Uncovering the Secrets of an Earthquake

1 May 2011

 

 

Cover image of Uncovering the Secrets of an Earthquake

 

Courtesy Giulio DiToro

a Multidisciplinary Study of earthquake fault
Italian researcher Dr. Giulio Di Toro is aiming at a better understanding of fault mechanics at seismic slip rates, one of the "hottest" topics in fault and earthquake mechanics at present. As part of the research, one of the most powerful earthquake simulators, "SHIVA" (Slow to High Velocity Apparatus), has been successfully installed in Rome. SHIVA simulates the extreme conditions of deformation typical of earthquakes: high pressure and moving rocks, just as happens in nature. Under these deformation pressures some rocks have been found to melt. The analysis of the original data collected shall provide an unprecedented insight into the mechanics of seismic faulting and will help to improve industrial techniques to handle solid material. This study has additional implications for understanding other friction-controlled processes, for instance in rock landslide.

Unravelling physical and chemical processes in faulting phenomena

Unravelling physical and chemical processes in faulting phenomenas
The focus of this research, led by Dr. Cristiano Collettini, is the collection of physical and chemical data. He and his team will also study deformation processes at any scale and including a time window ranging from the seismic cycle to entire geologic fault history.

Solid buildings to resist earthquake shaking

Solid buildings to resist earthquake shaking
The DARE project investigates the possibility of allowing below-ground support systems to buildings in response to strong seismic shaking. In conventional architecture, certain thresholds are applied to below-ground support systems that would imply irreparable damage for a building if they are not respected. However, during the shaking produced in a seism, going beyond these limits for a short period of time might actually be beneficial. The aim of the project is to avoid permanent displacements, rotations or injuries in buildings and monuments during an earthquake.

Anthropological perspective of environmental disasters

Anthropological perspective of environmental disasters
The study of local, social responses to environmental disasters related to water is the aim of this research conducted by researcher Dr. Kirsten Hastrup. The objective is to contribute to a renewed theory of social resilience that builds on the actualities of social life in distinct localities, and on human agency as the basis for people's quest for certainty.  The project will allow for a new, general understanding of the effects of environmental disaster on social life, and of the responsibility that people take locally to ensure the survival of their community.

Mathematical models for water flows

Mathematical models for water flows
The aim is to advance the state-of-the-art of water flows thanks to numerical simulation, experimental feedback and the gathering of field data. This is of interest, for example, in the context of wave-current interactions and for a better understanding of tsunami waves. Due to the general public's interest in tsunamis, one of the objectives of the project is to have a positive impact on the perception of science by society and on the raising of scientific interest of the younger generation through public lectures and contacts with high-schools.

Find all abstracts of ERC-funded projects on the CORDIS website.
Select Theme: "FP7-IDEAS".

Project information

Call details
ERC funding
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