Tom is an expert in modelling environmental systems, specialising in how river systems shape the surface of the earth. He has written over 75 papers in leading journals including Geology and Water Resources Research. In 2007 he chaired an independent review into the Hull floods and was lead author on the reviews influential report. His research interests are diverse, spanning from modelling the impacts of environmental change, metal contamination in river systems and the impacts of vegetation on fluvial geomorphology. Tom is also a founding editor of the EGU journal Earth Surface Dynamics.

Tom is an expert in modelling environmental systems, specialising in how river systems shape the surface of the earth. He has written over 75 papers in leading journals including Geology and Water Resources Research. In 2007 he chaired an independent review into the Hull floods and was lead author on the reviews influential report. His research interests are diverse, spanning from modelling the impacts of environmental change, metal contamination in river systems and the impacts of vegetation on fluvial geomorphology. Tom is also a founding editor of the EGU journal Earth Surface Dynamics.

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+49-331-28828810

Research area is experimental geophysics, with a focus on geomorphology. We work at the intersection of soft-matter/statistical physics and Earth science, to understand fluid-particle flows and the landscape patterns they create.

Research area is experimental geophysics, with a focus on geomorphology. We work at the intersection of soft-matter/statistical physics and Earth science, to understand fluid-particle flows and the landscape patterns they create.

+1-215-746-2823

The Earth surface is the interface between exogenic and endogenic forces; it is the template and product of water and material fluxes; and habitat of life. The overarching goal of my research is to improve our understanding about how processes shape the Earth surface, and how they affect and interact with human activity. In particular, I am interested in environmental changes and high magnitude-low frequency events and their role in landscape evolution on a variety of spatial and temporal scales, in the past and today. My interdisciplinary and collaborative research approach combines geomorphological and sedimentological field work, geodesy and geomorphometry, as well as statistical and physics-based modelling. Besides its scientific goals, my research aims to inform land use planning about potentially adverse effects of Earth surface processes, and the sustainable use of water and soil resources.

The Earth surface is the interface between exogenic and endogenic forces; it is the template and product of water and material fluxes; and habitat of life. The overarching goal of my research is to improve our understanding about how processes shape the Earth surface, and how they affect and interact with human activity. In particular, I am interested in environmental changes and high magnitude-low frequency events and their role in landscape evolution on a variety of spatial and temporal scales, in the past and today. My interdisciplinary and collaborative research approach combines geomorphological and sedimentological field work, geodesy and geomorphometry, as well as statistical and physics-based modelling. Besides its scientific goals, my research aims to inform land use planning about potentially adverse effects of Earth surface processes, and the sustainable use of water and soil resources.

+49331977203175

+44-(0)20-78482421

I am a Leverhulme Early Career Research Fellow in the Department of Geography at The University of Sheffield, UK. I am a planetary scientist and glacial geomorphologist researching the history of glaciation on Mars and Earth. I obtained a BA in Geography from the University of Cambridge in 2015 before moving to The Open University to undertake a PhD entitled 'Wet-Based Glaciation on Mars', which I completed in 2019. I then moved to the University of Sheffield as a Postdoctoral Research Assistant on the ERC-funded PALGLAC project (PI: Prof Chris Clark), using glacial landforms to reconstruct the flow dynamics of the former Scandinavian Ice Sheet on Earth. I began my current Leverhulme Early Career Research Fellowship at Sheffield in 2022. I use data from satellites orbiting Mars to analyse the landscapes generated by past and present glaciers on the Red Planet. In doing so, I aim to better understand the history of environmental change on Mars, with a particular focus on the history of glacial meltwater production.

I am a Leverhulme Early Career Research Fellow in the Department of Geography at The University of Sheffield, UK. I am a planetary scientist and glacial geomorphologist researching the history of glaciation on Mars and Earth. I obtained a BA in Geography from the University of Cambridge in 2015 before moving to The Open University to undertake a PhD entitled 'Wet-Based Glaciation on Mars', which I completed in 2019. I then moved to the University of Sheffield as a Postdoctoral Research Assistant on the ERC-funded PALGLAC project (PI: Prof Chris Clark), using glacial landforms to reconstruct the flow dynamics of the former Scandinavian Ice Sheet on Earth. I began my current Leverhulme Early Career Research Fellowship at Sheffield in 2022. I use data from satellites orbiting Mars to analyse the landscapes generated by past and present glaciers on the Red Planet. In doing so, I aim to better understand the history of environmental change on Mars, with a particular focus on the history of glacial meltwater production.

Tom is an expert in modelling environmental systems, specialising in how river systems shape the surface of the earth. He has written over 75 papers in leading journals including Geology and Water Resources Research. In 2007 he chaired an independent review into the Hull floods and was lead author on the reviews influential report. His research interests are diverse, spanning from modelling the impacts of environmental change, metal contamination in river systems and the impacts of vegetation on fluvial geomorphology. Tom is also a founding editor of the EGU journal Earth Surface Dynamics.

Tom is an expert in modelling environmental systems, specialising in how river systems shape the surface of the earth. He has written over 75 papers in leading journals including Geology and Water Resources Research. In 2007 he chaired an independent review into the Hull floods and was lead author on the reviews influential report. His research interests are diverse, spanning from modelling the impacts of environmental change, metal contamination in river systems and the impacts of vegetation on fluvial geomorphology. Tom is also a founding editor of the EGU journal Earth Surface Dynamics.

Prof. Fan obtained her Ph.D. in Geological Hazard and Risk Assessment from the Faculty of Geo-Information Science and Earth Observations (ITC), University of Twente in the Netherlands (2013). After her PhD she was employed for one year by the United Nations Institute for Training and Research (UNITAR) in Geneva as a disaster risk reduction training expert. In 2015, she started to work at the State Key Laboratory of Geohazard Prevention and Geoenvironment Protection, Chengdu University of Technology, China. She was promoted to a Full Professor position in 2016. Prof. Fan’s research focuses on the earthquake induced chains of geological hazards, coupling effect of tectonic and climatic forces on geohazards (especially in the Tibetan Plateau), long-term landscape evaluation and paleo-landslides. After the 2008 Wenchuan earthquake, she has carried out in-depth research to understand the causes and effects of earthquake-induced landslides and landslide dams. She is the co-PI of a UK-China collaboration project, REACH, through this project, her team obtained interesting results in revealing the spatio-temporal evolution of geohazards after the 2008 Wenchuan earthquake and the controlling factors. She also developed early warning system for post-earthquake debris flows, which been applied by the local government and has successfully predicted more than 10 debris flows, saving lives of 1300 people.

Prof. Fan obtained her Ph.D. in Geological Hazard and Risk Assessment from the Faculty of Geo-Information Science and Earth Observations (ITC), University of Twente in the Netherlands (2013). After her PhD she was employed for one year by the United Nations Institute for Training and Research (UNITAR) in Geneva as a disaster risk reduction training expert. In 2015, she started to work at the State Key Laboratory of Geohazard Prevention and Geoenvironment Protection, Chengdu University of Technology, China. She was promoted to a Full Professor position in 2016. Prof. Fan’s research focuses on the earthquake induced chains of geological hazards, coupling effect of tectonic and climatic forces on geohazards (especially in the Tibetan Plateau), long-term landscape evaluation and paleo-landslides. After the 2008 Wenchuan earthquake, she has carried out in-depth research to understand the causes and effects of earthquake-induced landslides and landslide dams. She is the co-PI of a UK-China collaboration project, REACH, through this project, her team obtained interesting results in revealing the spatio-temporal evolution of geohazards after the 2008 Wenchuan earthquake and the controlling factors. She also developed early warning system for post-earthquake debris flows, which been applied by the local government and has successfully predicted more than 10 debris flows, saving lives of 1300 people.

I seek to understand how biogeochemical processes influence the composition of the atmosphere (CO2 and O2 concentrations) over a range of timescales from decades to millions of years, thereby regulating Earth’s climate and affecting the evolution of life. My group is conducting research on: • Fluvial transfer of organic carbon from continental reservoirs to the ocean. • Carbon cycling in the Critical Zone. • Impact of climate change on the dynamics of terrestrial organic carbon cycling. • Deep biosphere, role of microbial communities in sedimentary systems. • Relationships between erosion, tectonics and climate over geologic timescales. • Radiocarbon dating (compound specific, ramped pyrolysis/oxidation), new dating techniques. • Developing paleo-climate proxies, e.g. compound specific stable isotope measurements.

I seek to understand how biogeochemical processes influence the composition of the atmosphere (CO2 and O2 concentrations) over a range of timescales from decades to millions of years, thereby regulating Earth’s climate and affecting the evolution of life. My group is conducting research on: • Fluvial transfer of organic carbon from continental reservoirs to the ocean. • Carbon cycling in the Critical Zone. • Impact of climate change on the dynamics of terrestrial organic carbon cycling. • Deep biosphere, role of microbial communities in sedimentary systems. • Relationships between erosion, tectonics and climate over geologic timescales. • Radiocarbon dating (compound specific, ramped pyrolysis/oxidation), new dating techniques. • Developing paleo-climate proxies, e.g. compound specific stable isotope measurements.

+1 508 289 2340

Richard Gloaguen (Ph.D “Communitatis Europae” 2000) did a Post-Doc at Royal Holloway University of London ( 2000-2003). He led the Remote Sensing Group at TU Bergakademie Freiberg (2003-2013). He now leads the division “Exploration Technology” at the Helmholtz-Institute Freiberg for Resource Technology. Interests: UAV-based hyperspectral imaging, laser-induced fluorescence, remote sensing-based tectonic geomorphology and multisource multiscale remote sensing integration.

Richard Gloaguen (Ph.D “Communitatis Europae” 2000) did a Post-Doc at Royal Holloway University of London ( 2000-2003). He led the Remote Sensing Group at TU Bergakademie Freiberg (2003-2013). He now leads the division “Exploration Technology” at the Helmholtz-Institute Freiberg for Resource Technology. Interests: UAV-based hyperspectral imaging, laser-induced fluorescence, remote sensing-based tectonic geomorphology and multisource multiscale remote sensing integration.

+493512604424

Associate Professor Greg Hancock has worked in the area of soil erosion and sediment transport with a focus on post-mining landscape assessment and mining rehabilitation for over 25 years. Greg has particular expertise in the use of computer-based landscape evolution models for both current and proposed landscape assessment, in particular, SIBERIA and CAESAR models. He has worked across a wide range of projects, sites and climates both in Australia and internationally for government agencies, mining companies and consultancy firms. A further interest of Greg’s is in agricultural soils and the spatial and temporal distribution of soil organic carbon. This interest complements soils reconstruction for post-mining landforms.

Associate Professor Greg Hancock has worked in the area of soil erosion and sediment transport with a focus on post-mining landscape assessment and mining rehabilitation for over 25 years. Greg has particular expertise in the use of computer-based landscape evolution models for both current and proposed landscape assessment, in particular, SIBERIA and CAESAR models. He has worked across a wide range of projects, sites and climates both in Australia and internationally for government agencies, mining companies and consultancy firms. A further interest of Greg’s is in agricultural soils and the spatial and temporal distribution of soil organic carbon. This interest complements soils reconstruction for post-mining landforms.

Particle-fluid flows in the environment, including debris flows, rock slides, rock falls, sediment transport in rivers, and wind-blown sand.

Particle-fluid flows in the environment, including debris flows, rock slides, rock falls, sediment transport in rivers, and wind-blown sand.

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+49-331-28828810

Research area is experimental geophysics, with a focus on geomorphology. We work at the intersection of soft-matter/statistical physics and Earth science, to understand fluid-particle flows and the landscape patterns they create.

Research area is experimental geophysics, with a focus on geomorphology. We work at the intersection of soft-matter/statistical physics and Earth science, to understand fluid-particle flows and the landscape patterns they create.

+1-215-746-2823

Simon Mudd is Professor of Earth Surface Processes at the University of Edinburgh and has interests in geomorphology, numerical modelling of landscapes, salt marshes, topographic analysis and natural hazards.

Simon Mudd is Professor of Earth Surface Processes at the University of Edinburgh and has interests in geomorphology, numerical modelling of landscapes, salt marshes, topographic analysis and natural hazards.

Professor Parsons is an active researcher in areas related to fluvial, estuarine, coastal and deep marine sedimentary environments, exploring responses of these systems to climate and environmental change. He has research interests in anthropogenic disturbances to these systems and determining necessary societal adaptations to mitigate the impact of change – for example understanding how evolving flood risk on large mega-deltas can impact populations and related regional and global food security - through to understanding the impact of plastics, particularly in coastal and marine environments. Professor Parsons also has research interests in environmental scale modelling, innovative environmental measurement technologies and in areas related to offshore renewable energy.

Professor Parsons is an active researcher in areas related to fluvial, estuarine, coastal and deep marine sedimentary environments, exploring responses of these systems to climate and environmental change. He has research interests in anthropogenic disturbances to these systems and determining necessary societal adaptations to mitigate the impact of change – for example understanding how evolving flood risk on large mega-deltas can impact populations and related regional and global food security - through to understanding the impact of plastics, particularly in coastal and marine environments. Professor Parsons also has research interests in environmental scale modelling, innovative environmental measurement technologies and in areas related to offshore renewable energy.

447914841066

Fluvial geomorphologist specializing in high latitude post-glacial landscapes and ecogeomorphology. Also, interested in stream restoration, recovery after restoration and how geomorphology affects stream and riparian biodiversity.

Fluvial geomorphologist specializing in high latitude post-glacial landscapes and ecogeomorphology. Also, interested in stream restoration, recovery after restoration and how geomorphology affects stream and riparian biodiversity.

0049 331 288 28646

The Earth surface is the interface between exogenic and endogenic forces; it is the template and product of water and material fluxes; and habitat of life. The overarching goal of my research is to improve our understanding about how processes shape the Earth surface, and how they affect and interact with human activity. In particular, I am interested in environmental changes and high magnitude-low frequency events and their role in landscape evolution on a variety of spatial and temporal scales, in the past and today. My interdisciplinary and collaborative research approach combines geomorphological and sedimentological field work, geodesy and geomorphometry, as well as statistical and physics-based modelling. Besides its scientific goals, my research aims to inform land use planning about potentially adverse effects of Earth surface processes, and the sustainable use of water and soil resources.

The Earth surface is the interface between exogenic and endogenic forces; it is the template and product of water and material fluxes; and habitat of life. The overarching goal of my research is to improve our understanding about how processes shape the Earth surface, and how they affect and interact with human activity. In particular, I am interested in environmental changes and high magnitude-low frequency events and their role in landscape evolution on a variety of spatial and temporal scales, in the past and today. My interdisciplinary and collaborative research approach combines geomorphological and sedimentological field work, geodesy and geomorphometry, as well as statistical and physics-based modelling. Besides its scientific goals, my research aims to inform land use planning about potentially adverse effects of Earth surface processes, and the sustainable use of water and soil resources.

+49331977203175

Geomorphology, Digital terrain analysis, Earth surface processes analysis through high-resolution topography, geomorphic features extraction in alpine and floodplain context, anthropogenic feature extraction, LiDAR applications, GIS.

Geomorphology, Digital terrain analysis, Earth surface processes analysis through high-resolution topography, geomorphic features extraction in alpine and floodplain context, anthropogenic feature extraction, LiDAR applications, GIS.

Arjen Stroeven graduated in Physical Geography from Utrecht University (1988) on a thesis in glaciology (Rabots glaciär, northern Sweden). He subsequently pursued a MSc in Quaternary Sciences from the University of Maine (1994) and a PhD from Stockholm University (1996) on the Sirius group of Mt Fleming, Transantarctic Mountains. He is a professor in Physical Geography at Stockholm University where he pursues research in landscape dynamics of formerly glaciated regions using cosmogenic nuclides (Antarctica, Fennoscandia, Tibet and Central Asia, Cordillera).

Arjen Stroeven graduated in Physical Geography from Utrecht University (1988) on a thesis in glaciology (Rabots glaciär, northern Sweden). He subsequently pursued a MSc in Quaternary Sciences from the University of Maine (1994) and a PhD from Stockholm University (1996) on the Sirius group of Mt Fleming, Transantarctic Mountains. He is a professor in Physical Geography at Stockholm University where he pursues research in landscape dynamics of formerly glaciated regions using cosmogenic nuclides (Antarctica, Fennoscandia, Tibet and Central Asia, Cordillera).

+46 8 164230

+44 (0) 1223 333 451

+49 331 288 28762