Abstract: (60 Views)
A mobile robot must be autonomous to avoid obstacles while traveling towards the target. The problem of dynamic obstacle avoidance is still a significant challenge. Reactive mobile robot navigations handled this problem, but using a single-stage module leads to a deficiency and a limitation in performance. This paper proposes combining an adaptive neuro-fuzzy inference system and a neural network. The data for obstacle severity classification were used to train the Bayesian regularization Back-Propagation Neural Network. The relative velocity and distance between the mobile robot and obstacles determine the zone. Zone 1 is dangerous, and Zone 5 is safe. This paper uses an Adaptive Neuro-Fuzzy Inference System (ANFIS) to avoid obstacles during the mobile robot's motion and to avoid collision. Based on our empirical study, we consider three essential features in this paper: the relative speed, distance, and angle between the robot and the obstacle as inputs to the obstacle avoidance system ANFIS. The output was a suggested steering angle and speed for the mobile robot. The simulation results for the tested cases show the capability of the proposed controller to avoid static and dynamic obstacles in a fully known environment. Our results show that the Adaptive Neuro-Fuzzy Inference System enhances the proposed controller's performance, reducing path length, processing time, and the number of iterations compared.
Type of Study:
Research Paper |
Subject:
Deep Learning Received: 2025/03/24 | Revised: 2025/12/07 | Accepted: 2025/10/22