Skip to content
Conference

Sample-Efficient Autonomous Surface Vehicle Navigation with Enhanced Experience Replay

Jul 2026 · Signal Processing and Communications Applications Conference · pp. 1-4 · 0 citations · 10 references

Abstract

This paper proposes a sample-efficient reinforcement learning framework for navigation of Autonomous Surface Vehicles (ASVs) in complex, obstacle-dense environments. Learning reliable navigation policies in such settings is challenging due to unsafe early exploration and high sample complexity. To address these issues, we integrate Distributional Reinforcement Learning with Deep Q-learning from Demonstrations (DQfD) and Count-Based Experience Replay (CbER), enabling effective learning from both expert priors and prioritized recent experiences. Furthermore, we critically evaluate the integration of Hindsight Experience Replay (HER) in navigational setups that already employ dense shaping rewards. Extensive simulations demonstrate that while HER offers limited marginal utility in the presence of strong shaping signals, the combined framework accelerates convergence by up to 6.3× compared to baselines.

View source

Similar papers

Open access Aug 2026

Lightweight reinforcement learning for leader following in autonomous vehicle convoys

This work presents an innovative strategy for autonomous convoy navigation that rethinks traditional approaches and designates a single lead vehicle to perform the heavy lifting of global path planning and obstacle mapping and refers to this leader-follower framework as the Pied Piper Policy (PPP), reflecting its divid...

Sivayazi Kappagantula, T. Murugan, Neil Antony Dsouza et al. · 0 citations
Conference Open access Sep 2026

Perturbation-Resilient Autonomous Navigation with Distributionally Robust Reinforcement Learning

DRIQN is proposed to integrate Distributionally Robust Optimization (DRO) with implicit quantile networks to optimize worst-case performance under natural environmental conditions and incorporates heterogeneous noise sources and target robustness-critical scenarios.

Zhao-Fan Zhang, Ming-Hao Yang, Si-Hong Xie et al. · 0 citations
Sep 2026

Offline Reinforcement Learning Using Distributional Representation for Autonomous Uncrewed Surface Vehicles Navigation

Uncrewed surface vehicles (USVs) have the potential to create ocean Internet of Things (IoT) in a dynamic maritime traffic environment. The autonomous navigation of USVs in complex unknown environments poses a core bottleneck for deploying such marine communication systems. In recent years, the deep reinforcement learn...

Xiao-Feng Li, Jia-Hui Jiang, Wen-Zhang Liu et al. · 0 citations
Aug 2026

Deep reinforcement learning–based safe path planning for leader–follower robots

This work proposes a modified Multi-Agent Twin-Delayed Deep Deterministic Policy Gradient (M-MATD3) algorithm, specifically designed to mitigate common issues such as overestimation bias and high variance observed in standard MATD3.

Ehsan Kazemi Tameh, Mohammadreza Estarki, Saeed Khodaygan · 0 citations
Open access Aug 2026

Deep Reinforcement Learning for Communication-Free Distributed Control of Autonomous Vehicles in Unstructured Intersection.

A novel deep reinforcement learning framework that enables safe and efficient navigation in such communication-free, signal-free, and lane-free intersection environments while meeting stringent safety requirements for practical deployment is proposed.

Ruihao Zeng, M. Ramezani · 0 citations
Conference Aug 2026

Teacher-Guided Asymmetric Reinforcement Learning for End-to-End Visual Navigation of UAVs

Autonomous navigation of low-altitude unmanned aerial vehicles (UAVs) in cluttered environments is challenging due to partial observability, limited onboard perception, and inefficient exploration in end-to-end reinforcement learning. This paper proposes a teacher-guided asymmetric reinforcement learning framework for...

Yi-Min Wei, Qiu-Quan Guo, Cai-Zheng Wang et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.