TY - JOUR
T1 - Controls over ocean mesopelagic interior carbon storage (COMICS)
T2 - Fieldwork, synthesis, and modeling efforts
AU - Sanders, Richard J.
AU - Henson, Stephanie A.
AU - Martin, Adrian P.
AU - Anderson, Tom R.
AU - Bernardello, Raffaele
AU - Enderlein, Peter
AU - Fielding, Sophie
AU - Giering, Sarah L. C.
AU - Hartmann, Manuela
AU - Iversen, Morten
AU - Khatiwala, Samar
AU - Lam, Phyllis
AU - Lampitt, Richard
AU - Mayor, Daniel J.
AU - Moore, Mark C.
AU - Murphy, Eugene
AU - Painter, Stuart C.
AU - Poulton, Alex J.
AU - Saw, Kevin
AU - Stowasser, Gabriele
AU - Tarling, Geraint A.
AU - Torres-Valdes, Sinhue
AU - Trimmer, Mark
AU - Wolff, George A.
AU - Yool, Andrew
AU - Zubkov, Mike
PY - 2016/8/5
Y1 - 2016/8/5
N2 - The ocean's biological carbon pump plays a central role in regulating atmospheric CO2 levels. In particular, the depth at which sinking organic carbon is broken down and respired in the mesopelagic zone is critical, with deeper remineralization resulting in greater carbon storage. Until recently, however, a balanced budget of the supply and consumption of organic carbon in the mesopelagic had not been constructed in any region of the ocean, and the processes controlling organic carbon turnover are still poorly understood. Large-scale data syntheses suggest that a wide range of factors can influence remineralization depth including upper-ocean ecological interactions, and interior dissolved oxygen concentration and temperature. However, these analyses do not provide a mechanistic understanding of remineralization, which increases the challenge of appropriately modeling the mesopelagic carbon dynamics. In light of this, the UK Natural Environment Research Council has funded a programme with this mechanistic understanding as its aim, drawing targeted fieldwork right through to implementation of a new parameterization for mesopelagic remineralization within an IPCC class global biogeochemical model. The Controls over Ocean Mesopelagic Interior Carbon Storage (COMICS) programme will deliver new insights into the processes of carbon cycling in the mesopelagic zone and how these influence ocean carbon storage. Here we outline the programme's rationale, its goals, planned fieldwork, and modeling activities, with the aim of stimulating international collaboration.
AB - The ocean's biological carbon pump plays a central role in regulating atmospheric CO2 levels. In particular, the depth at which sinking organic carbon is broken down and respired in the mesopelagic zone is critical, with deeper remineralization resulting in greater carbon storage. Until recently, however, a balanced budget of the supply and consumption of organic carbon in the mesopelagic had not been constructed in any region of the ocean, and the processes controlling organic carbon turnover are still poorly understood. Large-scale data syntheses suggest that a wide range of factors can influence remineralization depth including upper-ocean ecological interactions, and interior dissolved oxygen concentration and temperature. However, these analyses do not provide a mechanistic understanding of remineralization, which increases the challenge of appropriately modeling the mesopelagic carbon dynamics. In light of this, the UK Natural Environment Research Council has funded a programme with this mechanistic understanding as its aim, drawing targeted fieldwork right through to implementation of a new parameterization for mesopelagic remineralization within an IPCC class global biogeochemical model. The Controls over Ocean Mesopelagic Interior Carbon Storage (COMICS) programme will deliver new insights into the processes of carbon cycling in the mesopelagic zone and how these influence ocean carbon storage. Here we outline the programme's rationale, its goals, planned fieldwork, and modeling activities, with the aim of stimulating international collaboration.
KW - Biogeochemical model
KW - Biological carbon pump
KW - Field campaign
KW - Ocean carbon cycle
KW - Science plan
UR - http://www.scopus.com/inward/record.url?scp=85008684391&partnerID=8YFLogxK
U2 - 10.3389/fmars.2016.00136
DO - 10.3389/fmars.2016.00136
M3 - Article
AN - SCOPUS:85008684391
SN - 2296-7745
VL - 3
JO - Frontiers in Marine Science
JF - Frontiers in Marine Science
M1 - 136
ER -