TY - JOUR
T1 - Uncrewed surface vehicles in the Global Ocean Observing System
T2 - a new frontier for observing and monitoring at the air-sea interface
AU - Patterson, Ruth G.
AU - Cronin, Meghan F.
AU - Swart, Sebastiaan
AU - Beja, Joana
AU - Edholm, Johan M.
AU - McKenna, Jason
AU - Palter, Jaime B.
AU - Parker, Alex
AU - Addey, Charles I.
AU - Boone, Wieter
AU - Bhuyan, Paban
AU - Buck, Justin J.H.
AU - Burger, Eugene F.
AU - Burris, James
AU - Camus, Lionel
AU - de Young, Brad
AU - du Plessis, Marcel
AU - Flanigan, Mike
AU - Foltz, Gregory R.
AU - Gille, Sarah T.
AU - Grare, Laurent
AU - Hansen, Jeff E.
AU - Hole, Lars Robert
AU - Honda, Makio C.
AU - Hormann, Verena
AU - Kohlman, Catherine
AU - Kosaka, Naoko
AU - Kuhn, Carey
AU - Lenain, Luc
AU - Looney, Lev
AU - Marouchos, Andreas
AU - McGeorge, Elizabeth K.
AU - McMahon, Clive R.
AU - Mitarai, Satoshi
AU - Mordy, Calvin
AU - Nagano, Akira
AU - Nicholson, Sarah Anne
AU - Nickford, Sarah
AU - O’Brien, Kevin M.
AU - Peddie, David
AU - Ponsoni, Leandro
AU - Ramasco, Virginie
AU - Rozenauers, Nick
AU - Siddle, Elizabeth
AU - Stienbarger, Cheyenne
AU - Sutton, Adrienne J.
AU - Tada, Noriko
AU - Thomson, Jim
AU - Ueki, Iwao
AU - Yu, Lisan
AU - Zhang, Chidong
AU - Zhang, Dongxiao
N1 - Publisher Copyright:
Copyright © 2025 Patterson, Cronin, Swart, Beja, Edholm, McKenna, Palter, Parker, Addey, Boone, Bhuyan, Buck, Burger, Burris, Camus, de Young, du Plessis, Flanigan, Foltz, Gille, Grare, Hansen, Hole, Honda, Hormann, Kohlman, Kosaka, Kuhn, Lenain, Looney, Marouchos, McGeorge, McMahon, Mitarai, Mordy, Nagano, Nicholson, Nickford, O’Brien, Peddie, Ponsoni, Ramasco, Rozenauers, Siddle, Stienbarger, Sutton, Tada, Thomson, Ueki, Yu, Zhang and Zhang.
PY - 2025/3/7
Y1 - 2025/3/7
N2 - Observing air-sea interactions on a global scale is essential for improving Earth system forecasts. Yet these exchanges are challenging to quantify for a range of reasons, including extreme conditions, vast and remote under-sampled locations, requirements for a multitude of co-located variables, and the high variability of fluxes in space and time. Uncrewed Surface Vehicles (USVs) present a novel solution for measuring these crucial air-sea interactions at a global scale. Powered by renewable energy (e.g., wind and waves for propulsion, solar power for electronics), USVs have provided navigable and persistent observing capabilities over the past decade and a half. In our review of 200 USV datasets and 96 studies, we found USVs have observed a total of 33 variables spanning physical, biogeochemical, biological and ecological processes at the air-sea transition zone. We present a map showing the global proliferation of USV adoption for scientific ocean observing. This review, carried out under the auspices of the ‘Observing Air-Sea Interactions Strategy’ (OASIS), makes the case for a permanent USV network to complement the mature and emerging networks within the Global Ocean Observing System (GOOS). The Observations Coordination Group (OCG) overseeing GOOS has identified ten attributes of an in-situ global network. Here, we discuss and evaluate the maturation of the USV network towards meeting these attributes. Our article forms the basis of a roadmap to formalise and guide the global USV community towards a novel and integrated ocean observing frontier.
AB - Observing air-sea interactions on a global scale is essential for improving Earth system forecasts. Yet these exchanges are challenging to quantify for a range of reasons, including extreme conditions, vast and remote under-sampled locations, requirements for a multitude of co-located variables, and the high variability of fluxes in space and time. Uncrewed Surface Vehicles (USVs) present a novel solution for measuring these crucial air-sea interactions at a global scale. Powered by renewable energy (e.g., wind and waves for propulsion, solar power for electronics), USVs have provided navigable and persistent observing capabilities over the past decade and a half. In our review of 200 USV datasets and 96 studies, we found USVs have observed a total of 33 variables spanning physical, biogeochemical, biological and ecological processes at the air-sea transition zone. We present a map showing the global proliferation of USV adoption for scientific ocean observing. This review, carried out under the auspices of the ‘Observing Air-Sea Interactions Strategy’ (OASIS), makes the case for a permanent USV network to complement the mature and emerging networks within the Global Ocean Observing System (GOOS). The Observations Coordination Group (OCG) overseeing GOOS has identified ten attributes of an in-situ global network. Here, we discuss and evaluate the maturation of the USV network towards meeting these attributes. Our article forms the basis of a roadmap to formalise and guide the global USV community towards a novel and integrated ocean observing frontier.
KW - Air-sea interactions
KW - Autonomous Surface Vessel (ASV)
KW - Essential Climate Variables (ECV)
KW - Essential Ocean Variables (EOV)
KW - Global Ocean Observing System (GOOS)
KW - In situ ocean observing system
KW - Uncrewed Surface Vehicle (USV)
KW - weather observation
UR - http://www.scopus.com/inward/record.url?scp=105000635267&partnerID=8YFLogxK
U2 - 10.3389/fmars.2025.1523585
DO - 10.3389/fmars.2025.1523585
M3 - Review article
AN - SCOPUS:105000635267
SN - 2296-7745
VL - 12
JO - Frontiers in Marine Science
JF - Frontiers in Marine Science
M1 - 1523585
ER -