A Simulation of an Oyster Farm to Aid in Developing Autonomy for Aquaculture

Open-ocean aquaculture farms are generally located in rough and risky environments, leading farmers to consider automation to keep workers safe and to boost production. The Sea Grant Program at the Massachusetts Institute of Technology has been working with Ward Aquafarms, a New England oyster farm, to develop the Oystermaran, a 2-meter long robot catamaran that flips oyster baskets. These baskets, which float in large linear arrays, must be flipped every week to clear away biofouling on the baskets' undersides that blocks nutrients from reaching the growing oysters inside. In order for an automated tool like the Oystermaran to prove cost-efficient, it must be autonomous. This paper presents the design of a realistic mission simulation based on the Virtual RobotX Gazebo simulator in which the Oystermaran and oyster basket array have been modeled. Physical parameters for both models were determined through a combination of measurements and theoretical estimation to validate the simulation. This simulation is the first step towards efficient autonomy development for the Oystermaran and furthermore provides capabilities to adjust to the layouts of oyster basket arrays at other farms.

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Published
2025-06-16
DOI
https://doi.org/10.1109/oceans58557.2025.11104409
Primary Topic
Agricultural Systems and Practices
Type
article
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article

A Simulation of an Oyster Farm to Aid in Developing Autonomy for Aquaculture

Andrew Bennett, David Barrett, Erin Menezes, Michael S. Triantafyllou
Agricultural Systems and Practices
article

A Simulation of an Oyster Farm to Aid in Developing Autonomy for Aquaculture

Andrew Bennett, David Barrett, Erin Menezes, Michael S. Triantafyllou
article en

Abstract

Open-ocean aquaculture farms are generally located in rough and risky environments, leading farmers to consider automation to keep workers safe and to boost production. The Sea Grant Program at the Massachusetts Institute of Technology has been working with Ward Aquafarms, a New England oyster farm, to develop the Oystermaran, a 2-meter long robot catamaran that flips oyster baskets. These baskets, which float in large linear arrays, must be flipped every week to clear away biofouling on the baskets' undersides that blocks nutrients from reaching the growing oysters inside. In order for an automated tool like the Oystermaran to prove cost-efficient, it must be autonomous. This paper presents the design of a realistic mission simulation based on the Virtual RobotX Gazebo simulator in which the Oystermaran and oyster basket array have been modeled. Physical parameters for both models were determined through a combination of measurements and theoretical estimation to validate the simulation. This simulation is the first step towards efficient autonomy development for the Oystermaran and furthermore provides capabilities to adjust to the layouts of oyster basket arrays at other farms.

MIT Sea Grant (US)
Openalex Percentile: Top 83%
Agricultural Systems and Practices
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A Simulation of an Oyster Farm to Aid in Developing Autonomy for Aquaculture — Andrew Bennett, David Barrett, et al. · (2025) | TGRS Research Map | TGRS