223 results about "Active state" patented technology

This application provides a communication system including a first device and a second device. A first transmitting component of the first device is interconnected with a first receiving component of the second device via a first channel, and a second transmitting component of the first device is interconnected with a second receiving component of the second device via a second channel. The first channel is in an active state, and the second channel is in an inactive state. The first device is used to send a first indication message to the second device via the first channel, instructing the second device to activate the second receiving component. The first device is also used to send first data to the second device via the second channel after sending the first indication message. The first data is used to train the second transmitting component and the second receiving component. The second device receives the first data sent by the first device and verifies the first data. Successful verification of the first data indicates that the second transmitting component and the second receiving component have been successfully trained. This solution can improve energy efficiency.

The present application provides a kind of pulse neural network conversion method and device for underwater sonar autonomous detection, the method comprises the following steps: step S1: modify YOLOv3-tiny model based on deep neural network model (DNN), obtain the YOLOv3-tiny model after modification;Step S2: load underwater sonar image data set, train the YOLOv3-tiny model after modification;Step S3: for underwater target detection, the trained YOLOv3-tiny model is converted into YOLOv3-SNN model based on pulse neural network (SNN), and the YOLOv3-SNN model includes input layer, hidden layer and output layer, wherein input layer uses real number coding, hidden layer uses the two-state pulse neural coding of active state and resting state, and output layer uses membrane voltage decoding;Step S4: using the YOLOv3-SNN model based on pulse neural network (SNN), is directly used for underwater sonar small target detection task.

Embodiments of the present application provide a positioning point display method and device, electronic equipment and storage medium, which are applied to a smart wearable device and include the following steps: obtaining positioning information of the smart wearable device; acquiring target ionosphere total electron content (TEC) data within a preset range centered on the positioning information within a preset time period starting from a current time; and when the target ionosphere total electron content (TEC) data is greater than a preset TEC threshold value, the smart wearable device does not display the positioning information. By not displaying the positioning result of the positioning point in the active state of the ionosphere, reliable and accurate position information is provided to the user, and the user experience is further improved.

This invention relates to the field of intelligent driving vehicle technology, specifically disclosing a method for recognizing "dragging" behavior in assisted driving vehicles based on multimodal temporal feature analysis. First, vehicle driving data is collected and processed to calculate the temporal signal of the vehicle's lateral distance relative to the lane centerline. Second, the active state of the assisted driving system is verified. Then, the peaks and troughs of the lateral distance signal are detected collaboratively, and the extreme points are intelligently paired and optimized using temporal alternation constraints and extreme value competition rules to generate an extreme point sequence that conforms to the laws of physical motion. Finally, a joint judgment is made using multi-dimensional criteria: when the optimized extreme point sequence simultaneously satisfies the conditions of periodicity, amplitude validity, and persistence, "dragging" behavior is determined to have occurred, and quantitative parameters and severity levels can be output. This invention achieves high-precision, quantifiable detection of "dragging" behavior, providing data support for the performance evaluation and optimization of assisted driving systems.

A wireless transmit / receive unit (WTRU) may be configured to perform measurements and measurement predictions in an idle state or an inactive state (e.g., low-power operation mode). The WTRU may perform measurements for the configured idle measurement durations. If the WTRU stays in the idle state or the inactive state for more than a validity duration after it has stopped performing measurements, the WTRU may perform measurement predictions. Upon transitioning to a CONNECTED state (full-power operation mode), the WTRU may report the actual measurements, if they are still valid, or otherwise, report the predicted measurements.

The utility model discloses an ear-hanging type headset which comprises a head band, and positioning blocks are fixedly installed on the left side and the right side of the head band. The pull rods are arranged on the left side and the right side of the head band and penetrate through the head band and the inner side of the positioning block; the headset bodies are fixedly connected to the tail end of the pull rod, and the headset bodies are arranged on the left side and the right side of the head band. According to the ear-hanging type headset, when the tightness of the headset needs to be adjusted, a sliding push rod is pressed to enable a second clamping block to move upwards, and after the second clamping block moves upwards, first clamping blocks on the two sides of the second clamping block can move towards the midpoint direction of a positioning block through the elastic force of a first telescopic spring, so that clamping of a pull rod is lost; the pull rod is in a movable state and slides along the inner side of the positioning block, and at the moment, the headset bodies on the two sides can be pulled outwards and moved to proper positions, so that the headset is suitable for people with different head shapes, and the headset bodies on the two sides are stably worn on the ears.

The invention relates to a method for controlling an energy supply of a lift (1) comprising a power module (15) for supplying the lift (1) with electrical energy from a mains system (19) and / or a battery (20) and for charging the battery (2), wherein, when it is established that the lift is in an inactive state, in which less electrical energy is drawn from the battery (20) than in an active state of the lift (1), the method involves: adapting at least one charging parameter (P) for charging the battery (20) to the inactive state; generating a control command (26) for controlling the power module (15) such that the battery (20) is charged at least in some phases according to the at least one charging parameter (P) adapted to the inactive state.

Mechanisms are disclosed for detecting one or more defects in a system In-system and externally observable events are received. Active state information is derived from the in- system and externally observable events. If a memory update is required based on facts from the semantic memory, an episodic memory and a working memory are updated. Actions required from a procedural memory are extracted based on the updated episodic memory and the updated working memory. A prompt is executed on a generative language model to produce a model reasoning output. Reproduction steps are derived from the episodic memory, based on a determination that a defect is present from the model reasoning output. A defect signal is generated and provided to a testing user.

The utility model discloses a detachable rest cottage, including base plate and foundation pile, the base plate lower end inlay fixed setting has the stand, be provided with the dismounting mechanism between the stand and foundation pile, the base plate one side inlay fixed setting has the cat ladder, the base plate top spliced installation has the house main part. The utility model first embeds the foundation pile, and installs the stand on the top of foundation pile, makes the extension tray alignment, and the mounting hole on the extension tray is in the alignment state, then passes the mounting hole with fixed screw rod, cooperates the nut and is fixed in fixed screw rod lower extreme, makes the extension tray between each other fixed, thereby makes the stand fixed on the foundation pile, when the whole device installs, then needs to dismount and shifts, when this time, dismounts fixed screw rod, can separate the extension tray, makes the stand and the foundation pile each other dismounts, like this can make the whole device be in the active state, the overall shift of convenient device, need not dismount alone again, still need to install alone in succession, save time and effort.

The present disclosure relates to the technical fields of unmanned aerial vehicles and logistics delivery, and provides an unmanned aerial vehicle interaction method and a program product. The method comprises: after an unmanned aerial vehicle is successfully connected, displaying a safety protection switch on a first interface, wherein the safety protection switch is in an off state, and the off state is used for indicating that the unmanned aerial vehicle is in a non-safety protection mode; in response to a selection operation on the safety protection switch, displaying a first pop-up window, wherein the first pop-up window comprises a first control and a second control, and the first control is used for determining to continue to turn on the safety protection switch; in response to a selection operation on the first control, closing the first pop-up window, enabling the first control of the first interface to be in an on state, and controlling the unmanned aerial vehicle to send a physical feedback signal; and adjusting a first guidance window on the first interface to be in an active state, wherein the first guidance window is used for guiding ground crew to complete a ground operation on the unmanned aerial vehicle.

A multi-layer article includes a non-active state and an active state. The multi-layer article includes at least one layer that includes a volatile material therein. The multi-layer article is folded along an axis so that an upper portion of the multi-layer article is disposed on a lower portion of the multi-layer article.

A user equipment (UE) may operate on a dormant bandwidth part (BWP) and a non-dormant BWP of a carrier. The UE identifies a dormant bandwidth part (BWP) and a non-dormant BWP of a carrier corresponding to a primary secondary cell (PSCell) of a secondary cell group (SCG) for dual connectivity (DC), determines that the dormant BWP is configured in an active state and performing one or more actions corresponding to the dormant BWP.

This invention provides a centering and positioning mechanism for a resonant cavity conical mirror, including a flipping structure and a centering and positioning assembly. The flipping structure has a flipping plate, which is used to drive the flipping plate from a hidden state to an active state. By setting the centering and positioning assembly, this invention utilizes a support shaft, a first adjusting member, a second adjusting member, and a fixed disk to form a multi-point hinged support structure, achieving fine-tuning of the conical mirror's tilt angle in at least one plane while maintaining structural stability. The independently driven axial adjustment structure effectively avoids the problem of tilt angle and position coupling in traditional three-point rigid adjustment structures, enabling the center of the conical mirror's apex to be more accurately aligned with the optical axis of the resonant cavity, thereby improving the symmetry and mode stability of the hollow beam.

The application provides a kind of automatic regulation method of cruise vehicle speed, system, vehicle controller and electric vehicle.The method comprises: obtaining vehicle motion information, first preset acceleration threshold and second preset acceleration threshold, the first preset acceleration threshold is used to control cruise vehicle speed up, and the second preset acceleration threshold is used to control cruise vehicle speed down;When judging that the vehicle motion information meets the first jump condition;Control vehicle from current speed adjustment standby state to enter speed adjustment active state, while starting to adjust the current cruise vehicle speed of the vehicle;According to the current speed adjustment state of vehicle, output adjusted cruise vehicle speed.The method provided by the application can automatically adjust the cruise vehicle speed in advance, realize reasonable cruise vehicle speed adjustment process, and improve user comfort.

This invention proposes a method for detecting the failure of a PV common-mode inductor in an energy storage inverter, a storage medium, and an energy storage inverter. The method includes: acquiring the on / off state of the electronic switches of each PV input branch; determining whether the on / off state of the electronic switches of each PV input branch meets a preset trigger condition, wherein the trigger condition is: only one PV branch in the PV branch group corresponding to the common-mode inductor to be detected is in the active state, and each PV branch corresponding to each non-detected common-mode inductor is in the open state; when the trigger condition is met, detecting the current in any PV branch that is in the open state corresponding to any non-detected common-mode inductor, and calculating the current amplitude; if the current amplitude is greater than a preset threshold, it is determined that the common-mode inductor to be detected has a failure risk. This invention detects cross-branch current crosstalk caused by inductor failure in a multi-PV shared common-mode inductor structure online by detecting the current amplitude, and determines whether the inductor has failed.

A data transmission method, wherein when small data arrives, user equipment (UE) in a radio resource control inactive state RRC_INACTIVE can establish a communication with a base station without entering an RRC connected state, so as to perform small data transmission (SDT). An RNAU timer for controlling a periodic radio access network (RAN) based notification area update is set for the base station. For the SDT, an SDT timer for SDT small data transmission is set. A small data transmission data radio bearer (DRB) is configured for the user equipment. When an RRC resume procedure is triggered by arrival of data at the DRB, a high layer triggering small data transmission, or the like, the user equipment starts the SDT timer.

This application provides a flow control method, an artificial intelligence distributed training method, an electronic device, a storage medium, and a program product. The method includes: acquiring traffic characteristic information of a data stream to be transmitted sent by an application layer program; generating corresponding flow table rules based on the traffic characteristic information; pre-configuring the flow table rules to a network device and controlling the flow table rules to be in an inactive dormant state; upon receiving a trigger signal sent by the application layer program, sending a control command to the network device to switch the flow table rules to an active state, so that the data stream to be transmitted is transmitted via a target path based on the active flow table rules; the trigger signal is used to instruct the data stream to be transmitted to start transmission. This avoids the problem of repeated PFC oscillations caused by switch buffer congestion due to sudden large traffic flows in traditional RoCE networks, enabling large data streams to be transmitted at a stable rate close to line speed.

A communication method and apparatus, applied in the field of communication technology, the method includes: upon entering an active state of discontinuous transmission and reception in a cell, determining the state of the active state, the active state including one or more of a first state or a second state, wherein the transmission configuration corresponding to the first state and the second state are different; and performing uplink communication transmission based on the transmission configuration corresponding to the current state. By setting an adaptive switching mechanism for transmission configuration, when in an active state, the adaptive mechanism is automatically activated, and the transmission configuration is automatically switched according to the active state, without the need for additional activation configuration signaling and activation switching signaling, etc., better matching the needs of periodic activation scenarios and effectively coping with data surges at the initial stage of activation.

Embodiments of the present disclosure relate to a communication method, a communication device, and a communication system. The communication method is performed by a Mobile AP MLD and comprises: determining a first radio frame, wherein the first radio frame comprises first identification information, and the first identification information identifies that a first AP operating on a first link and affiliated with the Mobile AP MLD enters a first capability communication mode; sending, by means of a second link, the first radio frame to a non-AP MLD associated with the Mobile AP MLD, wherein the first link is a non-primary link among at least one link established between the Mobile AP MLD and the non-AP MLD, and the second link is a primary link among the at least one link; the first AP entering the first capability communication mode; and a second AP operating on the second link and affiliated with the Mobile AP MLD remaining in an active state. The embodiments of the present disclosure can further enhance the current communication mechanism, thereby reducing device power consumption while ensuring communication efficiency.

The application provides a vehicle control method and device, electronic equipment and vehicle. The method comprises the following steps: deploying a front-view integrated machine in the vehicle to identify the road edge and / or oncoming vehicle; deploying a millimeter wave radar in the vehicle to obtain a first lateral distance and a first estimated collision time between the vehicle and the road edge, and / or a second lateral distance and a second estimated collision time between the vehicle and the oncoming vehicle; obtaining a vehicle risk assessment level according to the first lateral distance and the first estimated collision time, and / or the second lateral distance and the second estimated collision time; obtaining an operation state of an emergency lane keeping system in the vehicle according to the risk assessment level; if the operation state is an active state, sending a warning prompt according to the risk assessment level, or controlling the vehicle to move in a direction opposite to the lateral direction of the road edge and / or the oncoming vehicle through an electronic power steering system. The application reduces the cost and improves the deployability by deploying a light-weight device.

A communication method, a communication device, a communication system, a storage medium, and a program product. The communication method comprises: a terminal sending a first request to a network device, wherein the first request is used for requesting the network device to provide a first service; and entering an active state or remaining in the active state.

A device includes a plurality of digital signal processors (DSPs) and analog crossbars in communication with the DSPs. The DSPs and crossbars dynamically adjust power consumption based on traffic load and / or a signal quality, leveraging traffic prediction models to optimize resource allocation. The system supports features such as powering down unused lanes, asymmetrically deactivating transmission or receiving lanes, and preemptively scaling resources during predicted traffic increases. Dynamic voltage and frequency scaling (DVFS) optimizes power usage based on link utilization and traffic priority, minimizing latency impacts during transitions. The switch controller integrates traffic prioritization algorithms, including weighted round-robin (WRR), to allocate power and bandwidth efficiently to high-priority traffic flows. Redundant crossbars handle overflow traffic or failover scenarios, transitioning between standby and active states dynamically.

Embodiments of the present invention relate to a wafer test system and a method of operating the wafer system. According to embodiments of the present invention, an electrical test is performed on a wafer comprising a plurality of dies, an active state occurring in the wafer is detected when the electrical test is performed, and a failure status can be determined for the plurality of dies included in the wafer based on the electrical test results for the wafer and active state information received from a detection device.

An antenna device includes an antenna array, the antenna array includes a plurality of antenna units, and the plurality of antenna units are configured to switch between an active state and an inactive state, such that the antenna array is in a first mode, a second mode, or a third mode. In the first mode, only one of the plurality of antenna units is in the active state; in the second mode, the antenna units in the active state among the plurality of antenna units are arranged as a line; and in the third mode, the antenna units in the active state among the plurality of antenna units are arranged as a polygon.

The disclosure provides a communication method, communication apparatus and communication system. A network node may transmit assistance information to help an electronic device connect to or communicate with the network device in an active state. The method includes: transmitting first information indicating that a state transition of a network node between different states or power modes; and transmitting second information within a time interval that is based on the first information, where the second information indicates parameters for an electronic device to communicate with the network node, and the time interval is related to a transition time of the state transition of the network node.

Systems, methods, and devices are described for managing cloud services implemented by one or more clusters in a cloud computing environment. Responsive to receiving a first notification indicating that a cloud service implemented by the one or more clusters has not been used for a first predetermined amount of time, the cloud service is maintained in an active state and metadata is updated that specifies the cloud service is in a deactivated state. The metadata is visible to a user interface of a management portal of the cloud computing environment. Responsive to receiving a second notification indicating that the cloud service has not been used for a second predetermined amount of time following the first predetermined amount of time, a deactivation workflow is instantiated to deactivate the cloud service. In a further aspect, a cloud service engine generates the first and second notifications.

The computing device includes a processor and a context switcher. The context switcher includes a data structure module for storing a context, which includes the starting address of a thread and values ​​associated with that thread. In an idle state, the processor loads a first context for a first thread from the corresponding data structure module in synchronization with a first cycle of a clock signal. In an active state, the processor processes the first thread according to the first context. Furthermore, in an active state, the processor provides a second context for a second thread to the context switcher. This second thread follows and will be processed in parallel with the first thread. The second context is stored in a subsequent data structure module within the context switcher's data structure module, which corresponds to a subsequent processor for processing the second thread.

A method for determining a paging cause is performed by a base station in a Radio Access Network (RAN) notification area (RNA) where a terminal in an inactive state is located. The method includes: receiving communication information from a core network that needs to be sent to the terminal; and on the basis of the communication information, determining a paging cause for paging the terminal. The terminal may include more than one subscriber identity module (SIM) cards.