GM3.1 | Hydrogeomorphic cascading processes and hazards impacted by environmental changes and extreme events
EDI
Hydrogeomorphic cascading processes and hazards impacted by environmental changes and extreme events
Co-organized by HS13
Convener: Eleonora DallanECSECS | Co-conveners: Andrea Brenna, Yuval Shmilovitz, Jacob Hirschberg, Tobias Heckmann

Hydrogeomorphic processes naturally act together and interact in a given space and time, creating cascades. Many regions worldwide are already experiencing changes in cascading processes, often driven by extreme events with severe impacts that may worsen under future climatic and environmental changes. The physical response to these cascades is hardly predictable due to their complex and non-linear nature, the interplay between different predisposing, triggering and controlling factors, and the rarity of these events.
Addressing the hazards and impacts resulting from the combination of multiple processes faces enormous challenges, primarily from a still incomplete process interaction understanding. In addition, expertise is scattered across disciplines (e.g., geomorphology, geology, hydrology, climate sciences) and beyond (e.g., civil engineering, social science). A better understanding of cascading processes under environmental changes and extreme events is of critical importance to deciphering impacts of past environmental changes and to develop and influence policy to face future challenges under a changing climate.

This interdisciplinary session focuses on cascading hydrogeomorphic processes and related hazards and on novel frameworks for understanding, monitoring, and modeling their complex feedback and interactions. A particular focus is paid on regions affected by diverse environmental changes and extreme events. We welcome scientific contributions in the domain of cascading processes, including (but not restricted to) the study of the link between extreme climatic forcing and hydrogeomorphic processes and surface processes complexity, such as connectivity or dis-connectivity between hillslopes and fluvial processes. We welcome studies from all climates and at all temporal scales; from the event scale to the long-term integrated impact of cascading processes on the landscape. We invite contributions showing novel monitoring, experimental, theoretical, conceptual and computational modeling approaches. Proposed management strategies to assess cascading processes-related hazards will also be well received.

Hydrogeomorphic processes naturally act together and interact in a given space and time, creating cascades. Many regions worldwide are already experiencing changes in cascading processes, often driven by extreme events with severe impacts that may worsen under future climatic and environmental changes. The physical response to these cascades is hardly predictable due to their complex and non-linear nature, the interplay between different predisposing, triggering and controlling factors, and the rarity of these events.
Addressing the hazards and impacts resulting from the combination of multiple processes faces enormous challenges, primarily from a still incomplete process interaction understanding. In addition, expertise is scattered across disciplines (e.g., geomorphology, geology, hydrology, climate sciences) and beyond (e.g., civil engineering, social science). A better understanding of cascading processes under environmental changes and extreme events is of critical importance to deciphering impacts of past environmental changes and to develop and influence policy to face future challenges under a changing climate.

This interdisciplinary session focuses on cascading hydrogeomorphic processes and related hazards and on novel frameworks for understanding, monitoring, and modeling their complex feedback and interactions. A particular focus is paid on regions affected by diverse environmental changes and extreme events. We welcome scientific contributions in the domain of cascading processes, including (but not restricted to) the study of the link between extreme climatic forcing and hydrogeomorphic processes and surface processes complexity, such as connectivity or dis-connectivity between hillslopes and fluvial processes. We welcome studies from all climates and at all temporal scales; from the event scale to the long-term integrated impact of cascading processes on the landscape. We invite contributions showing novel monitoring, experimental, theoretical, conceptual and computational modeling approaches. Proposed management strategies to assess cascading processes-related hazards will also be well received.