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Multiobjective Environmental Cleanup with Autonomous Surface Vehicle Fleets Using Multitask Multiagent Deep Reinforcement Learning
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Autonomous surface vehicles were programmed for multi-objective environmental cleanup operations targeting floating debris and microplastics in water bodies. The study demonstrates how robotics and AI can be applied to scale up active microplastic removal from surface waters.
Plastic pollution in water bodies threatens and disrupts aquatic life, requiring effective cleanup solutions. This paper proposes a strategy for plastic cleanup using a fleet of autonomous surface vehicles in a multitask scenario, with a focus on both exploration and cleaning tasks. The mission is decoupled into two phases: an exploration phase for locating trash and a cleaning phase for collection. A Multitask Deep Q‐Network with two heads estimates Q ‐values for each task, and all ASVs share the same policy through an egocentric state formulation to enhance scalability. A multiobjective learning approach is applied, resulting in distinct policies that balance the duration of the exploration and cleaning phases, leading to the construction of a Pareto front, which provides a visual representation of trade‐offs between task priorities. The framework adapts to various environmental conditions, demonstrated in both the larger Malaga Port and the smaller Alamillo Lake. The study also highlights the importance of a dedicated exploration phase for larger areas, while minimal exploration is sufficient for smaller spaces. Compared to the decomposition weighting sum strategy, the approach consistently produces superior Pareto‐optimal policies, ensuring broader and more effective exploration of the objective space.
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Intelligence Aqua Bot: An Autonomous Solution for Real-Time Marine Plastic Debris Including Microplastics Detection and Cleanup Using Deep Learning
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Researchers developed the Intelligence Aqua Bot, an autonomous AI-driven underwater system capable of real-time identification and cleanup of marine plastic debris including microplastics, using deep learning to address the growing threat of plastic pollution to marine biodiversity and human health.
A Novel Multi-Robot Task Allocation Model in Marine Plastics Cleaning Based on Replicator Dynamics
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This paper proposes an algorithm for coordinating multiple autonomous underwater vehicles (AUVs) to clean up marine plastic pollution more efficiently. Better robotic systems for ocean plastic collection could help address the vast amounts of plastic debris accumulating in marine environments.
Smart Ocean Cleanup: An AI-Integrated Autonomous System for Marine Waste Management
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This paper presents an AI-powered autonomous boat system designed to detect and collect marine pollution — including plastics, oil spills, and microplastics — using deep learning image classification, IoT sensors, and robotic collection mechanisms. The system demonstrated over 94% accuracy for pollutant detection and classification across several AI models. While focused more broadly on ocean cleanup technology than on microplastic science specifically, it demonstrates how AI-integrated robotics could help address the practical challenge of removing plastic waste from ocean surfaces before it breaks down further.
The SeaClear system: An intelligent multi-robot solution for autonomous cleanup of marine debris on the seabed
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The SeaClear multi-robot system successfully demonstrated autonomous detection and collection of underwater marine debris using YOLO-based computer vision, validating AI-driven robotics as a scalable alternative to manual ocean cleanup. Automated debris collection technology is directly relevant to the microplastic problem because it could accelerate removal of macroplastic items before they fragment into the microplastic particles that are far harder to retrieve from the marine environment.
Developing Strategy for Coastal Marine Debris Disposal Network Using Deep Reinforcement Learning
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Researchers used deep reinforcement learning to optimize the logistics network for collecting and disposing of coastal marine debris, with a focus on making the process economically viable without government subsidies. The model suggests that connecting debris collection to energy generation systems such as Styrofoam oil liquefaction can improve financial sustainability.
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When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.