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Dr. Bruno Briseghella

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Dr. Bruno Briseghella

​Distinguished Professor and Dean (2015-2024), College of Civil Engineering, Fuzhou University, China

BIOGRAPHY

Dr. Bruno Briseghella is a Distinguished Professor and the Dean (2015-2024) of the College of Civil Engineering at Fuzhou University, China. An elected member of the European Academy of Sciences (EurASc) and the Academy of Engineering of Mexico (AIM), he is also the Founding Director of two major research centers: the MOST-supported National Platform “Joint International Research Center of Bridge Technology Innovation and Risk Mitigation” and the “Sustainable and Innovative Bridge Engineering Research Center” (SIBERC). Dr. Briseghella chairs the International Association for Jointless Bridges and was awarded the prestigious 2023 China International Science and Technology Cooperation Award for his work in advancing global scientific collaboration. He has published more than 150 papers in prominent international journals and holds 11 invention patents. He has led or participated in international cooperation projects funded by the National Natural Science Foundation of China, the European Union Research Program, the European Horizon 2020 and 2023, the National Science Foundation of the United Kingdom, and the National Research Program of Italy. Additionally, he has contributed to nearly 20 English versions of Chinese specifications. His expertise is demonstrated on a global scale through landmark projects, including several steel-concrete hybrid bridges, the world’s longest integral abutment bridge in Verona, Italy, the Maputo–Katembe Suspension Bridge (the longest in Africa), and the IV Bridge over the Canal Grande in Venice.

ABSTRACT

Advances in Sustainable, Smart, and Resilient Steel-Concrete Hybrid Bridges: Shaping the Future of Bridge Engineering

​Steel-concrete hybrid bridges have seen significant development over the past few decades due to their technological and economic advantages throughout the design, construction process, and service life. This presentation will demonstrate how these structures are central to achieving the goals of low-carbon construction, enhanced resilience, and automated processes that define the future of the industry. It will delve into cutting-edge innovations in design and construction that significantly boost the durability, efficiency, and sustainability of hybrid bridges. We will explore how the intelligent integration of materials minimizes embodied carbon and how smart technologies enable resilience against future demands. The theory will be brought to life through compelling real-world case studies from important projects in Asia and Europe, showcasing practical applications and proven results. Attendees will gain invaluable insights into the evolving landscape of hybrid bridge technology, leaving with a comprehensive understanding of the strategies and solutions that are actively shaping a more sustainable and resilient future for global infrastructure.

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