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  • 1
    Publication Date: 2017-04-11
    Description: The domain of the surface ocean and lower atmosphere is a complex, highly dynamic component of the Earth system. Better understanding of the physics and biogeochemistry of the air–sea interface and the processes that control the exchange of mass and energy across that boundary define the scope of the Surface Ocean-Lower Atmosphere Study (SOLAS) project. The scientific questions driving SOLAS research, as laid out in the SOLAS Science Plan and Implementation Strategy for the period 2004–2014, are highly challenging, inherently multidisciplinary and broad. During that decade, SOLAS has significantly advanced our knowledge. Discoveries related to the physics of exchange, global trace gas budgets and atmospheric chemistry, the CLAW hypothesis (named after its authors, Charlson, Lovelock, Andreae and Warren), and the influence of nutrients and ocean productivity on important biogeochemical cycles, have substantially changed our views of how the Earth system works and revealed knowledge gaps in our understanding. As such SOLAS has been instrumental in contributing to the International Geosphere–Biosphere Programme (IGBP) mission of identification and assessment of risks posed to society and ecosystems by major changes in the Earth’s biological, chemical and physical cycles and processes during the Anthropocene epoch. SOLAS is a bottom-up organization, whose scientific priorities evolve in response to scientific developments and community needs, which has led to the launch of a new 10-year phase. SOLAS (2015–2025) will focus on five core science themes that will provide a scientific basis for understanding and projecting future environmental change and for developing tools to inform societal decision-making.
    Type: Article , PeerReviewed
    Format: text
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  • 2
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    Elsevier
    In:  Current Opinion in Environmental Sustainability, 4 (3). pp. 323-330.
    Publication Date: 2019-07-30
    Description: As scientists call for more research on global environmental change (GEC), it remains an inconvenient truth that if the world had acted upon the knowledge that the scientific community produced, the state of many ecosystems would be different today. This raises questions about the approaches and tools used in assessment and management of GEC processes, including marine environments. By highlighting some challenges, we argue that progress is being blocked by fundamental barriers in the science-policy-practice interface. While global and international efforts can provide overarching structure for marine research, we believe that they are currently insufficient at tackling relevant issues at the science-society nexus. It is no longer the production of more detailed knowledge, but the context for using knowledge and turning it into sustainable actions that is one of the greatest challenges. Consequently, more attention should be paid to synthesising existing local knowledge and resources from non-scientific entities, since these are the avenues through which people experience the changes in marine environments. We emphasise better understanding of the science-society nexus and the conditions for translating research-based knowledge into action. Identification of institutions and organisational structures and the determination of institutional, economic and behavioural changes (e.g. how to anticipate, avoid and/or manage disruptive GEC) can enable effective steps towards sustainable marine environments. Co-designing knowledge is a feasible way to bridge gaps between marine scientists, policy makers and practitioners. Openness and attention to diversity may inspire more democratic ways to organise the science-society nexus.
    Type: Article , PeerReviewed
    Format: text
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  • 3
    Publication Date: 2022-01-31
    Description: Dimethyl sulfide (DMS), a marine-derived trace gas, can influence atmospheric compositions and has an impact on the global climate. To date, obtaining continuous and coupled shipboard underway measurements of DMS in seawater and air has been challenging. To address this issue, we report a custom-made sampling device based on the purge-and-trap technique. This sampler, in combination with a time-of-flight mass spectrometer (TOF-MS), was successfully utilized to perform coupled shipboard underway measurements of DMS in surface seawater and air around western Antarctica during the 34th Chinese Antarctic Research Expedition from February 2018 to April 2018. The seawater and air streams were continuously introduced into the sampler unit and subsampled every 10 min. The limits of detection (LODs) of DMS in seawater and air were found to be 0.07 nM and 32 pptv, respectively. The variability in the DMS levels in the surface seawater and air can be distinguished and evaluated based on the variations in the DMS peaks. These results demonstrated that the sampling device was effective for consistent, sensitive underway measurements of DMS.
    Type: Article , PeerReviewed
    Format: text
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