Adrian Werner

Prof. Adrian Werner


Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

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

Representative Publications

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1 January 2013 in Advances in Water Resources
Verified
Journal Article
Closed access
AWAdrian Werner
Adrian Werner
MBMark Bakker
Mark Bakker
VPVincent E.A. Post
Vincent E.A. Post
AVAlexander Vandenbohede
Alexander Vandenbohede
CLChunhui Lu
Chunhui Lu
DBD.A. Barry
D.A. Barry

23 February 2009 in Groundwater
Verified
Journal Article
Closed access
PDF file
AWAdrian Werner
Adrian Werner
Craig SimmonsCraig Simmons
Craig Simmons

14 October 2016 in PLOS ONE
Verified
Journal Article
Open access
PDF file
JWJames Ward
James Ward
Paul SuttonPaul Sutton
Paul Sutton
AWAdrian Werner
Adrian Werner
Robert CostanzaRobert Costanza
Robert Costanza
SMSteve H. Mohr
Steve H. Mohr
Craig SimmonsCraig Simmons
Craig Simmons
The argument that human society can decouple economic growth—defined as growth in Gross Domestic Product (GDP)—from growth in environmental impacts is appealing. If such decoupling is possible, it means that GDP growth is a sustainable societal goal. Here we show that the decoupling concept can be interpreted using an easily understood model of economic growth and environmental impact. The simple model is compared to historical data and modelled projections to demonstrate that growth in GDP ultimately cannot be decoupled from growth in material and energy use. It is therefore misleading to develop growth-oriented policy around the expectation that decoupling is possible. We also note that GDP is increasingly seen as a poor proxy for societal wellbeing. GDP growth is therefore a questionable societal goal. Society can sustainably improve wellbeing, including the wellbeing of its natural assets, but only by discarding GDP growth as the goal in favor of more comprehensive measures of societal wellbeing.

1 September 2014 in Journal of Hydrology
Verified
Journal Article
Open access
QZQi Zhang
Qi Zhang
XYXuchun Ye
Xuchun Ye
AWAdrian Werner
Adrian Werner
YLYun-Liang Li
Yun-Liang Li
JYJing Yao
Jing Yao
Chong-Yu XuChong-Yu Xu
Chong-Yu Xu
SummaryChanges in lake hydrological regimes and the associated impacts on water supplies and ecosystems are internationally recognized issues. During the past decade, the persistent dryness of Poyang Lake (the largest freshwater lake in China) has caused water supply and irrigation crises for the 12.4 million inhabitants of the region. There is conjecture as to whether this dryness is caused by climate variability and/or human activities. This study examines long-term datasets of catchment inflow and Lake outflow, and employs a physically-based hydrodynamic model to explore catchment and Yangtze River controls on the Lake’s hydrology. Lake water levels fell to their lowest during 2001–2010 relative to previous decades. The average Lake size and volume reduced by 154km2 and 11×108m3 during the same period, compared to those for the preceding period (1970–2000). Model simulations demonstrated that the drainage effect of the Yangtze River was the primary causal factor. Modeling also revealed that, compared to climate variability impacts on the Lake catchment, modifications to Yangtze River flows from the Three Gorges Dam have had a much greater impact on the seasonal (September–October) dryness of the Lake. Yangtze River effects are attenuated in the Lake with distance from the River, but nonetheless propagate some 100km to the Lake’s upstream limit. Proposals to build additional dams in the upper Yangtze River and its tributaries are expected to impose significant challenges for the management of Poyang Lake. Hydraulic engineering to modify the flow regime between the Lake and the Yangtze River would somewhat resolve the seasonal dryness of the Lake, but will likely introduce other issues in terms of water quality and aquatic ecosystem health, requiring considerable further research

28 April 2017 in Water Resources Research
Verified
Journal Article
Open access
PDF file
HMHolly A. Michael
Holly A. Michael
VPVincent E. A. Post
Vincent E. A. Post
AWAlicia M. Wilson
Alicia M. Wilson
AWAdrian Werner
Adrian Werner
Coastal zones encompass the complex interface between land and sea. Understanding how water and solutes move within and across this interface is essential for managing resources for society. The increasingly dense human occupation of coastal zones disrupts natural groundwater flow patterns and degrades freshwater resources by both overuse and pollution. This pressure results in a “coastal groundwater squeeze,” where the thin veneers of potable freshwater are threatened by contaminant sources at the land surface and saline groundwater at depth. Scientific advances in the field of coastal hydrogeology have enabled responsible management of water resources and protection of important ecosystems. To address the problems of the future, we must continue to make scientific advances, and groundwater hydrology needs to be firmly embedded in integrated coastal zone management. This will require interdisciplinary scientific collaboration, open communication between scientists and the public, and strong partnerships with policymakers.

1 October 2020 in Journal of Hydrology
Verified
Journal Article
Closed access
JLJianrong Lu
Jianrong Lu
QZQi Zhang
Qi Zhang
AWAdrian Werner
Adrian Werner
Yunliang LiYunliang Li
Yunliang Li
SJSanyuan Jiang
Sanyuan Jiang
Zhiqiang TanZhiqiang Tan
Zhiqiang Tan