TY - JOUR T1 - PRM Path Smoothening by Circular Arc Fillet Method for Mobile Robot Navigation TT - Mobil Robot Navigasyonu için Dairesel Kavis Dolgu Yöntemiyle PRM Yol Yumuşatma AU - Kılıçarslan Ouach, Meral AU - Eren, Tolga AU - Özcan, Evrencan PY - 2024 DA - January DO - 10.29137/umagd.1278980 JF - International Journal of Engineering Research and Development JO - IJERAD PB - Kirikkale University WT - DergiPark SN - 1308-5506 SP - 1 EP - 19 VL - 16 IS - 1 LA - en AB - The problem of motion planning and navigation for mobile robots in complex environments has been a central issue in robotics. Navigating these environments requires sophisticated algorithms that handle obstacles and provide smooth, efficient paths. The Probabilistic Roadmap (PRM) method is a widespread technique in robotics for constructing paths for mobile robot navigation. In this study, we propose a novel path-smoothing method using arc fillets for path planning, building on PRM's foundation in the presence of obstacles. Our method operates in two primary stages to improve path efficiency and quality. The first stage generates the shortest path between the initial and goal states in an obstacle-rich environment using PRM, constructing a straight-line, collision-free route. The second stage smooths corners caused by nodes with arc fillets, ensuring smooth turns and minimizing abrupt changes in direction, resulting in more natural and efficient robot motion. We conducted simulations and tests using various PRM features to evaluate the proposed method. The results indicate that the built route offers a smooth turning motion and quicker, more compact movement while evading obstacles. This study contributes to mobile robot navigation by offering a practical approach to improving pathway quality in challenging environments. KW - Probabilistic Roadmap Method (PRM) planner KW - Path smoothening KW - Arc fillet method N2 - The problem of motion planning and navigation for mobile robots in complex environments has been a central issue in robotics. Navigating these environments requires sophisticated algorithms that handle obstacles and provide smooth, efficient paths. The Probabilistic Roadmap (PRM) method is a widespread technique in robotics for constructing paths for mobile robot navigation. In this study, we propose a novel path-smoothing method using arc fillets for path planning, building on PRM's foundation in the presence of obstacles. Our method operates in two primary stages to improve path efficiency and quality. The first stage generates the shortest path between the initial and goal states in an obstacle-rich environment using PRM, constructing a straight-line, collision-free route. The second stage smooths corners caused by nodes with arc fillets, ensuring smooth turns and minimizing abrupt changes in direction, resulting in more natural and efficient robot motion. We conducted simulations and tests using various PRM features to evaluate the proposed method. The results indicate that the built route offers a smooth turning motion and quicker, more compact movement while evading obstacles. This study contributes to mobile robot navigation by offering a practical approach to improving pathway quality in challenging environments. CR - Aria, M. (2020). New sampling based planning algorithm for local path planning for autonomous vehicles. Journal of Engineering Science and Technology, 15, 66–76. CR - Ayawli, B. B. K., Appiah, A. Y., Nti, I. K., Kyeremeh, F., & Ayawli, E. I. (2021). Path planning for mobile robots using Morphological Dilation Voronoi Diagram Roadmap algorithm. 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