AMP2026: A Multi-Platform Marine Robotics Dataset for Tracking and Mapping

📅 2026-03-04
📈 Citations: 0
Influential: 0
📄 PDF
🤖 AI Summary
Autonomous perception in marine environments faces significant challenges due to dynamic water surfaces, low visibility, and the complex coupling of cross-medium multimodal sensing. To address these issues, this work introduces and publicly releases the AMP2026 dataset, which for the first time synchronously integrates multi-perspective perception data from three distinct platforms: aerial drones, surface vessels, and underwater robots. The dataset fuses visual, localization, and telemetry information with precise cross-medium multimodal alignment. AMP2026 establishes a standardized benchmark for research in multi-view object tracking, marine environment mapping, and multi-robot collaborative observation, thereby supporting the advancement of intelligent marine systems.

Technology Category

Application Category

📝 Abstract
Marine environments present significant challenges for perception and autonomy due to dynamic surfaces, limited visibility, and complex interactions between aerial, surface, and submerged sensing modalities. This paper introduces the Aerial Marine Perception Dataset (AMP2026), a multi-platform marine robotics dataset collected across multiple field deployments designed to support research in two primary areas: multi-view tracking and marine environment mapping. The dataset includes synchronized data from aerial drones, boat-mounted cameras, and submerged robotic platforms, along with associated localization and telemetry information. The goal of this work is to provide a publicly available dataset enabling research in marine perception and multi-robot observation scenarios. This paper describes the data collection methodology, sensor configurations, dataset organization, and intended research tasks supported by the dataset.
Problem

Research questions and friction points this paper is trying to address.

marine perception
multi-platform robotics
multi-view tracking
marine mapping
autonomous systems
Innovation

Methods, ideas, or system contributions that make the work stand out.

multi-platform marine robotics
synchronized multi-modal sensing
aerial-marine-submerged perception
marine environment mapping
multi-view tracking
E
Edwin Meriaux
McGill University, Montreal, Canada; MILA - Quebec AI Institute; Université Paris-Saclay, CentraleSupélec
Shuo Wen
Shuo Wen
epfl
D
David Widhalm
University of Minnesota
Z
Zhizun Wang
McGill University, Montreal, Canada; MILA - Quebec AI Institute
J
Junming Shi
McGill University, Montreal, Canada; MILA - Quebec AI Institute
M
Mariana Sosa Guzmán
McGill University, Montreal, Canada; MILA - Quebec AI Institute
K
Kalvik Jakkala
Texas A&M University
B
Bennett Carley
Texas A&M University
E
Elias Sokolova
Texas A&M University
Yogesh Girdhar
Yogesh Girdhar
Woods Hole Oceanographic Institution
Autonomous ExplorationMarine RoboticsUnsupervised LearningHierarchical Bayesian Nonparametrics
Monika Roznere
Monika Roznere
Binghamton University
robotics
Jason O'Kane
Jason O'Kane
Professor of Computer Science, Texas A&M University
Robotics
Junaed Sattar
Junaed Sattar
University of Minnesota
RoboticsUnderwater RoboticsUnderwater Human-Robot InteractionComputer VisionEmbedded Systems
Gregory Dudek
Gregory Dudek
Professor of Computer Science, Center for Intelligent Machines, McGill University
roboticscomputer visionartificial intelligencerecommender systemshape