Syllabus

Module 1: Fundamentals of Earthquake and Volcano Deformation - Introduction to crustal deformation: stress, strain, and rheology of Earth's lithosphere Fundamentals of seismology: earthquake genesis, fault mechanics, and seismic waves Volcano deformation mechanisms: magmatic pressure, dike propagation, and caldera collapse Monitoring techniques: GPS/GNSS, InSAR, and tiltmeters for crustal deformation studies.

Module 2: Earthquake Deformation and Seismic Hazards - Tectonic and non-tectonic sources of earthquakes Fault rupture mechanics, afterslip, and post-seismic deformation Seismic hazard assessment: liquefaction, ground shaking, and induced seismicity Case studies of major earthquakes and associated crustal deformation.

Module 3: Volcanic Deformation and Eruption Dynamics - Magma chamber dynamics and pressure-induced deformation Ground deformation as an eruption precursor: uplift, subsidence, and inflation-deflation cycles Role of external factors: tidal forces, hydrological effects, and climate interactions on volcanic activity Monitoring volcano deformation: real-time data interpretation and early warning systems.

Module 4: Crustal Deformation Modeling and Prediction - Analytical and numerical modeling of fault and volcano deformation Coulomb stress transfer and its implications for seismic and volcanic activity Integrating geodetic and seismic data for hazard forecasting Case studies: deformation modeling of recent major earthquakes and volcanic eruptions.

Module 5: Implications for Hazard Mitigation and Risk Assessment - Deformation-driven hazard assessment and early warning systems Infrastructure resilience to earthquake and volcano-related ground movements Role of remote sensing and geophysical techniques in risk evaluation Case studies: earthquakes and volcanic crises that reshaped hazard assessment strategies.

Understanding the Mechanics of Earthquake and Volcano Deformation – Introduce fundamental principles of lithospheric deformation, including fault mechanics, magmatic processes, and stress-strain relationships.

Analyzing Seismic Deformation and Earthquake Hazard – Investigate earthquake-induced ground deformation, post-seismic processes, and seismic hazard assessment methodologies.

Exploring Volcanic Deformation and Eruption Precursors – Study magmatic-driven ground deformation, eruption forecasting, and external triggers influencing volcanic activity.

Developing Crustal Deformation Models for Prediction – Apply analytical and numerical modeling techniques to assess fault slip, magma chamber evolution, and stress interactions.
Implementing Hazard Mitigation and Risk Assessment Strategies – Evaluate geodetic and geophysical tools for early warning systems, infrastructure protection, and disaster resilience planning.

CO1: To understand fundamental principles of earthquake and volcanic deformation.
CO2: To analyze crustal deformation using geophysical and geodetic techniques.
CO3: To evaluate seismic and volcanic hazards using real-time monitoring data.
CO4: To apply numerical modeling for predicting earthquake and volcano-related deformation.
CO5: To integrate deformation data into risk assessment and mitigation strategies.

Paul Segall, Earthquake and Volcano deformation, Princeton press , 2002

Peter M. Shearer, Introduction to seismology, Cambridge University press , 2010

Gunter Seeber, Satellite Geodesy, Walter de Gruyter · Berlin · New York 2003 , 2nd edition, 2002

J. Jaeger, N. G. Cook and R. Zimmerman, , Fundamentals of Rock Mechanics, Wiley-Blackwell , 4th edition, 2007

Paterson, M. S., & Weiss, L. E. (1961). Symmetry concepts in the structural analysis of deformed rocks. Geological Society of America Bulletin, 72(6), 841-882.

Wright, T. J., Elliott, J. R., Wang, H., & Ryder, I. (2013). Earthquake cycle deformation and the Moho: Implications for the rheology of continental lithosphere. Tectonophysics, 609, 504-523.