معرفی
Paul Hesse is an Associate Professor in the School of Natural Sciences at Macquarie University specializing in geomorphology and Quaternary science. His research focuses on understanding how past climate changes have shaped earth surface processes, with significant emphasis on arid and semi-arid regions of Australia. As Convenor of the Bachelor of Environment course, he teaches ENVS2266 Earth Surface Processes, ENVS3240 Environmental Change, and ENVS2341 Active Environments (a field unit in New Zealand).
Dr. Hesse's research interests span geomorphology, Quaternary science, climate change impacts, and desert studies. His work examines how climate change influences desert sand dunes, dust storms, rivers, wetlands, and vegetation cover, and how these elements feed back into climate systems. His fingerprint analysis shows strong expertise in dune dynamics (100%), floodplain systems (55%), dust processes (50%), wetland ecology (48%), loess deposits (44%), river systems (40%), desert environments (40%), and Last Glacial Maximum studies (39%).
His recent publications demonstrate a focus on paleoclimate reconstruction, dune paleoenvironments, and the impact of climate change on earth surface processes. His work spans from detailed field studies in Australian deserts to broader global analyses of dune systems and dust transport. His most recent papers examine the extended Last Glacial Maximum in the Southern Hemisphere, dune paleoenvironments, and the quantification of vegetation effects on aeolian sediment transport using drone technology.
Scientific awards:
- Farouk El-Baz Award For Desert Research (2018)
- River Basin Management Society Award for Best Paper (2012)
Dr. Hesse leads or participates in numerous research projects including 'Will rivers be smaller when the climate is hotter?' (2022-2025), 'Global climate change, coastal landscape evolution and the intensification of aridity in southern Australia during the Early-Middle Pleistocene Transition' (2020-2023), and 'Evaluating and reducing the risk of floodplain wetland disconnection' (2019-2022). His work is funded by various research councils and organizations focused on understanding climate change impacts on earth surface processes.
His laboratory and field work spans diverse environments from Australian deserts to river systems in the Murray-Darling Basin and dunefields in central Argentina. He collaborates with researchers across multiple disciplines to understand the complex interactions between climate, earth surface processes, and ecological systems.
