Method and device for quickly configuring distributed splicing processor by using smart phone

Abstract

The invention relates to a method and a device for quickly configuring a distributed splicing processor by using a smart phone. The system comprises a smart phone, a distributed splicing processor, anoutput node, an input node, a control host, a switch and a display screen, wherein the switch is respectively in data connection with the input node, the output node and the control host through network cables, the input node is in data connection with the signal source through a professional cable, and the output node is in data connection with the display screen through a professional data line.

Description

technical field [0001] The invention belongs to the field of display technology, and in particular relates to a method and a device for quickly configuring a distributed splicing processor by using a smart phone. Background technique [0002] With the continuous maturity and application of network technology and codec technology, as well as its own flexibility and scalability, distributed splicing processors are more and more used in the large-screen splicing industry. However, due to the complexity of the network, the distributed splicing processor often has higher requirements for customers in practical applications, especially in terms of configuration, which is more complicated; in the existing configuration mode, each output in the distributed splicing processor After the node is powered on, it will report to the configuration software by sending a network broadcast command, so that the configuration software can enumerate all online output nodes; when the user selects ...

AI Technical Summary

Problems solved by technology

However, due to the complexity of the network, the distributed splicing processor often has higher requirements for customers in practical applications, especially in terms of configuration, which is more complicated; in the existing configuration mode, each output in the distributed splicing processor After the node is powered on, it will report to the configuration software by sending a network broadcast command, so that the configuration software can enumerate all online output nodes; when the user selects a node machine, its corresponding output will change, prompting The position of the display screen corresponding to the user's node machine; then the user fills in the network configuration information such as the IP address of the node machine, the network management address, and the splicing configuration information such as the number of rows and columns of the display screen, and the row and column position of the node machine, and sends it to The target output node; in this way, the complete setting of an output node machine is completed, and the subsequent distributed processor management control software can complete the communication with the node machine and control it; obviously, this method is very cumbersome when applied

Since the output node machines enumerated by the configuration software are not in order, when users select and configure node machines, they must fill in relevant information according to the actual splicing screen, which is very error-prone, especially when there are many rows and columns on the display screen.

At the same time, for the convenience of future fault finding, it is often necessary to configure the IP address of the node machine and its corresponding splicing screen row and column position in ascending or descending order, so it is necessary to repeatedly select and confirm the target node machine and then configure it. It further increases the probability of making mistakes, and at the same time increases the workload of configuration; in order to overcome the defects of existing configuration methods, the present invention designs a configuration method based on smart phones, which utilizes the high-definition camera and image recognition algorithms of smart phones to Realize the rapid configuration of distributed splicing processors; comparative patents are CN104375789A; CN104702982B; CN206728157U; CN203984556U; CN103795989B; Expect

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