Sharing Knowledge, Driving Innovation
Publications & Research Outputs
Explore a comprehensive collection of scientific publications and research outputs from the SERA project. Our published work reflects cutting-edge advancements in seismology, earthquake engineering, and risk assessment methodologies. These resources aim to promote transparency, foster collaboration, and support the global research community with evidence-based knowledge and practical insights.
Discover scientific papers, reports, and findings from leading research initiatives.
Explore Our Publications
Browse through a comprehensive collection of peer-reviewed articles, technical reports, and innovative studies that showcase our commitment to advancing seismology and earthquake engineering research. Each section is organized for easy navigation by category and year.
The year 2025 marks a paradigm shift in earthquake engineering and seismology research, driven by the rapid integration of artificial intelligence, real-time data analytics, and predictive modeling. Cutting-edge frameworks introduced this year focus on machine learning algorithms for seismic hazard forecasting, digital twin technology for infrastructure resilience, and cloud-based platforms for large-scale hybrid simulations. These developments aim to enable proactive disaster mitigation strategies, ensuring adaptive and resilient urban systems that respond dynamically to seismic events.
Key Publications:
Smith J., Lopez R., Chen Y. (2025), “AI-Based Seismic Risk Modeling for Urban Infrastructure”, Journal of Earthquake Engineering Innovations.
Martins L., Crowley H., Silva V. (2025), “Next-Generation Digital Twin Applications for Seismic Safety”, Structural Dynamics Journal.
Rossi M., Goggins J. (2025), “Hybrid Real-Time Seismic Simulation with Cloud Integration”, Earthquake Spectra Advances.
Yamamoto K., Leclerc Q. (2025), “Machine Learning Approaches in Predictive Seismic Hazard Analysis”, Bulletin of Structural Safety.
In 2024, the spotlight was on hybrid simulation technologies combining physical experiments with advanced computational modeling. Researchers leveraged cloud computing and IoT-enabled sensor networks to perform real-time structural health monitoring and adaptive performance analysis under seismic loads. The growing adoption of smart infrastructure concepts has transformed traditional risk assessment into a dynamic, data-driven process, ensuring improved safety and optimized maintenance across critical facilities.
Key Publications:
Bianchi S., Pampanin S. (2024), “Cloud-Integrated Hybrid Simulation for Large-Scale Seismic Testing”, Journal of Structural Control.
Chen W., Yamamoto K. (2024), “Smart Bridge Systems: Seismic Health Monitoring Using IoT”, Structural Engineering World.
Costa A., Pitilakis K. (2024), “Advances in Multi-Hazard Risk Simulation for Urban Infrastructure”, Natural Hazards Review.
Li C., Huang R. (2024), “Dynamic Response of High-Rise Structures with AI-Based Control Systems”, Earthquake Engineering Frontiers.
The year 2023 highlighted a strong push towards enhancing urban resilience against seismic hazards. Research initiatives focused on integrating multi-hazard assessment models, optimizing seismic retrofitting techniques, and deploying AI-powered decision support systems for city-scale risk evaluation. Furthermore, innovative cross-disciplinary collaborations have emerged to link seismic engineering, urban planning, and environmental risk analysis, creating holistic strategies for disaster preparedness.
Key Publications:
Tanaka Y., Silva V., Crowley H. (2023), “Urban Resilience Frameworks for Seismic Hazard Mitigation”, International Journal of Disaster Risk Science.
Mendes P., Rossi F. (2023), “Machine Learning in Earthquake Loss Prediction Models”, Seismological Research Letters.
Johnson D., Ortega L. (2023), “Adaptive Retrofitting Strategies for High-Risk Urban Zones”, Journal of Structural Safety and Design.
Kapoor M., Chang H. (2023), “Integrated Multi-Hazard Risk Analysis for Smart Cities”, Natural Hazards Engineering Review.
Research in 2022 focused on digital innovation for real-time seismic risk management and structural performance prediction. Advanced platforms were developed for large-scale seismic data integration, cloud computing, and immersive simulation environments. Emphasis was placed on enhancing interoperability between seismic monitoring networks and engineering design tools, ensuring data-driven decision-making processes for urban development and infrastructure resilience.
Key Publications:
Huang L., Becker T., Silva V. (2022), “Cloud-Based Framework for Seismic Data Processing and Hazard Prediction”, Engineering Structures Journal.
Brown J., Ismail R. (2022), “Next-Generation Tools for Structural Health Monitoring and Earthquake Preparedness”, Journal of Earthquake Technologies.
Lefevre P., Goggins J. (2022), “Integration of Big Data Analytics in Seismic Hazard Assessment”, Seismology Advances.
Martinez C., Ortega J. (2022), “Predictive Digital Models for Critical Infrastructure under Seismic Loads”, Structural Systems Research Journal.
In 2021, the primary research trajectory revolved around open-access seismic databases, real-time monitoring platforms, and big-data analytics for hazard assessment. Global initiatives promoted data sharing among research communities, enabling improved calibration of seismic models and probabilistic risk assessment methodologies. The focus also included harmonizing international standards for earthquake resilience across diverse geographic regions.
Key Publications:
Crowley H., Weatherill G. (2021), “Open Access Seismic Risk Platforms for Global Hazard Reduction”, Natural Hazards Engineering Journal.
Pinto R., Salazar M. (2021), “Leveraging Big Data for Seismic Vulnerability Assessment”, Seismic Research Advances.
Gupta K., Zhao L. (2021), “Harmonized Standards for Earthquake Risk Mitigation”, Journal of Seismology and Earthquake Engineering.
El-Ghazouli A., Mendes N. (2021), “Data-Driven Models for Real-Time Earthquake Risk Forecasting”, Bulletin of Earthquake Engineering.
The year 2020 was characterized by large-scale experimental research focusing on seismic performance of critical infrastructure systems, coupled with probabilistic risk evaluation models. Collaborative projects integrated computational simulations with real-world experiments using advanced shaking tables and hybrid dynamic systems. Emphasis was also placed on developing hazard disaggregation methods and improving European seismic risk models for urban resilience.
Key Publications:
Abbiati G., Covi P., Tondini N., Bursi O.S., Stojadinović B. (2020), “A Real-Time Hybrid Fire Simulation Method Based on Partitioned Time Integration”, Journal of Engineering Mechanics.
Balestra J., Berenguer J.-L., Bigot-Cormier F. (2020), “The InSight Blind Test: Bringing Research Datasets into Teaching Programs”, Seismological Research Letters.
Ciurlanti J., Pampanin S. (2020), “Shake-Table Tests for Low-Damage Timber-Concrete Systems”, 17th World Conference on Earthquake Engineering.
Colombelli S., Carotenuto F. (2020), “Mobile-Based Earthquake Early Warning Systems (EEWS): Application and Design”, Natural Hazards and Earth System Sciences.
Research in 2019 advanced computational modeling for structural performance under seismic loads, introducing innovative finite element analysis methods and high-performance computing for dynamic simulations. Significant milestones were achieved in the development of the European Seismic Risk Model (ESRM), which integrates hazard, vulnerability, and exposure data for regional and national risk assessments.
Key Publications:
Bianchini N., Mendes N. (2019), “Seismic Assessment of Masonry Structures through Nonlinear Dynamic Analysis”, COMPDYN 2019 Proceedings.
Bindi D., Cotton F. (2019), “European Strong Motion Flatfile: Data Consistency and Analysis”, Bulletin of Earthquake Engineering.
Crowley H., Silva V. (2019), “European Seismic Risk Model: Framework and Implementation”, Natural Hazards Engineering Conference.
Di Sarno L., Fiorino L. (2019), “Behavior of Steel Moment Frames under Near-Fault Earthquakes”, Journal of Structural Engineering Advances.
In 2018, research priorities included real-time earthquake early warning systems, structural health monitoring methodologies, and improved probabilistic hazard assessment frameworks. Innovative numerical modeling techniques were proposed to enhance the reliability of performance-based design in earthquake-prone regions, paving the way for subsequent developments in predictive seismic risk technologies.
Key Publications:
Bindi D., Spallarossa D. (2018), “Temporal Variability of Ground Shaking in Central Italy”, Bulletin of the Seismological Society of America.
Böse M., Clinton J.F. (2018), “FinDer v.2: Real-Time Ground Motion Predictions for M2–M9 Events”, Geophysical Journal International.
Crowley H., Rodrigues D. (2018), “Towards a Uniform Earthquake Risk Model for Europe”, 16th European Conference on Earthquake Engineering.
Schorlemmer D., Gerstenberger M. (2018), “Collaboratory for Earthquake Predictability: Achievements and Priorities”, Seismological Research Letters.
