32results about How to "Avoid data delay" patented technology

A display apparatus comprises a plurality of pixel areas, each defined by gate lines and data lines, wherein the data lines are arranged with the gate lines forming an angular relationship with the data lines, and a plurality of pixel electrodes formed in the pixel areas and configured to be essentially parallel with the arrangement of the gate lines.

A BS 11 recognizes states of a first session and a second session and instructs an MS 12 to change a state of the first session via the second session when the BS 11 receives data for the first session from a network while the first session is in the sleep state and the second session is in the active state. When the MS 12 changes the first session to be in the active state before a lapse of predetermined time interval when receiving the instruction from the BS 11, the BS 11 transmits the data for the first session to the MS 12 via the first session changed to be in the active state.

The invention discloses a flight support node intelligent recognition system. The system is composed of a streaming media processing platform, a YOLOv3 + AddNN algorithm platform, a message queue, a node intelligent recognition system, a database and a WEB system display platform. Firstly, a to-be-identified video is collected into a storage server; then, the video stream is transmitted to a streaming media platform; video playing, slicing and picture cutting are carried out through real-time transcoding; transmitting the video stream to a YOLOv < 3 + > AddNN algorithm platform; and the algorithm platform uses an improved deep neural network recognition framework to identify the annotation data set and put a result into a message queue, then the node intelligent recognition system completes node pushing and database storage by subscribing the queue, and finally the WEB system display platform accesses the nodes in the database to perform front-end page display. According to the invention, collection and recognition of data of each guarantee node in airport process management and control can be accurately completed, the labor cost is reduced, missing report and delay of data are avoided, and reliable reference is provided for efficient management of airports.

A method for sampling and converting vehicular network data is executed by a vehicle host. The vehicle host selects one of multiple data signals from an original signal, and establishes a data table. The vehicle host further determines whether the original signal includes any data signal remaining unselected. When the original signal does not include any data signal remaining unselected, the vehicle host differentially samples data in the data table corresponding to other time sequences by using the data in the data table corresponding to a first time sequence as a reference to generate a differential data table, and compresses the differential data table. The method can reduce the amount of data by performing differential sampling, so that the compression ratio of the data can be effectively improved, and the delay of data transmission can be avoided.

The invention provides a parallel data-to-serial data transmission method comprising the steps of extracting preset parameter information of each parallel channel, the parameter information being used for separating different parallel channels and data transmission time of the different parallel channels; making data packets for transmission out of collection data of each parallel channel and the preset parameter information corresponding to each parallel channel; performing serial transmission on the data packets of the parallel channels according to an arrival order. Through packaging transmission of data and parameter information, the method prevents data delay and data disorder, and improves the data transmission efficiency and transmission accuracy while guaranteeing the consistency of clocks and data.

A WiFi-based portable unmanned aerial vehicle test system mainly comprises a test system body, an unmanned aerial vehicle and ground terminal equipment, and specifically comprises a communication module, a WiFi core module, a data storage module, a state display module, a clock module and a power supply module. Compared with a traditional unmanned aerial vehicle long-distance data transmission link, the test system mainly comprising the WiFi core module is installed on an unmanned aerial vehicle to realize close-range telemetry data and remote control instruction wireless transmission, power consumption and cost are reduced, the test system is suitable for durability tests, and the problems that a traditional test system is high in cost and too complex in preparation are solved.

A display device includes a plurality of pixels, a data line transmitting a data voltage to the pixels, and a floating bar crossing the data line and being divided into a plurality of pieces. By dividing the floating bar into a plurality of pieces, a delay of a data signal can be prevented so that excellent images can be displayed. Furthermore, by disposing a diode between the pieces of the floating bar, an effect of dispersing static electricity can be maximized.

The embodiment of the invention provides a communication method and device of a multi-sensor system. The method comprises the steps that a data receiving end broadcasts a first instruction to multiple groups of sensors, the first instruction is used for notifying the multiple groups of sensors to report equipment states to the data receiving end, the multiple groups of sensors send second instructions to the data receiving end, and the second instructions are used for the data receiving end to report the equipment states; after the data receiving end confirms that the second instructions sent by all the sensors are received, third instructions are sent to the multiple sets of sensors, the third instructions are used for notifying the multiple sets of sensors to send sensor data, and after the multiple sets of sensors receive the third instructions, the sensor data are sent to the data receiving end in sequence; and after the data receiving end receives the sensor data sent by all the sensors, the sensor data are integrated to generate the sensor synchronous data packet, so that the problem of data processing delay of the receiving end caused by accumulation of data sent by multiple ends in a wireless communication environment is avoided, and the real-time performance of the whole system is greatly improved.

The invention relates to the technical field of Internet of Things communication, and discloses a high-efficiency feedback confirmation method suitable for LoRa transmission, and the method comprises the following steps: S1, a step of data packet transmitting, namely a step of enabling a transmitting end to transmit a data packet; S2, a receiving step, namely a step that, after receiving one data packet, a receiving end does not need to immediately feed back ACK but waits for the indication of the transmitting end; and S3, a step of feedback transmission, namely a step that the transmitting end comprehensively considers local cache data and business data characteristics to determine whether to continue to send data, if a plurality of data packets need to be transmitted, the transmission is continued, and if ACK feedback needs to be received, the receiving end is indicated to send feedback in the following data packets, and a receiving window is opened at the same time. When a plurality of data packets are transmitted, the transmitting end does not need to frequently switch the receiving and transmitting mode, and only needs to switch the receiving and transmitting mode once, so that the switching time and the software control complexity are greatly reduced, the transmission of the plurality of data packets can be completed by only needing one BlckACK frame, and the empty interface time is saved.