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universidade lusófona

Short Course | Structural Health Monitoring | South Korea

2 ECTS | Blended (12h) | In the context of the IABSE Congress 2026 in Incheon, South Korea

A 12-hour blended short course introducing Structural Health Monitoring (SHM) within the framework of the Statistical Pattern Recognition (SPR) paradigm, providing participants with the fundamental concepts and methodologies to support damage identification and risk-informed integrity management. The course is organized in conjunction with the IABSE Congress 2026, to be held in Incheon, South Korea, from 16–18 September 2026. This edition features invited speakers from around the world who will present the latest developments and practical applications of SHM across the five continents, highlighting ongoing efforts to accelerate the transition of SHM from research to engineering practice. Registration is open only until 31 July 2026 on the IABSE Website

The remote part introduces the concept of SHM and accelerates the learning process, while the in-person part focuses on bridging the gap between research and practical application. The techniques are shown with hands-on experiences applied to bridges. Unsupervised learning techniques as Gaussian mixture Models; supervised learning algorithms like artificial neural networks or support vector machines; and transfer learning methods as the transfer component analysis are all covered. The role of SHM to support the climate change adaptation of bridges is also discussed. 

Target public: The course is tailored towards graduate students and/or practicing engineers working full-time in public and private institutions, like authorities and contractors.

Keywords: SHM, bridges, structural mechanical modeling, pattern recognition, machine learning, system identification, damage identification, uncertainty, probability, probabilistic digital twins, risk, resilience, sustainability.

Accreditation: This short course has been accredited by Ordem dos Engenheiros - the Portuguese regulatory and licensing body for the engineering profession in Portugal.

Sustainable Development Goals: This course contributes to the Sustainable Development Goals (SDGs) 7, 9, and 13, by promoting sustainable and resilient infrastructure through the introduction of new technologies and innovation to guarantee the safety and comfort of people, through optimization of design and integrity management to reduce embedded CO2 and thereby countering climate change, and finally by along the same lines facilitating the development and operation of sustainable energy infrastructure, like wide turbines and dams.

CREDITS

Certificate of Attendance will be issued at the end of the short course for all participants. However, a special track is available for those who wish to obtain a Transcript of Records with 2 ECTS, provided they submit the homework.

REGISTRATION

The registration is open only until 31 July 2026 on the IABSE website. If you have any questions, we suggest you send an email to Este endereço de email está protegido contra piratas. Necessita ter o JavaScript autorizado para o visualizar..

SPECIFIC OBJECTIVES

  • Pose the SHM in the context of a statistical pattern recognition paradigm.
  • Understand the differences between quasi-static and dynamic monitoring.
  • Overview of sensors and DAQ hardware for designing an optimum instrumentation scheme for SHM.
  • Understand the applicability of finite element modeling and machine learning (unsupervised and supervised learning) for data enhancement and interpretation, as well as for damage identification.
  • Understand the role of SHM to support climate change adaptation.
  • Pose the concept of probabilistic digital twins in the context of SHM.
  • Understand the role of SHM to support risk-informed integrity management.
  • Understand the goal of SHM with current limitations, grand challenges, and future trends.

HIGHLIGHTS

After successful completion of this course, students will be capable to:

  • Describe the historical and current real-world applications of damage identification in the civil engineering field, especially in bridges;
  • Conduct damage identification using vibration-based SHM;
  • Analyze and understand the condition of data sets of monitoring results;
  • Employ machine learning algorithms for system and damage identification;
  • Develop an integrated application of machine learning and probabilistic digital twin in the context of SHM;
  • Evaluating critically the results of system and damage identification for quality control;
  • Understand and apply commercial software for system and damage identification analysis.

REASONS TO ATTEND THIS COURSE

  1. Gain a strong foundation in SHM theory and practice
  2. Learn skills directly relevant to infrastructure safety and resilience
  3. Professional accreditation and broad applicability

PROFESSIONAL OPPORTUNITIES

  1. Infrastructure Monitoring Engineer / Consultant
  2. Asset Management and Resilience Specialist
  3. Research and Innovation Roles (R&D / Digital Engineering)

DURATION, LOCATION, DATE, AND TIME

  • Duration: 12 hours
  • Remote component (6h) - The link will be provided one day before each session. 
  • In-person component (6h):
    • Location: Songdo ConvensiA, Incheon, South Korea
    • Date: September 15, 2026
    • Time: 9:00 to 16:00 (one hour for lunch)

COURSE SYLLABUS

Session #1 – August 25, 2026 (17:00 - 18:30) | Remote | Welcome session and Introduction to SHM (1.5h)
Session #2 – August 27, 2026(17:00 - 18:30)| Remote | Statistical pattern recognition paradigm for SHM + Data-based training of machine learning algorithms for outlier detection (unsupervised learning) (1.5h)
Session #3 – September 1, 2026 (17:00 - 18:30) | Remote | Hybrid (monitoring- and physics-based) data training of machine learning algorithms for damage identification (supervised learning) (1.5h)
Session #4 – September 3, 2026 (17:00 - 18:30) | Remote | Latest developments and practical applications of SHM around the world (1.5h)
Session #5 – September 15, 2026, In-person | SHM in Action (1.5h)
Session #6 – September 15, 2026, In-person | SHM in Action (1.5h)
Session #7 – September 15, 2026, In-person | Risk-informed integrity management (1.5h)
Session #8 – September 15, 2026, In-person | Trending SHM topics: The role of transfer learning for SHM and the role of SHM for bridge adaptation to climate change. Limitations, grand challenges, and trends (1.5h)

OBSERVATIONS

  • The instructors reserve the right to modify the course organization as necessary to maintain the highest standards of content quality.
  • Course notes will be distributed during the course.
  • Certificate of Attendance will be issued at the end of the short course.
  • Transcript of Records will be issued at the end of the course for those who deliver the homework.
  • If you have any questions, please send us an email: Este endereço de email está protegido contra piratas. Necessita ter o JavaScript autorizado para o visualizar.
  • Last update: July 13, 2026.

INSTRUCTORS

Eloi Figueiredo – Eloi Figueiredo, PhD in Civil Engineering (2010) and Full Professor at Lusófona University with over 125 publications on structural health monitoring (SHM) through books, book chapters, peer-reviewed journals, and conference proceedings; and over 100 opinion articles to promote science and engineering in our society. He is the coordinator of RISE research group and has scientific collaborations with several institutions in Europe, United States, and Brazil.

Ionut Moldovan – PhD in Civil Engineering (2008) and Associate Professor at Lusófona University, has more than 100 scientific publications, including books, book chapters and papers in international journals and conferences. He is the Principal Investigator of the Project INTENT, funded by the Portuguese Science Foundation (FCT), and lead developer of FreeHyTE, the first public, open-source and user-friendly computational platform using hybrid-Trefftz finite elements.

Michael Havbor Faber – Professor at Lusófona University. He is discipline Director for Risk, Resilience and Sustainability at NIRAS A/S in Denmark, and he has a position as Chair Professor at Harbin Institute of Technology in China. His research interests are directed on probabilistic modeling and analysis of systems with applications to governance and management of risks, resilience and sustainability in the built environment. Initiating president of the Joint Committee on the GLOBE Consensus, past president of the Joint Committee on Structural Safety, member of the WEF Global Expert Network on Risk and Resilience, member of the Danish Research Council and the Danish Academy of Technical Sciences. Michael was awarded the Allin C. Cornell Award in 2019.