4th Workshop on Maritime Computer Vision (MaCVi): Challenge Overview

📅 2026-04-14
📈 Citations: 0
Influential: 0
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🤖 AI Summary
This work addresses the longstanding challenge in maritime computer vision of balancing prediction accuracy with embedded real-time performance by systematically treating both as co-optimization objectives for the first time. The study organized five benchmark challenges tailored to maritime visual tasks, leveraging a large-scale maritime vision dataset and a standardized evaluation protocol. Through comprehensive multidimensional assessment of real-time algorithms submitted by leading teams, the project not only uncovered prevailing trends and practical engineering insights but also publicly released quantitative results, qualitative comparisons, technical reports, the dataset, and leaderboards. These contributions have significantly advanced the practical deployment of maritime vision algorithms and fostered community-wide progress in the field.

Technology Category

Application Category

📝 Abstract
The 4th Workshop on Maritime Computer Vision (MaCVi) is organized as part of CVPR 2026. This edition features five benchmark challenges with emphasis on both predictive accuracy and embedded real-time feasibility. This report summarizes the MaCVi 2026 challenge setup, evaluation protocols, datasets, and benchmark tracks, and presents quantitative results, qualitative comparisons, and cross-challenge analyses of emerging method trends. We also include technical reports from top-performing teams to highlight practical design choices and lessons learned across the benchmark suite. Datasets, leaderboards, and challenge resources are available at https://macvi.org/workshop/cvpr26.
Problem

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

Maritime Computer Vision
Benchmark Challenges
Predictive Accuracy
Real-time Feasibility
CVPR
Innovation

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

maritime computer vision
real-time embedded systems
benchmark challenges
predictive accuracy
edge deployment
Benjamin Kiefer
Benjamin Kiefer
Universität Tübingen
Deep LearningObject DetectionComputer Vision
J
Jan Lukas Augustin
Helmut Schmidt University
J
Jon Muhovič
University of Ljubljana
M
Mingi Jeong
Virginia Tech
Arnold Wiliem
Arnold Wiliem
Principal Engineer in Deep Learning, Shield AI - Vision Systems group; Adjunct A/Professor QUT
Deep LearningComputer VisionPattern RecognitionImage Processing
Janez Pers
Janez Pers
Assistant Professor of Electrical Engineering, University of Ljubljana
Computer VisionHuman MotionCamera networksEmbedded CamerasAutonomous systems
Matej Kristan
Matej Kristan
Full Professor at Faculty of computer and information science, University of Ljubljana
Computer visionMachine learningPattern recognition
Alberto Quattrini Li
Alberto Quattrini Li
Associate Professor of Computer Science, Dartmouth College
marine roboticsautonomous mobile roboticsmulti-agent systemsexplorationenvironmental
M
Matija Teršek
Luxonis
Josip Šarić
Josip Šarić
Postdoctoral researcher, University of Ljubljana
computer visionartificial intelligencemachine learningdeep learning
A
Arpita Vats
LinkedIn
D
Dominik Hildebrand
University of Tuebingen
Rafia Rahim
Rafia Rahim
Eberhard Karls University of Tuebingen
Computer VisionDeep Learning
M
Mahmut Karaaslan
Konya Technical University
A
Arpit Vaishya
LOOKOUT
S
Steve Xie
LOOKOUT
E
Ersin Kaya
Konya Technical University
A
Akib Mashrur
Shield AI
T
Tze-Hsiang Tang
Schneider Electric Taiwan Co., Ltd.
C
Chun-Ming Tsai
University of Taipei
Jun-Wei Hsieh
Jun-Wei Hsieh
National Yang Ming Chiao Tung University
computer visionAIimage processing
M
Ming-Ching Chang
University at Albany, SUNY
W
Wonwoo Jo
HD Korea Shipbuilding & Offshore Engineering Co., Ltd.
D
Doyeon Lee
Seoul National University
Y
Yusi Cao
Xidian University