Sally Brown

Dr. Sally Brown

Engineering and the Environment and Tyndall Centre for Climate Change Research, University of Southampton, UK
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Research Focus & Metrics

Academic Career Length

28Years (1999-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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12 September 2018 in Nature
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Journal Article
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MSMark Schuerch
Mark Schuerch
TSTom Spencer
Tom Spencer
STStijn Temmerman
Stijn Temmerman
MKMatthew L. Kirwan
Matthew L. Kirwan
CWClaudia Wolff
Claudia Wolff
SBSally Brown
Sally Brown

20 September 2019 in Science
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Journal Article
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OHO. Hoegh-Guldberg
O. Hoegh-Guldberg
DJD. Jacob
D. Jacob
MTM. Taylor
M. Taylor
TBTania Guillén Bolaños
Tania Guillén Bolaños
MBMarco Bindi
Marco Bindi
GZGuangsheng Zhou
Guangsheng Zhou
The need to stabilize global climate: Climate change will be the greatest threat to humanity and global ecosystems in the coming years, and there is a pressing need to understand and communicate the impacts of warming, across the perspectives of the natural and social sciences. Hoegh-Guldberg et al. review the climate change–impact literature, expanding on the recent report of the Intergovernmental Panel on Climate Change. They provide evidence of the impacts of warming at 1°, 1.5°, and 2°C—and higher—for the physical system, ecosystems, agriculture, and human livelihoods. The benefits of limiting climate change to no more than 1.5°C above preindustrial levels would outweigh the costs. Science , this issue p. eaaw6974

8 March 2021 in Nature Climate Change
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RNRobert Nicholls
Robert Nicholls
DLDaniel Lincke
Daniel Lincke
JHJochen Hinkel
Jochen Hinkel
SBSally Brown
Sally Brown
AVAthanasios Vafeidis
Athanasios Vafeidis
JFJiayi Fang
Jiayi Fang

13 January 2011 in Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences
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RNRobert Nicholls
Robert Nicholls
NMNatasha Marinova
Natasha Marinova
JLJason A. Lowe
Jason A. Lowe
SBSally Brown
Sally Brown
PVPier Vellinga
Pier Vellinga
RTRichard Tol
Richard Tol
The range of future climate-induced sea-level rise remains highly uncertain with continued concern that large increases in the twenty-first century cannot be ruled out. The biggest source of uncertainty is the response of the large ice sheets of Greenland and west Antarctica. Based on our analysis, a pragmatic estimate of sea-level rise by 2100, for a temperature rise of 4°C or more over the same time frame, is between 0.5 m and 2 m—the probability of rises at the high end is judged to be very low, but of unquantifiable probability. However, if realized, an indicative analysis shows that the impact potential is severe, with the real risk of the forced displacement of up to 187 million people over the century (up to 2.4% of global population). This is potentially avoidable by widespread upgrade of protection, albeit rather costly with up to 0.02 per cent of global domestic product needed, and much higher in certain nations. The likelihood of protection being successfully implemented varies between regions, and is lowest in small islands, Africa and parts of Asia, and hence these regions are the most likely to see coastal abandonment. To respond to these challenges, a multi-track approach is required, which would also be appropriate if a temperature rise of less than 4°C was expected. Firstly, we should monitor sea level to detect any significant accelerations in the rate of rise in a timely manner. Secondly, we need to improve our understanding of the climate-induced processes that could contribute to rapid sea-level rise, especially the role of the two major ice sheets, to produce better models that quantify the likely future rise more precisely. Finally, responses need to be carefully considered via a combination of climate mitigation to reduce the rise and adaptation for the residual rise in sea level. In particular, long-term strategic adaptation plans for the full range of possible sea-level rise (and other change) need to be widely developed.

1 September 2014 in Global Environmental Change
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JDJohn Dearing
John Dearing
RWRong Wang
Rong Wang
KZKe Zhang
Ke Zhang
JDJames G. Dyke
James G. Dyke
HHHelmut Haberl
Helmut Haberl
GPGuy M. Poppy
Guy M. Poppy
Humanity faces a major global challenge in achieving wellbeing for all, while simultaneously ensuring that the biophysical processes and ecosystem services that underpin wellbeing are exploited within scientifically informed boundaries of sustainability. We propose a framework for defining the safe and just operating space for humanity that integrates social wellbeing into the original planetary boundaries concept (Rockström et al., 2009a,b) for application at regional scales. We argue that such a framework can: (1) increase the policy impact of the boundaries concept as most governance takes place at the regional rather than planetary scale; (2) contribute to the understanding and dissemination of complexity thinking throughout governance and policy-making; (3) act as a powerful metaphor and communication tool for regional equity and sustainability. We demonstrate the approach in two rural Chinese localities where we define the safe and just operating space that lies between an environmental ceiling and a social foundation from analysis of time series drawn from monitored and palaeoecological data, and from social survey statistics respectively. Agricultural intensification has led to poverty reduction, though not eradicated it, but at the expense of environmental degradation. Currently, the environmental ceiling is exceeded for degraded water quality at both localities even though the least well-met social standards are for available piped water and sanitation. The conjunction of these social needs and environmental constraints around the issue of water access and quality illustrates the broader value of the safe and just operating space approach for sustainable development
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16 October 2018 in Nature Communications
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LRLena Reimann
Lena Reimann
AVAthanasios Vafeidis
Athanasios Vafeidis
SBSally Brown
Sally Brown
JHJochen Hinkel
Jochen Hinkel
RTRichard Tol
Richard Tol
UNESCO World Heritage sites (WHS) located in coastal areas are increasingly at risk from coastal hazards due to sea-level rise. In this study, we assess Mediterranean cultural WHS at risk from coastal flooding and erosion under four sea-level rise scenarios until 2100. Based on the analysis of spatially explicit WHS data, we develop an index-based approach that allows for ranking WHS at risk from both coastal hazards. Here we show that of 49 cultural WHS located in low-lying coastal areas of the Mediterranean, 37 are at risk from a 100-year flood and 42 from coastal erosion, already today. Until 2100, flood risk may increase by 50% and erosion risk by 13% across the region, with considerably higher increases at individual WHS. Our results provide a first-order assessment of where adaptation is most urgently needed and can support policymakers in steering local-scale research to devise suitable adaptation strategies for each WHS.