Archaeoseismology

After graduating from the University of Florence in Architecture, Laura Pecchioli has specialized in restoring monuments and technologies for conserving archaeological sites. In addition, she has participated in various interdisciplinary research projects in archaeological building research and archaeological excavations with international interdisciplinary teams (Italy and Jordan).After completing her European Ph.D. in Technology and Management in Cultural Heritage, Pecchioli has been a lecturer and researcher in heritage conservation-restoration (Florence, Berlin, and Rome). She has also been an external lecturer in Archaeoseismology at Humboldt University and, recently, at TU Wien.Pecchioli has co-edited different scientific journals and is a member of several European project committees (European Science Foundation). Her current research interests include archaeoseismology, post-disaster recovery, urban and infrastructure resilience, climate change, armed conflicts, damage assessment and risk management.

• Part I. Stratigraphic Analysis and Seismic Evidence.- Chapter 1. Stone Materials, Processes and Mortars in Archaeosismology Studies. The Case of Mugello (Tuscany-Italy).- Chapter 2. Reading the Earthquake of 1542 in the Walls of the Church of Sant'Agata del Mugello: The Need for a Multidisciplinary Approach.- Chapter 3. The Partial Collapse of the Basilica of Maxentius in Late Antiquity: An Evaluation of Possible Destruction Causes.- Part II. Identification and Classification Methods.- Chapter 4. The Archaeology of Post-Earthquake Repairs: New Insights into Building Processes in Roman Pompeii.- Chapter 5. Application of Geological Techniques to Identify Earthquakes Affecting Archaeological Sites: The Example of the 2011 Lorca Earthquake (SE Spain).- Part III. Anti-Seismic Measures in Ancient Building Construction and in the Vernacular Tradition.- Chapter 6. Anti-Seismic Measures in the Building Tradition.- Chapter 7. The Temple B in Pietrabbondante (Isernia, Italy) as a Case Study of Seismic Shield Properties of Roman-Italic Temple Foundations and Podiums.- Chapter 8. A Predictive Nonlinear 2D Mechanical Model for FEM Analysis of Trait de Jupiter Wooden Joints.- Part IV. Historical Seismicity.- Chapter 9. Roman Corinth and Wider Area (Greece): An Area Characterized by Debates on Ancient Earthquakes and by Earthquakes with Observable Signs.- Chapter 10. Research on Historical Seismicity in Vienne (France): From Archaeoseismological Observations to the Archaeological Identification of ‘Viennese’  Earthquakes in Antiquity and the Middle Ages.- Chapter 11. Assessment and Reduction of Seismic Damage to Buildings of Historical Interest.