Understanding the consequences of Ocean Acidification on the environment and society
Submitting Institution
Plymouth UniversityUnit of Assessment
Earth Systems and Environmental SciencesSummary Impact Type
EnvironmentalResearch Subject Area(s)
Earth Sciences: Geochemistry, Oceanography
Biological Sciences: Ecology
Summary of the impact
The Plymouth University marine carbon team was the first to investigate
ecological consequences of ocean acidification, and carbon capture and
storage leakage. The findings have impacted on US legislation and are key
to the UK ocean acidification research programme. The research is
highlighted in the European Science Foundations' Science Policy
Briefing on Impacts of Ocean Acidification (2009), the United
Nations' Emerging Issues Bulletin on `Environmental consequence of
ocean acidification: a threat to food security' (2010), the US `National
Strategy to Meet the Challenges of a Changing Ocean' (2010) and the
Intergovernmental Panel on Climate Change `Ocean Acidification Report'
(2011).
Underpinning research
This case study highlights the impact of a body of research into marine
carbon undertaken at Plymouth University by Hall-Spencer (Royal Society
University Research Fellow 2002-2008, Professor of Marine Biology Plymouth
University) and Spicer (Professor of Marine Zoology 2005-2013 Plymouth
University). This research is vital to inform society of the consequences
of unprecedented changes to the ecology and chemistry of our coasts.
Without this information, policy makers are unable to assess the true
costs and dangers of continued carbon dioxide emissions. The first
indication that exposure to CO2-rich water could result in
biological effects that were not straight-forward to interpret came from a
NERC-funded studentship (2006, Spicer as principal supervisor). This found
that ocean acidification increased, not decreased, calcification in fish -
but that there were trade-offs as we also found evidence of muscle wastage
Our team built the first aquaria used to study biological effects of CO2,
based on designs Spicer had been using to investigate oxygen and carbon
dioxide effects on marine life since 1987. We have used these world-class
facilities to show how carbon dioxide affects marine organisms, data that
are used to predict future impacts on ecosystems in the UK and worldwide.
The award of a major NERC consortium grant has allowed us to investigate
the long-term effects of ocean acidification on a range of marine life and
to study the evolutionary responses of marine animals to ocean
acidification and temperature.
To augment this laboratory work Hall-Spencer spearheaded the use of
natural analogues for predicting future effects of ocean acidification on
society and to inform policy on Carbon Capture and Storage. He assembled a
team of researchers; Dr Rodolfo-Metalpa is his Plymouth University PDRA,
Ms Rowley and Ransome were both Plymouth University students who with Dr
Martin from CNRS France carried out the fieldwork. Dr Fine from Bar-Ilan
University Israel provided expertise on corals, Dr Turner from UEA
provided expertise on trace gases, Dr Tedesco from University of Naples
provided expertise on volcanology and Dr Buia from Stazione zoological
Naples provided seagrass expertise. By studying marine organisms along
natural gradients of CO2, he was able to show the
ecosystem-level effects of long-term exposure. This resulted in a
land-mark publication in Nature (Hall-Spencer et al. 2008), which
has set the standard for working with natural analogues, generating
considerable public and scientific interest (223 ISI citations). Our
natural analogue approach is being adopted worldwide with our team now
involved with similar studies in the Pacific (US, Canada, Mexico,
Australia, Papua New Guinea) and around Europe (Azores, Greece, Italy).
The biological responses observed along CO2 gradients have
been used to predict how coasts will change over the coming decades and
are being used to inform policy decisions. Our peer-reviewed published
studies show the effects of increasing carbon dioxide levels on marine
bacteria, algae, plankton, sponges, corals, worms, crustaceans, molluscs,
bryozoans and echinoderms as well as fish and the fishing industry. The CO2
gradients around volcanic vents have also been used as an opportunity to
train a new generation of professionals from a multitude of different
countries and to highlight the importance of reducing carbon dioxide
emissions, exploring carbon capture options and increasing protection for
coastal habitats (e.g., http://medsea-project.eu/training/co2-vents-training-activity/).
References to the research
(peer reviewed publications, Plymouth University personnel in bold). This
work is published in the top (
Nature), third (
Nature Climate
Change) and fourth (
Global Change Biology) most-cited journals
in Climate Change Research as well as leading subject-specific journals (
Proceedings
of the Royal Society B, Journal of Experimental Marine Biology and Ecology).
1. Hall-Spencer JM, Rodolfo-Metalpa R, Martin S, Ransome E,
Fine M, Turner SM, Rowley SJ, Tedesco D, M-C Buia (2008) Volcanic
carbon dioxide vents reveal ecosystem effects of ocean acidification.
Nature
454: 96-99. World-leading peer-reviewed journal. Impact Factor 38.6.
90% of this research was carried out by Plymouth University staff and
students.
2. Johnson VR, Russell BD, Fabricius K, Brownlee C, Hall-Spencer
JM (2012) Temperate and tropical brown macroalgae thrive, despite
decalcification, along natural CO2 gradients. Global Change
Biology 18: 2792-2803. Impact Factor 6.9. 80% of this research was
carried out by Plymouth University staff and students.
3. Rodolfo-Metalpa R, Houlbrèque F, Tambutté E, Boisson F, Baggini
C, Patti FP, Jeffree R, Fine M, Foggo A, Gattuso J-P, Hall-Spencer
JM (2011) Coral and mollusc resistance to ocean acidification
adversely affected by warming. Nature Climate Change 1: 308-312.
Impact Factor 14.5. . 80% of this research was carried out by Plymouth
University staff and students.
4. Widdicombe S, Spicer JI (2008) Predicting the impact of ocean
acidification on benthic biodiversity: What can physiology tell us? Journal
of Experimental Marine Biology and Ecology 366: 187-197. Leading
international journal for biochemistry, physiology, behaviour, and
genetics in ecology. Impact Factor 2.3. 50% of this research was carried
out by Plymouth University staff.
5. Widdicombe S, Spicer JI, Kitidis V: `Effects of ocean
acidification on sediment fauna', Chapter 9, and James P. Barry, Stephen
Widdicombe, and Jason M. Hall-Spencer: `Effects of Ocean Acidification on
Marine Biodiversity and Ecosystem Function' , Chapter 10. In, Ocean
Acidification (eds Gattuso, J.P. and L. Hansson). Oxford University
Press (2011).Research level text from leading peer-reviewed press. 40%
carried out by Plymouth University staff.
6. Wood H, Spicer JI, Widdicombe S (2008) Ocean Acidification may
increase calcification rates- but at a cost. Proceedings of the Royal
Society, London, Series B. 275: 1767 - 1773. Royal Society's
flagship biological research journal. Impact Factor 5.7. 90% carried out
by Plymouth University staff and students.
Details of the impact
The main impacts of our research are on marine policy, regulation and
guidelines designed to bring environmental improvements and through
informing governments and industry on carbon capture and storage leaks as
well as threats of ocean acidification to food security.
The research has had international impact. As a result of research into
ocean acidification and carbon capture, Hall-Spencer has contributed to
the drafting of the science basis of the next round of policy documents
for the Intergovernmental Panel on Climate Change (Evidence 1). Through EU
FP7 programmes (EPOCA, KnowSeas, MedSeA) he has provided presentations and
draft policy documents to staff responsible for informing governing bodies
on ocean acidification at the United Nations Environment Programme, EC DG
Research and Innovation, the European Science Foundation and the
International Union for the Conservation of Nature. As highlighted by the
Senior Advisor of the International Union for Conservation of Nature "The
influence of the research carried out by the marine carbon group at
Plymouth University has ensured that ocean acidification, and the
potential of carbon sequestration leaks to cause harm to the marine
environment, are now being considered in depth alongside potential
solutions to the problem such as improved marine conservation and the
role of seagrasses as a Blue Carbon resource."
The research has been used as evidence in drawing up the US FORAM Act in
2008, has been incorporated into the US school curriculum, and has had
impact on knowledge and behaviours of practitioners/policy makers having
been incorporated into national and international strategies (e.g.
National Research Council of the National Academies 2010). As stated by
the United States Department of Commerce "The influence of the research
carried out by the Marine Carbon Research Group at Plymouth University
is international. In the USA there was explicit reference to the
Plymouth University ocean acidification work in the U.S. Senate when
hearing evidence for the federal Acidification Research and Monitoring
Act"
The research on natural analogs for CO2 exposure is being used
as evidence for the need to boost `Blue Carbon' IUCN initiatives and the
shift from fossil fuels to renewable sources of energy (see Evidence 2-3).
The research contributed substantially to the UK setting up a £12 million
Ocean Acidification research Programme (2010-2014). The team a) assist the
UK government (via DEFRA and DECC) in their delivery of statutory
obligations under national legislative drivers (e.g. UK Biodiversity
Action Plan, UK Marine and Coastal Access Bill), provide information to
aid the assessment process for the UK Regional Seas via the UKMMAS
Charting Progress III (in 2015) and the OSPAR Assessment Framework and
support the design and implementation of measures needed to achieve Good
Environmental Status in UK Regional Seas; (b) assist overseas governments
with similar environmental protection remits; (c) allow government-backed
international initiatives such as EPOCA, BIOACID, MedSeA, Mares &
UKOOA to contextualise the work they are doing separately on Ocean
Acidification (see Evidence 4). As stated by the Knowledge Exchange
Coordinator of the UK Ocean Acidification Research programme "The
team's work has made a major contribution to a number of key national
and international research initiatives to inform policy makers of the
future impact of OA on marine ecosystems and society".
More widely the research has had impacts on public discourse and raised
societal interest in the effects of ocean acidification. Work by the
marine carbon research group has been covered extensively by newspapers
and on TV, the National Geographic Magazine, and in several science
documentaries that have been shown globally (see Evidence 4). Thus the
marine carbon research has intrinsic interest, but is also designed to
predict the effects of ocean acidification and marine carbon capture and
storage driven by legislative and regulatory considerations.
Sources to corroborate the impact
- Factual Statement from the Co-Chairs of Working Groups I and II of the
Intergovernmental Panel on Climate Change including invitation to
Hall-Spencer, as a leading international expert, to join the IPCC
Workshop to report on Impacts of Ocean Acidification on Marine Biology
and Ecosystems. (Report at http://www.ipcc-wg2.gov/meetings/workshops/OceanAcidification_WorkshopReport.pdf).
This
letter confirms the impact Plymouth's marine carbon group is having on
international policy.
-
Factual Statement from the Chair of the U.S. Interagency
Working Group on Ocean Acidification and Director of NOAA Fisheries,
United States Department of Commerce. This letter confirms that the
Plymouth University marine carbon team has had impacts on US legislation
and environmental monitoring.
-
Factual Statement from Vice Chair - Marine, IUCN World
Commission on Protected Areas. This letter confirms the impact of the
Plymouth University marine carbon group on international marine
conservation policy.
-
Factual Statement from Knowledge Exchange Coordinator of the
UK Ocean Acidification Research Programme. This sets out the range of
impacts that Plymouth University research has had on marine policy,
education and public climate change debate.
-
Factual Statement from Hilary Benn the Secretary of State
appointing Hall-Spencer onto the UK Government Scientific Advisory Panel
on marine protected areas. This confirms that he has direct input to
marine policy initiatives in Government based on research conducted at
Plymouth University.
- International Union for Conservation of Nature (IUCN) video on ocean
acidification and consequences for the multimillion dollar shellfish
industry in the USA. Features Jason Hall Spencer (Plymouth University):
http://www.youtube.com/watch?v=cAwZ7VCYn44
- Science and Innovation Policy Officer at Canadian Foreign Commonwealth
Office interview with Hall-Spencer:http://blogs.fco.gov.uk/nicolearbour/2012/02/21/sin-podcast-jason-hall-spencer-on-ocean-acidification/
- Request from Executive Secretary at the United Nations that
Hall-Spencer assist in providing advice on the impacts of ocean
acidification on coastal biodiversity. This confirms that Plymouth
University research findings are being used to inform intergovernmental
organisations of the threats posed by ocean acidification.
- Policy Document on ocean acidification, citing work by Hall-Spencer:
http://www.oceanacidification.org.uk/pdf/OA.english.web.pdf
- Committee on the Development of an Integrated Science Strategy for
Ocean Acidification Monitoring, Research, and Impacts Assessment,
National Academy of Sciences, USA, Ocean
Acidification:< A National Strategy to Meet the
Challenges of a Changing Ocean (2010) Cites Plymouth
University research prominently. http://www.nap.edu/catalog.php?record_id=12904