UWB-positioning-based broadcast type multi-mobile-robot dynamic virtual interaction method
A mobile robot and virtual interaction technology, which is applied in the field of dynamic virtual interaction of multi-mobile robots based on UWB positioning broadcasting, can solve problems such as large data communication volume, high requirements for communication equipment, difficult system coordination and optimization, etc., and achieve high-efficiency solution and transmission, increase operating efficiency, and reduce burden
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[0036] figure 1 It is a flow chart of the dynamic virtual interaction method for multi-mobile robots based on UWB positioning and broadcasting in the present invention.
[0037] In this example, if figure 1 Shown, the present invention a kind of dynamic virtual interaction method based on UWB positioning broadcast type multi-mobile robot, comprises the following steps:
[0038] S1. Establish UWB positioning coordinate system
[0039] The UWB module collects the distance information between the base stations and the distance information between the airborne tags of each mobile robot and each base station, and sends them to the host computer through the main base station to establish a UWB positioning coordinate system;
[0040] In this embodiment, the schematic diagram of the UWB positioning coordinate system is as follows figure 2 As shown, the specific construction method is determined by the user's own situation; the base station establishes the origin, abscissa axis, an...
example
[0071] For ease of understanding, the relatively simple case of two mobile robots will be discussed separately here. Let the ID of the two mobile robots be A 1 、A 2 , and give them the initial coordinate information as A 1 (-25,0), A 2 (60,60), σ 1 , σ 2 80 and 100 respectively; give A 1 With the initial velocity of 0.05 in the positive direction of the abscissa axis, give A 2 The initial velocity in the negative direction of the abscissa axis is 0.05.
[0072] The user gives a control function:
[0073]
[0074] in, and A respectively 1 、A 2 Velocity component on the Y axis; weight is A 1 、A 2 The weight value generated between, A 1x 、A 1y for A 1 The abscissa and ordinate values of A 2x 、A 2y for A 2 The horizontal and vertical coordinate values of . The control function F can be customized by the user according to the actual application.
[0075] Figure 4 is A 1 、A 2 Schematic diagram of weight changes during exercise;
[0076] Figure ...
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