Documented local and regional changes of geohazard occurrence and likelihood due to changing climatic conditions and anticipation of future hazard development based on climate models and mechanistic understanding of hazardous processes.

Multi-hazard interrelationships including triggering relationships, increased probability, compound (coincident) hazards and concurrent hazards, along with how exposure and vulnerability changes over time (dynamic vulnerability) due to multiple stresses to the system.

The transient, medium- and long-term effects, impacts on the environment and human systems after a natural hazard event, including changed landscape dynamics, but also health (e.g., psychological), economic and socio-economic effects.

Anthropogenic processes (intentional, non-malicious human activities) influencing natural hazards (e.g., vegetation removal increasing the hazard for landslides) and technological hazards/disasters (the unintentional, non-malicious or negligent failure of technology or industry) and their influence by or on natural hazards.

Remote sensing and Earth-observation data as an aid in event analysis and monitoring for natural hazard forecasting and response.

Communications and warning systems before, during and after a natural disaster (including education, visualization, policy-science interface, uncertainty, scenarios).

Strategies and practice of science-based natural hazard and disaster scenarios for civil defence and other authorities.

Quantitative and qualitative single hazard case studies that are not included under themes A to G. Studying fault parameters on a single fault, landslide attributes in a case-study region, or a specific application of rainfall modelling.specific application of rainfall modelling.