Watch Dr Richard Bailey provide an overview of the Landscape Dynamics research cluster at the SEED 2015 event.
This research cluster focuses on landscape processes, long-term landscape dynamics, dryland environments and human-landscape interactions. Work incorporates landscape processes, long-term landscape dynamics, dryland environments and human-landscape interaction as researchers address issues that form the natural world. Cross-cutting themes investigate today's key geographical question - how the physical environment shapes the earth and impacts society - through research, fieldwork and lab-based analysis. Special attention is given to: dynamics and processes in arid environments; weathering; geochronology, especially luminescence dating; forensic and heritage applications, and interactions between climate, biotic, geomorphic and human systems.
|Landscape Processes||This programme focuses on a) land/atmosphere interactions in dryland regions with specific emphasis on investigating multi-scale controls on aeolian dynamics and environmental controls on rock breakdown; and b) geomorphology and heritage preservation through analysis of biological and weathering impact on landscapes and historic structures. Investigations are often multi-faceted and inter-disciplinary using a range of techniques including fieldwork, laboratory simulation and computer modelling.|
|Long-term landscape dynamics||In this programme a range of field and laboratory methods are utilised to address critical questions in the long term (102 - 106 years) evolution of arid environments (drylands) where a range of proxy data sources indicate that their extent has fluctuated markedly during the Quaternary period. Climate change impacts in the 21st century are widely predicted to impact on the extent and distribution of arid regions, particularly in the low latitudes. Research comprises a number of specific projects within the themes of: better and more robust utilisation of palaeoenvironmental proxies to model late Quaternary climate dynamics in arid regions; developing enhanced protocols for the application of optical dating to lacustrine and aeolian sediments; establishing the role of climate change in human migration and evolution in Africa; and predicting dryland responses to 21st century global climate change.|
|Dryland environments||Drylands presently cover 40-47% of the Earth's land surface and are home to > 1 billion people. Several cluster research projects address landscape dynamics in arid lands. Work includes sand transport, dune mobilization, rock breakdown, past environmental changes, natural hazards, climate impact and the intersection of human and natural systems. Current fieldwork is in Southern and Western Africa, the Middle East and Iran, China/Mongolia and the southwestern US.|
|Human-landscape interaction||Physical processes can have a great impact on people and society. Research on climate, hazards, drought, dust and soils are examples of how landscape forces may influence livelihoods, communities, economics and ultimately governance. As environmental factors continue to evolve integrating the physical and social worlds is essential to address global issues.|
Cluster research is funded by NERC, EPSRC, ESRC, Royal Society, Leverhulme Trust, NASA, English Heritage, British Academy, Royal Geographical Society, DfID, Medecins sans Frontieres, British Council, Boise Fund and other sources.
The cluster maintains strong international affiliations, with collaborative research including engagement with the Universities of Cape Town, Witswaterand, Arizona, UCLA, Mongolia, Chinese Academy of Sciences and other overseas institutions.
News and Research Highlights
- Makondo, C.C. and Thomas, D.S.G. (2018) Climate change adaptation: Linking indigenous knowledge with western science for effective adaptation. Environmental Science and Policy, 88: 83-91.
- Holmes, P.J. and Boardman, J. (2018) Southern African Landscapes and Environmental Change. Routledge, United Kingdom. pp. 308. ISBN: 9781138688957.
- Maybury, I.J., Howell, D., Terras, M. and Viles, H. (2018) Comparing the effectiveness of hyperspectral imaging and Raman spectroscopy: a case study on Armenian manuscripts. Heritage Science, 6(42).
- Carrella, E., Bailey, R.M. and Madsen, J.K. (2018) Indirect inference through prediction..
- Lim, W.H., Yamazaki, D., Koirala, S., Hirabayashi, Y., Kanae, S., Dadson, S.J., Hall, J.W. and Sun, F. (2018) Long‐term changes in global socioeconomic benefits of flood defenses and residual risk based on CMIP5 climate models. Earth's Future: 1-17.