Abstract

With the continuous development of UAV technology, UAV has been widely used in various industries. In the flight process of UAV, UAV often changes the given path because of obstacles (including static nonliving body and moving living body). According to the properties of obstacles and the characteristics of UAV, standard Kalman filter is used for nonmaneuvering targets, and sigma point Kalman filter is used for maneuvering targets. In the aspect of obstacle avoidance, the minimum search method is used to get the initial population of local programming. Then, the improved genetic algorithm is run. Combined with the predicted obstacle features, the local planning path can be obtained. Finally, the local planning path and global planning path are combined to generate the planning path with new obstacles. At the end of the paper, the obstacle avoidance strategies of static and moving obstacles are simulated. The simulation results show that this method has fast convergence speed and good feasibility and can flexibly deal with the obstacle avoidance and local path planning of various new obstacles.

Highlights

  • In recent years, with the continuous development of UAV and computer technology, UAV technology is widely used in power, agriculture, film, and other industries

  • The planning path with new obstacles is generated by combining the local planning path and the global planning path. e simulation results show that this method has fast convergence speed and good feasibility and can flexibly deal with obstacle avoidance and local path planning of various new obstacles

  • When UAV flies on the planned path, new obstacles appear on the planned path

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Summary

Introduction

With the continuous development of UAV and computer technology, UAV technology is widely used in power, agriculture, film, and other industries. Many research studies on UAV obstacle avoidance are to obtain the two-dimensional position information of UAV height through UAV airborne radar and construct an artificial potential field model to guide UAV to quickly track targets and avoid air obstacles. Similar to this obstacle avoidance method, it is more suitable for obstacle avoidance of stationary objects and does not predict dynamic objects [1, 2]. The main starting point of these research results is to avoid obstacles, which is not fully based on the attributes of obstacles and the characteristics of UAV, so as to organically combine safety obstacle avoidance and path planning. Obstacle avoidance is based on the results of target recognition

Prediction of Nonmaneuvering Target and Maneuvering Target
Prediction of Uniform Linear Motion with Standard
Local Planning Path Simulation
Conclusions
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