Bridging marine ecosystem and biogeochemistry research: Lessons and recommendations from comparative studies
Authored by E E Hofmann, B Salihoglu, S Neuer, S Painting, R Murtugudde, J H Steele, R R Hood, L Legendre, M W Lomas, J D Wiggert, S Ito, Z Lachkar, Jr G L Hunt, K F Drinkwater, C L Sabine
Date Published: 2013
DOI: 10.1016/j.jmarsys.2012.07.005
Sponsors:
European Union
United States National Science Foundation (NSF)
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No platforms listed
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Abstract
There is growing interest in linking marine biogeochemistry with marine
ecosystems research in response to the increasing need to understand and
predict the effect of global change on the marine ecosystem. Such a
holistic approach combines oceanographic and biogeochemical processes
and information on organisms, ranging from microbes to
higher-trophic-levels. Comparative studies offer a means to improve
understanding of critical mechanisms that influence marine systems by
showing differences in ecosystem response to changing ocean conditions.
Comparing similar biomes that differ in a particular set of physical or
biological characteristics can provide insight into the susceptibility
of the key features of a system to perturbation. Also, comparative
studies based on long-term observations at fixed time-series stations
enable the evaluation of long-term changes in the physical and
biological environment, such as those driven by climate patterns.
Moreover, the comparative approach provides a feasible alternative to
costly and complex research programs designed to provide detailed
end-to-end evaluations of marine systems. Planned and unplanned
perturbations allow the investigation of the sensitivity of ecosystems
and their biogeochemical processes to change at different time and space
scales. In well-studied regions where sufficient data are available, models can provide comprehensive syntheses, mechanistic insights and
even predictions. We present examples of successful comparative studies
that incorporate both biogeochemical and ecosystems aspects. A framework
for a basic approach for comparative studies is proposed that considers
the interactions between biogeochemical cycles and ecosystems. This
approach is based on constructing a minimalistic observational framework
grounded within a conceptual model. (C) 2012 Elsevier B.V. All rights
reserved.
Tags
Individual-based model
Cod gadus-morhua
North-atlantic
Phytoplankton-zooplankton model
Indian-ocean
To-end models
Oscillating control
hypothesis
Future climate-change
Eastern
bering-sea
Regime-shifts