journal article·2021-08-30Open access

An Engineering Design Approach for the Development of an Autonomous Sailboat to Cross the Atlantic Ocean

Tanaka Akiyama, Jean-Francois Bousquet, Kostia Roncin, Graham Muirhead, Alexandra Whidden

Applied Sciences· Volume 11· Issue 17

Abstract

Over the past decade, interest in autonomous vessels significantly increased as the technology improved, especially in the automotive industry. Unlike cars, ships travel in a wild environment and maritime lanes are not limited by white lines. This makes the design of fully autonomous vessels even more challenging. Additionally, the need to reduce greenhouse gas emissions led to a renewed interest in wind propulsion. Sailboats have several advantages, such as full energy autonomy and a limited environmental impact. The Microtransat Challenge, which consists of crossing the Atlantic Ocean, is a tremendous test field. This paper describes, within that frame, a design procedure for the development of a robust fully autonomous sailboat to be deployed for long-term missions. In this paper, the mechanical and electronic design strategies are presented. A focus is on reliability and power management. Moreover, a test procedure for validating each design increment is described as well as a path plan that considers the risk of collision and weather routing with wind and currents. The Microtransat remains a challenge that no autonomous ship has ever succeeded (and has been completed by a single unmanned vessel, SB Met in 2018). However, the results by Breizh Tigresse and Sealeon in 2015 and 2018 made a step forward in terms of time and distance. They are presented and analyzed in this work.
Source: crossref · Quality: baseline

Research context

OpenAlex topics: Maritime Navigation and Safety · Maritime Transport Emissions and Efficiency · Underwater Vehicles and Communication Systems

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

Affiliations

Faculty of Engineering, Dalhousie University, Halifax, NS B3H 4R2, Canada

Centre of Research of École de l’Air UR 09.401, French Air Force Academy, CREA, BA 701, F-13661 Salon de Provence, France

Funding

Ocean Frontier Institute

References (28)

Show source-provided references
1. Communications Architecture of the Liquid Robotics Wave Glider10.3182/20120410-3-PT-4028.00042 ↗
2. Mullison, J., Symonds, D., and Trenaman, N. (2011, January 20–23). ADCP data collected from a Liquid Robotics Wave Glider®. Proceedings of the 2011 IEEE/OES 10th Current, Waves and Turbulence Measurements (CWTM), Monterey, CA, USA.
3. Gliders, floats, and robot sailboats: Autonomous platforms for marine mammal research10.1121/1.4709197 ↗
4. Advances in ecosystem research: Saildrone surveys of oceanography, fish, and marine mammals in the Bering Sea10.5670/oceanog.2017.230 ↗
5. Saildrone: Adaptively sampling the marine environment10.1175/BAMS-D-19-0015.1 ↗
6. Autonomous sailboat navigation for short course racing10.1016/j.robot.2007.10.004 ↗
7. Bars, F.L., and Jaulin, L. (2014). Development of ARRTOO: A Long-Endurance, Hybrid-Powered, Oceanographic Research Vessel. Robotic Sailing 2013, Springer International Publishing.10.1007/978-3-319-02276-5 ↗
8. Ferl, T., and Hills, S. (2019, January 15). A Control System for a Small Autonomous Sailing Vessel Paper. Proceedings of the ASEE Zone I Conference & Workshop, Niagara Falls, NY, USA.
10. Tretow, C. (2017). Design of a Free-Rotating Wing Sail for an Autonomous Sailboat. [Master’s Thesis, KTH].
11. Stelzer, R., and Jafarmadar, K. (2012, January 12–13). The robotic sailing boat asv roboat as a maritime research platform. Proceedings of the 22nd International HISWA Symposium, Amsterdam, The Netherland.
12. Ganoulis, E., Alcantara, A., Niedermaier, J., Winn, R., Jones, N., Tur, A.M., Blake, J., Townsend, N., and Schillai, S. (September, January 31). Peruagus-a Transatlantic Autonomous Surface Vessel for the Microtransat Challenge. Proceedings of the 11th International Robotic Sailing Conference, IRSC 2018, Southampton, UK.
13. Construction and Control of an Autonomous Sail Boat10.1016/j.ifacol.2016.10.489 ↗
14. Santos, D., Silva Junior, A.G., Negreiros, A., Vilas Boas, J., Alvarez, J., Araujo, A., Aroca, R.V., and Gonçalves, L.M.G. (2016). Design and Implementation of a Control System for a Sailboat Robot. Robotics, 5.10.3390/robotics5010005 ↗
15. Silva, A.G.d., Santos, D.H.d., Negreiros, A.P.F.d., Silva, J.M.V.B.d.S., and Gonçalves, L.M.G. (2020). High-Level Path Planning for an Autonomous Sailboat Robot Using Q-Learning. Sensors, 20.10.3390/s20061550 ↗
16. Sun, Q., Qiao, Z., Strömbeck, C., Qu, Y., Liu, H., and Qian, H. (2018, January 4–8). Tacking Control of an Autonomous Sailboat Based on Force Polar Diagram. Proceedings of the 2018 13th World Congress on Intelligent Control and Automation (WCICA), Changsha, China.10.1109/WCICA.2018.8630752 ↗
17. Sun, Q., Qi, W., Liu, H., Sun, Z., Lam, T.L., and Qian, H. (2020, January 25–29). OceanVoy: A Hybrid Energy Planning System for Autonomous Sailboat. Proceedings of the 2020 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS), Las Vegas, NV, USA.10.1109/IROS45743.2020.9341591 ↗
18. Schlaefer, A., and Blaurock, O. (2011). Breizh Spirit, a Reliable Boat for Crossing the Atlantic Ocean. Robotic Sailing, Springer.10.1007/978-3-642-22836-0 ↗
19. (September, January 31). ITTC Quality Systems Group ITTC Symbols and Terminology List. Proceedings of the International Towing Tank Conference, Copenhagen, Denmark.
20. Association, D.W.I. (2021, May 10). Roughness and Wind Shear. Available online: http://xn–drmstrre-64ad.dk/wp-content/wind/miller/windpower%20web/en/tour/wres/shear.htm.
21. Claughton, A. (1999, January 30). Developments in the IMS VPP Formulations. Proceedings of the Fourteenth Chesapeake Sailing Yacht Symposium, Annapolis, MD, USA.10.5957/CSYS-1999-001 ↗
22. (2021, August 08). International Technical Committee, Offshore Racing Congress VPP Documentation Guide. Available online: https://www.orc.org/rules/ORCVPPDocumentation2015.pdf.
23. Schlaefer, A., and Blaurock, O. (2011). Simulating Sailing Robots. Robotic Sailing, Springer.10.1007/978-3-642-22836-0 ↗
24. Dhomé, U., Tretow, C., Kuttenkeuler, J., Wängelin, F., Fraize, J., Fürth, M., and Razola, M. (2018). Development and initial results of an autonomous sailing drone for oceanic research. Marine Design XIII, CRC Press.
25. Lee, M.K., Park, Y.S., Park, S., Lee, E., Park, M., and Kim, N.E. (2021). Application of Collision Warning Algorithm Alarm in Fishing Vessel’s Waterway. Appl. Sci., 11.10.3390/app11104479 ↗
26. Ammann, N., Hartmann, F., Jauer, P., Krüger, J., Meyer, T., Bruder, R., and Schlaefer, A. (2011). Global data storage for collision avoidance in robotic sailboat racing–the world server approach. Robotic Sailing, Springer.10.1007/978-3-642-22836-0_11 ↗
27. Sauzé, C. (2018). ASVTrafficSim: A Simulator for Autonomous Surface Vehicle and Manned Vessel Collisions. Robotic Sailing, Springer.
28. Gibbons-Neff, P., and Miller, P. (2011). Route planning for a micro-transat voyage. Robotic Sailing, Springer.10.1007/978-3-642-22836-0_13 ↗