each bin is associated with a time range. The system stores the tracked activity in data structure entries, each specifying the number of bins, the duration of time associated with that bin, and a counter value associated with that bin. The system updates the tracked activity in the entry for each connection by incrementing a counter value associated with a bin that corresponds to the duration of the respective idle period, based on an initial number of idle periods tracked for that matching duration.The system displays the stored tracked activity for each connection.

Operating a magnetic-inductive flowmeter includes applying an operating signal having a first time segment having a first partial time segment where a signal value S+,I is applied for a time duration t1,I, and a second partial time segment where a signal value S−,I is applied for a longer time duration t2,I. Magnetic field polarities during time duration t1,I and time duration t2,I differ. The operating signal has a second time segment having a third partial time segment where a signal value S+,II is applied for a time duration t1,II, and a fourth partial time segment where a signal value S−,II is applied for a longer time duration t2,I. The method includes measuring a first measurement voltage during a segment of the first-time segment and a second measurement voltage during a segment of the second time segment, and determining the flow-rate-dependent measurement variable based on the first and second measurement voltage.

A method for determining a characteristic bit-flip time of a quantum qubit in a superconducting quantum device, comprises the following operations: a) initializing an idling time and a probability density function (P) of bit-flip time testing parameters (θ) according to a first probability distribution (p), said bit-flip testing time parameters (θ) comprising at least a decreasing lifetime rate (Γz) said probability density function (P) of bit-flip time testing parameters (θ) being a Poisson distribution with the probability of observing a total measurement outcome y = ∑i yi   being given by (see formula (I)), where p0 / 1 is a function comprising a component of the type e-Γzt, said probability density function of bit-flip time testing parameters (θ) being stored on a grid of values for the bit-flip time testing parameters (θ), b) preparing a physical qubit in a chosen state, c) idling for a duration derived from the idling time, d) obtaining a bit-flip measurement (y) by reading the state of the physical qubit, e) updating the probability distribution function of bit-flip time testing parameters (p(θ)) using the measurement (y) of operation d), the idling time of operation c), and with the formula p(θ) = p(θ)p(y|θ,t) / p(y,t), f) calculating an estimated information gain for each possible measurement time using the updated probability distribution function of bit-flip time testing parameters (p(θ)) of operation e), from the information gain equal to the difference between the Shannon entropy of the probability distribution function of the decreasing lifetime rate (p(Γz)) and the Shannon entropy of the conditional probability distribution function of the decreasing lifetime rate knowing the measurement of operation d) and the idling time (p(Γz|(y,t)), or an estimated information flow with the information flow which is a function of the information gain and the idling time, g) defining a new idling time as the value of time which maximizes the estimated information gain or the estimated information flow of operation f), h) Returning the bit-flip testing time parameters (θ) if p(θ) satisfies a return condition derived from the evolution of the decreasing lifetime rate (Γz), and / or comparison with a return threshold, and else repeating steps b) to g) with the idling time of operation g) and the probability distribution function (p) of bit-flip time testing parameters (θ) of operation e).