About
Budapest EUCEET 2025 conference
Dear Colleagues, Welcome to the Budapest EUCEET 2025 conference website!
Hereby we invite you to join the conference of The European Civil Engineering Education and Training Association that will be held in Budapest, Hungary, from 16 to 18 October 2025.
Budapest is a bustling city, rich in historical places, monumental buildings, baths, nightlife venues, parks and special gastronomic experiences, in the heart of Europe. As the capital of Hungary, it is part of the European Union, which brings many benefits to the students studying here.Budapest has an extensive public transport network, which makes it easy to get anywhere within the city. In addition, the city has its own bicycle park, electric scooter, motorbike and car park. BME's campus is located on the right bank of the Danube, so several of its buildings offer a magnificent view of the UNESCO World Heritage-listed river. It is also close to the city center, giving you easy access to many shops, restaurants, cafes and dormitories on foot.
The conference host is Hungary's largest and most prestigious technical university, the Budapest University of Technology and Economics, in particular, its founder institute, the Faculty of Civil Engineering. This conference provides an opportunity for scientists, engineers, managers, and professionals from around the world to share the latest trends and activities in civil engineering education. Such a conference is an excellent opportunity to meet colleagues, exchange knowledge and extend the list of new contacts.
If you have any questions, please feel free to contact the Organising committee member by e-mail: euceet2025@emk.bme.hu
Conference Summary
Budapest EUCEET 2025 Conference – Day 1 Summary
The Budapest EUCEET 2025 Conference opened in the Ceremonial Hall of the Budapest University of Technology and Economics (BME), gathering leading educators, researchers, and professionals to exchange ideas about the future of civil engineering education. This year’s theme, “Teaching Gen Z Civil Engineers,” set a forward-looking tone for discussions about how universities can respond to shifting generational characteristics, digital learning environments, and evolving professional expectations.
Welcome and Opening
Tamás Lovas (EUCEET, Vice-President) and Šarūnas Skuodis (EUCEET, President) opened the event by welcoming participants from across Europe. Their remarks underlined the shared commitment to renewing civil engineering education through collaboration, innovation, and empathy. Both speakers emphasized that the next generation of engineers must be equipped not only with technical expertise but also with adaptability, critical thinking, and social awareness. Tamás Lovas also presented the EELISA university alliance, which supports the conference and of which BME is an active and proud member, as well as the Digital Twins for Infrastructure and Cities master's program, now in its third year, in which BME participates in collaboration with four other EELISA partners, using an innovative blended learning teaching methodology.

Figure 1 - Tamás Lovas, opening the conference
EUCEET Award for Excellence in Teaching
The European Civil Engineering Education and Training Association (EUCEET) announced the 2025 EUCEET Award for Excellence in Teaching in Civil Engineering, which was presented to Professor Alfonso Rodríguez Dono from the Department of Civil and Environmental Engineering at UPC Universitat Politècnica de Catalunya (BarcelonaTech).
The award recognizes exceptional contributions to innovative, impactful, and transferable teaching practices in civil engineering. Professor Rodríguez Dono’s initiative, “Engineering Education for a Sustainable Future: Confronting Environmental Challenges,” impressed the jury with its interdisciplinary approach and its success in fostering structured debates on environmental and sustainability issues. His students engage in science-based discussions that enhance critical thinking and environmental awareness while connecting engineering practice to real societal concerns.

Figure 2 - EUCEET Award for Excellence in Teaching winner Alfonso Rodríguez Dono (Middle), Šarūnas Skuodis (left - EUCEET, President), Thibaut Skrzypek (right - EUCEET, Secretary general)
His project has already received the UPC Award for Quality in University Teaching and the Jaume Vicens Vives Distinction, and its adaptability across institutions aligns closely with the Sustainable Development Goals (SDGs).

Figure 3 - Conference agenda
Session I – Understanding and Anticipating Generational Change
Enikő Bereczki-Fodor – Understanding
Generation Z: Challenges and Opportunities in Education
Bereczki-Fodor opened the conference’s keynote program with an engaging
reflection on the learning habits and attitudes of Generation Z. She challenged
common stereotypes—such as impatience and overreliance on technology—and urged
educators to understand the deeper motivations behind students’ digital
behavior. Her message was clear: educators must listen to the next
generation and build trust through meaningful communication and
student-centered teaching strategies.

Figure 4 - Enikő Bereczki-Fodor – Understanding Generation Z: Challenges and Opportunities in Education
Alan Kwan – From Z to Alpha: Looking
Round the Corner in Engineering Education
Professor Kwan’s lecture addressed how universities can adapt to both
Generation Z and the upcoming Generation Alpha, expected to enter higher
education later this decade. He outlined major generational differences in
values, digital literacy, and learning expectations, and argued that the future
of engineering education lies in creating immersive, adaptive, and
collaborative learning environments.
Kwan discussed concepts such as AI-powered personal learning assistants,
gamified virtual classrooms, flexible learning spaces, and global student-led
projects. He reminded the audience that “a tablet is just a digital chalk that
doesn’t get you dirty”—a tool, not a replacement for teaching. He also stressed
that engaging students before the age of twelve is critical for sustaining
interest in STEM careers.

Figure 5 - Alan Kwan – From Z to Alpha: looking round the corner in Engineering education
Session II – Engagement, Authentic Assessment, and Competence
Šarūnas Skuodis – Improving Student
Engagement in Civil Engineering Studies
Skuodis shared insights from Vilnius Tech’s Faculty of Civil Engineering, where
targeted academic support and policy adjustments have improved student
motivation and reduced dropout rates. He emphasized the role of gamification,
fieldwork, and mental health support in student success. Even a single day
spent on a construction site, he noted, can transform students’ sense of
purpose and belonging.

Figure 6 - Šarūnas Skuodis – Improving Student Engagement in Civil Engineering Studies
Ross Higgins & Michael Quilligan –
Examination of Students’ Perceptions of the Efficacy of Generative Artificial
Intelligence in Structural Engineering Education
Higgins and Quilligan presented findings from a mixed-methods study exploring
how students perceive Generative AI tools in structural engineering
coursework. Students appreciated AI’s ability to explain procedural steps but
found it less reliable for complex structural analysis problems. They
highlighted that such imperfections can become learning opportunities,
encouraging critical evaluation and responsible AI use.

Figure 7 - Ross Higgins & Michael Quilligan – Examination of Students’ Perceptions of the Efficacy of Generative Artificial Intelligence in Structural Engineering Education
Declan Phillips – Interviews as an
Authentic Form of Assessment and Learning in the Era of Artificial Intelligence
Phillips revisited traditional oral examination methods, showing how structured
interviews can serve as authentic assessments in modern engineering
education. At the University of Limerick, group interviews are used to evaluate
understanding, ensure fairness, and preserve academic integrity in an age of
AI-assisted learning. Phillips reminded educators that learning is ultimately
about human connection, not content delivery.

Figure 8 - Declan Phillips – Interviews as an Authentic form of Assessment and Learning in the Era of Artificial Intelligence
Balázs Nagy – Teaching Transversal
Competences in Civil Engineering Education
Nagy discussed how transversal competences—communication, leadership, and
creativity—are integrated into BME’s Construction Information
Technology Engineering MSc program. Students participate in
sensor-based monitoring projects and international EELISA hackathons,
applying teamwork and project management skills to real engineering problems.
He noted that graduates from this program are well prepared for both
professional and doctoral paths.

Figure 9 - Balázs Nagy – Teaching transversal competences in civil engineering education
Session III – Building Identity and Innovating Curricula
Sofie Craps – Empowering Tomorrow’s
Engineers: Building Identity and Competence in Gen Z
Professor Craps explored how engineering identity develops through
education and how universities can nurture it intentionally. Drawing on the PREFER
model (link),
she demonstrated how understanding students’ competencies, motivations, and
self-perception can boost engagement and retention. She also stressed the need
for inclusive, diverse educational cultures that help students see themselves
as capable, confident engineers.

Figure 10 - Sofie Craps – Empowering Tomorrow’s Engineers: Building Identity and Competence in Gen Z
Kitti Ajtayné Károlyfi – Implementing
BIM and Project-Based Education in Architectural and Civil Engineering
Curricula: Experiences from Széchenyi István University
Ajtayné Károlyfi presented Széchenyi University’s approach to integrating Building
Information Modeling (BIM) and project-based learning into both
architecture and civil engineering programs. Students collaborate on
large-scale digital design projects using Archicad’s BIM cloud platform. The
experience strengthens interdisciplinary teamwork and bridges the gap between
academic theory and professional practice.

Figure 11 - Kitti Ajtayné Károlyfi – Implementing BIM and Project-Based Education in Architectural and Civil Engineering Curricula: Experiences from Széchenyi István University
Rita Sassine – Integration of PBL into
the Gen Z Civil Engineering Curriculum
Sassine reflected on the shift from short, limited problem-based projects to
larger, more sustained initiatives at ESTP Paris. Extended projects, she
explained, allow students to engage more deeply, develop ownership, and apply
their learning to real-world environmental and societal challenges,
aligning with the priorities of Generation Z.

Figure 12 - Rita Sassine – Integration of PBL into the Gen Z Civil Engineering Curriculum
José Antonio Lozano Galant – Enhancing
Civil Engineering Education through PBL: Insights from a National Wooden Bridge
Design and Construction Competition
Lozano Galant described Spain’s national wooden bridge competition, an
exemplary model of experiential learning where students design, build, and test
bridges. The competition develops teamwork, creativity, and a tangible
understanding of structural mechanics while reinforcing motivation and
practical competence.

Figure 13 - José Antonio Lozano Galant – Enhancing Civil Engineering Education through PBL: Insights from a National Wooden Bridge Design and Construction Competition
Acacia Naves – Evolution of Civil
Engineering Degrees in Spain up to the Present and On-going Changes at the
Civil Engineering School of A Coruña
Naves provided a comprehensive overview of Spain’s civil engineering education
system since the Bologna reforms. She traced the evolution from the dual-track
structure to the modern integrated model of bachelor’s and master’s degrees.
Her presentation illustrated ongoing efforts to balance academic rigor with
flexibility and digitalization while addressing national and European
qualification standards.

Figure 14 - Acacia Naves – Evolution of civil engineering degrees in Spain up to the present and on-going changes at the Civil Engineering School of A Coruña.
Day 2
Session IV – Keynotes
Emanuela
Tilley – Beyond Blueprints: The Case for Interdisciplinarity within Civil
Engineering Curricula
Professor Tilley, President of SEFI, argued for curricula that keep
disciplinary rigor while embedding challenge-led, interdisciplinary work from
the start of the degree. Teaching engineering “in context” means engaging
social, ethical, and environmental risks alongside technical design. She
described UCL’s Integrated Engineering Programme where students begin with a
long-running challenge that becomes the spine of the BSc. Pairing with
mechanical engineering and other disciplines mirrors real project teams and
helps students discover their identity as engineers early. She noted the
demographic reality: with fewer students entering higher education, civil
engineering cannot rely on recruitment from other STEM fields. It must become
more attractive through authentic, challenge-based learning that connects
directly to societal needs.

Figure 15 - Emanuela Tilley – Beyond Blueprints: The Case for Interdisciplinarity within Civil Engineering Curricula
Giulia
Sonetti – Beyond Technocentrism: Fostering Inner Transformation in Engineering
Education for Sustainability
Dr. Sonetti opened with a short video to set the atmosphere, then invited the
audience into brief, reflective activities. Drawing on the findings from the TL
SEEDS project (Transformative Learning for Sustainability and Ethics in Higher
STEAM Education), and Cycling
to Care,
she showed how emotional intelligence, mindfulness micro-practices, and
nature-based experiences can reduce eco-anxiety and strengthen
pro-environmental intention. Using GreenComp and the Inner Development Goals,
she proposed a three-layer model: inner work for self-awareness, relational
intelligence through living-labs, and human-nature connectedness. Her practical
question to educators was simple: do we bring social scientists, artists, and
human-skills experts into our lectures? She closed on a thoughtful, optimistic
note—reminding participants that while the challenges ahead are immense, by
sharing our struggles and supporting one another, we can transform anxiety into
collective strength and move forward with hope and purpose.

Figure 16 - Giulia Sonetti – Beyond Technocentrism: Fostering Inner Transformation in Engineering Education for Sustainability
Session V – Digital tools, decarbonisation skills, and heritage tech
Seyedmilad
Komarizadehasl – Enhancing STEAM Education in Engineering Through the
Integration of AI and Smartphone Technology in Teaching Practices
Komarizadehasl presented
a studio model where students measure eigenfrequencies and damping with the
sensors in their own phones, compare results to industry data, and use GenAI to
draft and check analysis scripts. Crucially, he gives clear targets but no
starter code. Students select their own approach, then validate against
commercial datasets. Early feedback shows higher engagement and stronger
conceptual grasp of SHM. The format scales to Erasmus Mundus “NoRisk,” aligning
with SDG 4 and SDG 9.

Figure 17 - Seyedmilad Komarizadehasl – Enhancing STEAM Education in Engineering Through the Integration of AI and Smartphone Technology in Teaching Practices
Šarūnas
Skuodis – Housing Decarbonisation Skills for Climate, Health and Jobs
Skuodis outlined Skills4Deca, a Baltic partnership with SMEs and a Center of
Excellence, delivering about 50 stackable courses across microlearning,
bachelor, and master levels. Students move through adaptive MOOCs, virtual and
real-time labs, AI learning environments, and 5D–7D digital twin simulations.
He stressed the importance of vision for Gen Z learners: virtual labs cultivate
early engagement, followed by physical lab immersion to consolidate skills.

Figure 18 - Šarūnas Skuodis– Housing Decarbonisation Skills for Climate, Health and Jobs
Chafic
Achour – 3D Scanning for Optimized Historic Building Restoration
Achour’s case from ESTP Orléans used Saint-Rémy Church as a semester-long field
laboratory. Students devoted 35+60 hours across semesters 7–8 with mentoring
staff. They managed project planning, scanning, and data processing to enrich
sparse historical records. The project connected digital surveying with
conservation goals, showing students how advanced capture, rendering, and
documentation can steer real restoration decisions.

Figure 19 - Chafic Achour – 3D Scanning for Optimized Historic Building Restoration
Fidel Lozano
– Enhancing Structural Analysis Education Through BIM Visual Programming
Lozano traced a progression from physical models to simulation to digital
twins, then demonstrated a Dynamo workflow that models beam behavior directly
inside a BIM context. After deployment in a structural analysis course in
Chile, surveys indicated improved understanding of structural response and
higher motivation. The value for learners came from seeing cause and effect
immediately inside the design environment.

Figure 20 - José Antonio Lozano Galant – Enhancing Structural Analysis Education Through BIM Visual Programming
Session VI – Optimization, serious games, Erasmus Mundus, and geological gastronomy
Primož Jelušič – Optimization in Geotechnical Engineering: Key Topics and Practical
Tools
Jelušič outlined a tiered framework for teaching optimization from
undergraduate to PhD levels. He coupled fundamentals with computation and
advanced applications, illustrated by determining the critical safety factor of
an infinite slope resting on impermeable rock. The pedagogy emphasizes method
selection, transparent assumptions, and validation against geotechnical
judgment.

Figure 21 - Primož Jelušič – Optimization in geotechnical engineering: key topics and practical tools
Paulo Cachim
– Learning Sustainable Construction Principles by Building a Learning-Game
Cachim described a semester project where student teams design board games that
teach sustainable construction to high-school learners. Teams co-test each
other’s prototypes, then partner with schools. A pilot with ninth-graders
produced positive questionnaire results. The approach builds analytical
thinking, communication, teamwork, and creativity while spreading
sustainability literacy beyond the university.

Figure 22 - Paulo Cachim – Learning Sustainable Construction Principles by Building a Learning-Game
Seyedmilad
Komarizadehasl – Bridging Innovation and Resilience through the NORISK Erasmus
Mundus Program in European Civil Infrastructure Education
Komarizadehasl introduced the one-year NoRisk program: an intensive coursework
phase plus dissertation, rotating across partner universities with an
integration week at the start. The curriculum blends risk analysis,
sustainability, digitalization, and advanced monitoring to address vulnerable
infrastructure under climate stress, urban growth, and conflict. Feedback from
students and faculty points to strong gains in teamwork, soft skills, and
readiness for complex, cascading risks.

Figure 23 - Seyedmilad Komarizadehasl – Bridging Innovation and Resilience through the NoRisk Erasmus Mundus Program in European Civil Infrastructure Education
Katerina
Kovarova – Geological Gastronomy: A Possible Way of Explaining Geological
Processes for Civil Engineering Students
Kovarova addressed the common challenge of low student engagement in geology by
introducing “geological
gastronomy,” an approach that connects geological structures to
familiar food and drink examples. Everyday items such as layered chia pudding
or a mojito are used to illustrate complex geological processes like
stratification or mineral reactions under heat. Students prepare edible analog
models—such as multi-layered desserts representing igneous rock textures—to
visualize and remember structural differences between plutonic, intrusive, and
extrusive rocks. These food-based
analogies act as powerful mnemonic tools, helping students
associate abstract scientific concepts with tangible sensory experiences.
Supported by educational research on mnemonic devices, this method not only
enhances knowledge retention and test performance but also boosts students’
confidence and curiosity. By making geology accessible and memorable,
Kovarova’s approach helps future engineers see the relevance of geological
understanding in areas such as foundations, tunneling, and hazard assessment.

Figure 25 - Katerina Kovarova – Geological gastronomy - a possible way of explaining geological processes for civil engineering students

Figure 26 - Talks over the coffee break

Figure 27 - Nicolaos Theodossiou (president of AECEF) and Alfredo Soeiro (secretary general of AECEF)

Figure 28 - During the presentations

Figure 29 - CIT Students attending the conference

Figure 30 - Participants of the general assembly
Day 3
On the third day of the conference, participants visited the József Gruber Reservoir, located near the Budapest University of Technology and Economics on Gellért Hill. This exciting technical tour marked the end of the conference.

Figure 31 - Visiting the Reservoir - inside

Figure - Visiting the Reservoir - outside

Figure - Gala Dinner

Figure - Gala Dinner
The conference was a
huge success, with over 60 participants, including PhD and MSc students. The
presentations and subsequent discussions made it clear that we face similar
challenges in Europe and around the world. The educational methodologies and
case studies presented were inspiring for the participants, who will hopefully
be able to implement them successfully in their own teaching.
Several other organizations were also represented at the conference, including
the president of SEFI, who participated and gave a
presentation. Representatives from AECEF, the EELISA alliance and the director of
the Digital Twins for Infrastructures and
Cities master's programme were also in attendance.
We are already looking forward to the 2027 EUCEET conference!

Figure 35 - Attendees on Day 1

Figure 36 - Attendees on Day 2
📎 Presentation files (PDF):
Links will be added here soon for the presentations.
Conference Programme
Download EUCEET 2025 Budapest Hungary
Teaching Gen Z Civil Engineers Conference Programme
here
Important dates
| Date | Action |
|---|---|
March 30, 2025 |
Extended Deadline for Abstract Submission |
| April 5, 2025 | Notification Acceptance of Abstracts & Call for Papers |
July 31, 2025 |
Extended Deadline for Paper Submission |
| September 15, 2025 | Notification Acceptance of Papers |
| September 30, 2025 | Deadline for Early Bird Registration |
| September 20, 2025 | Publication of Final Program |
| October 10, 2025 | Final Deadline for Full Fee Registration |
Venue
EUCEET 2025 takes place in Budapest, capital of Hungary at the Faculty of Civil Engineering, Budapest University of Technology and Economics, which is the largest institute providing civil engineering university education in Hungary. Keeping with the tradition of excellence, today's graduates exhibit a high quality of engineering craftsmanship and skills
More information: xplore.bme.hu
Accomodation
You can choose your accommodation from variety of facilities in the neighborhood of the symposium venue. We recommend you to use some of travel metasearch engines (e.g. booking.com, hotels.com, trivago, airbnb etc.). Please keep in mind that the accommodation capacities are limited. We would like to encourage you to book your room/apartment as soon as possible
Registration and Fees
We warmly welcome you to register for the EUCEET 2025 Conference, which will be held in Budapest, Hungary. Registration for the symposium is available through the registration page on the EUCEET 2025 website, where you will find a link to a Microsoft Forms registration form.
This form will gather all necessary information, including invoice name and address for the registration fee. After registration, we will send the invoice details via email, and the information will also be posted on the website. Registration is expected to open in January/February 2025.
Registration Packages
We offer a simple registration structure to make participation accessible to all types of attendees. Please see the details below.
Full Registration
Early Bird: 200 EUR
Regular: 250 EUR
Full registration includes:
- Admission to all EUCEET 2025 conference sessions and Keynote Presentations.
- Conference package, including the EUCEET 2025 International Programme (printed brochure) and amenities.
- Access to refreshments during coffee breaks, lunches, and the welcome reception.
- Access to the symposium dinner (Venue to be announced).
- Online access to the programme, including submitted papers.
- Digital copy of the symposium proceedings after publication.
- An active EUCEET 2025 participation Attendance Certificate.
One-Day Registration
Early Bird: 150 EUR
Regular: 175 EUR
One-day registration is available for participants who wish to attend only a specific day of the conference. It includes:
- Admission to EUCEET 2025 sessions and Keynote Presentations for the selected day.
- Conference package, including the EUCEET 2025 International Programme (printed brochure) and amenities for the selected day.
- Access to refreshments during coffee breaks and lunch on the selected day.
- Online access to the programme, including submitted papers.
- Digital copy of the symposium proceedings after publication.
Fees Overview
| Registration Type | Early Bird | Regular |
|---|---|---|
| Full Registration fee | 200 EUR | 250 EUR |
| One-Day Ticket | 150 EUR | 175 EUR |
Payment Information
Payment via Bank Transfer is expected. Details will be announced on the EUCEET 2025 website and after registration. All fees are in Euro (EUR, €).
VAT of 27% is included in all conference fees. Transaction fees are not included; please ensure you cover any additional charges that your bank may apply.
Cancellation Policy
- Cancellations made before October 1, 2025, will be eligible for a refund of 50% of the registration fee, less any transaction fees.
- After October 1, 2025, cancellations will not be possible.
We look forward to welcoming you to Budapest for the EUCEET 2025 Conference.
Please feel free to contact us for any further questions regarding registration.
Abstract and full paper submission
Periodica Polytechnica Civil Engineering and the National Technical Information Centre and Library of BME supports the abstract and paper management of EUCEET 2025 Conference.
Full paper submissions for conference proceedings will be subjected to a double-blind review process. All accepted, revised, registered and presented papers will be assigned a Digital Object Identifier (DOI) from Cross Ref and published in the conference proceedings with ISBN Number online at: https://journals.bme.hu/
Guidelines & Tips
It is extremely important for all authors to follow the guidelines in template file in order to avoid delay in the publishing of the proceedings.
Therefore, please use the provided MS Word template and follow the instructions given there.
International Scientific Committee
| Name | Institution | Country |
|---|---|---|
| Šarūnas Skuodis Chairman |
Vilnius Gediminas Technical University | Lithuania |
| Diego Lo Presti Vice Chairman |
Pisa University | Italy |
| Vicente Alcaraz | Universidad Politécnica de Madrid | Spain |
| Talal Al Shihabi | Faculty of Civil Engineering at Damascus University | Syria |
| Matthieu Arquier | École nationale des ponts et chaussées | France |
| Makhaly Ba | Université Iba Der Thiam de Thies | Senegal |
| Jose Balibrea | Universidad Politécnica de Madrid | Spain |
| Arpad Barsi | Budapest University of Technology and Economics | Hungary |
| Piotr Berkowski | Politechnika Wroclawska | Poland |
| Jean Berlamont | University of Leuven (KU Leuven) | Belgium |
| Gediminas Blaževičius | Vilnius Gediminas Technical University | Lithuania |
| Iurii Bogomol | National Technical University of Ukraine | Ukraine |
| Bruno Briseghella | Fuzhou University | Portugal |
| Jose C. Matos | University of Minho | Portugal |
| Gražina Droessiger | Vilnius Gediminas Technical University | Lithuania |
| Endri Duro | Polis University | Albania |
| Stephanos E. Dritsos | University of Patras | Greece |
| Rosa Estela | Universitat Politecnica de Catalunya BarcelonaTech | Spain |
| Oliver Fenyvesi | Budapest University of Technology and Economics | Hungary |
| Pablo Rodríguez-Vellando Fernández-Carvajal | University of A Coruña | Spain |
| Arndt Goldack | University of Wuppertal | Germany |
| Sophie-Caroline Huisman | ESTP, Grande école d'ingénieurs de la construction | France |
| Andrej Ivanič | University of Maribor | Slovenia |
| Milad Komary | Universidad Politécnica de Cataluñaa | Spain |
| Nauzika Kovacs | Budapest University of Technology and Economics | Hungary |
| Balazs Kovesdi | Budapest University of Technology and Economics | Hungary |
| Stojan Kravanja | University of Maribor | Slovenia |
| Euan Lindsay | Aalborg University | Denmark |
| Geer Lombaert | KU Leuven | Belgium |
| Monica Lopez Alonso | University of Granada | Spain |
| Tamas Lovas | Budapest University of Technology and Economics | Hungary |
| Fidel Lozano | Universidad de Castilla-La Mancha | Spain |
| Jose Antonio Lozano-Galant | Universidad de Castilla-La Mancha | Spain |
| Haiying Ma | Tongji University | China |
| Fernando Madrazo-Aguirre | COWI + Imperial College London | United Kingdom |
| Andras Mahler | Budapest University of Technology and Economics | Hungary |
| Carlos Mendez Galindo | Tecnológico de Monterrey | Mexico |
| Behnam Mobaraki | Universitat Internacional de Catalunya | Spain |
| Jaak Monbaliu | University of Leuven (KU Leuven) | Belgium |
| Guido Morgenthal | Bauhaus University Weimar | Germany |
| Jeanette Muñoz Abela | University of Malta | Malta |
| Acacia Naves | University of A Coruña | Spain |
| Robert Nemeth | Budapest University of Technology and Economics | Hungary |
| Giang Nguyen | The University of Adelaide | Australia |
| Jose A. Ortiz-Lozano | Universidad Autonoma de Aguascalientes | Mexico |
| Ayse Pekrioğlu Balkıs | Cyprus International University | Cyprus |
| Rocio Porras Soriano | Universidad de Castilla-La Mancha | Spain |
| María Isabel Rodríguez Rojas | University of Granada | Spain |
| Szabolcs Rozsa | Budapest University of Technology and Economics | Hungary |
| Ilda Rusi | Polis University | Albania |
| Remigijus Šalna | Vilnius Gediminas Technical University | Lithuania |
| David Sánchez Ramos | Universidad de Castilla-La Mancha | Spain |
| Marta Skaf | University of Burgos | Spain |
| Thibaut Skrzypek | Ecole Nationale des Ponts et Chaussées Paris | France |
| Alfredo Soeiro | University of Porto | Portugal |
| Nicolaos Theodossiou | Aristotle University of Thessaloniki | Greece |
| Mia Trifu | Technical University of Civil Engineering Bucharest - UTCB | Romania |
| José Turmo |
Universitat Politecnica de Catalunya BarcelonaTech | Spain |
| Ann Van Gysel | KU Leuven | Belgium |
| Doina Verdes | Technical University of Cluj-Napoca | Romania |
| Mārtiņš Vilnītis | Riga Technical University | Latvia |
| Alvaro Viviescas Jaimes | Universidad Industrial de Santander | Colombia |
| Ye Xia | Tongji University | China |
| Masaho Yoshida | National Institute of Technology | Japan |
| Jiaolong Zhang | Tongji University | China |
Local Organizing Committee
| Name | Institution | Country |
|---|---|---|
| Tamás Lovas Chairman |
Budapest University of Technology and Economics | Hungary |
| José Turmo Vice Chairman |
Universitat Politecnica de Catalunya BarcelonaTech | Spain |
| Kristóf Kapitány | Budapest University of Technology and Economics | Hungary |
| Janos Mate Logo | Budapest University of Technology and Economics | Hungary |
| David Sik | Budapest University of Technology and Economics | Hungary |
Keynote & Invited Speakers
Prof Alan Kwan, Cardiff University, UK
Short Bio:
Dr Kwan is a Professor in Structural Mechanics at Cardiff University, UK, with specialism in deployable / foldable structures and lightweight / cable structures, and the control of their shapes and internal forces. This work covers geometrically nonlinear structures, and structures which are prestressed mechanisms. He has also worked in structural optimisation, particularly in the use of metaheuristic algorithms for structural layout and shape optimisation. Since 2010, Dr Kwan has been active in the field of "sustainability informatics", in data collection and predictive analytics relating to building and infrastructure performance.
Dr Kwan has keen interest in Engineering education, and effective / innovative practices. He was a participant of EUCEET Thematic Network (from the Barcelona General Assembly in Feb 1999), and is a Board Member of the Association of European Civil Engineering Faculty, having been first elected in 2003.
Dr Kwan is an alumnus of Sheffield University and Churchill College, Cambridge.
From Z to Alpha: looking round the corner in Engineering education
The landscape of engineering education is evolving and responding to the changing characteristics of student cohorts. The significant differences in Generation Z have consequently caused changes in processes, pedagogy, provisions, and particularly the philosophy of Engineering educators. This lecture will briefly sketch out those changes, but will then project forward to adaptations that might be needed for the next Generation Alpha, arriving at universities from around 2028.
There are notable generational differences in terms of learning preferences, digital fluency, values, and expectations. This lecture will cover how higher education institutions could rethink and redesign our engineering curricula, teaching methods, and institutional cultures to meet the needs of new generation learners, including preference for personalised tech-integrated learning, and immersive, adaptive educational experiences. There is need for pedagogical strategies that are student- and learning-centric, with emphasis on experiential learning, collaborative problem-solving, and pervasive digital integration. The lecture will explore ideas such as use of AI-powered personal learning assistant, gamification in the virtual learning environment, physical class rooms which are adaptive flexible learning space, student-led global collaborative projects, and hands-on design-make-test projects from early on.
dr. Sofie Craps, Faculty of Engineering Technology, Leuven Engineering and Science Education Center (LESEC), KU Leuven, Belgium
Short Bio:
Sofie Craps is a doctor in Engineering Technology and in Social Sciences at KU Leuven (Belgium). Her research interests focus on professional identity and career development, professional competencies, and inclusion and diversity in engineering (learning environments). She is an active member of the Leuven Institute for Education (LIVO) and the Leuven Engineering & Science Education Centre (LESEC). She is co-chair of the Special Interest Group Attractiveness of the European Society for Engineering Education and serves in the steering committee of KU Leuven Diversity Council. As a BSc in Political and Social Sciences and a MSc in Communication Sciences, she has been teaching communication skills to engineers and been actively promoting a more diverse image of engineers with students and the larger community. As chair of the faculty's Teacher's Team Professional Competencies, Sofie has played a role in recent curriculum reform efforts at KU Leuven, particularly in integrating professional competencies into the engineering curriculum.
Empowering Tomorrow's Engineers: Building Identity and Competence in Gen Z
In this keynote, we will explore strategies to prepare Gen Z civil engineering students for their future roles by fostering their engineering identity throughout their educational journey. Drawing on recent research, such as a validated competency-based professional role model for early career engineers, tools to promote personal development processes, and initiatives to enhance diversity and inclusion in engineering, we will discuss how supporting students in developing a strong sense of their professional selves can enhance their motivation and commitment to their chosen field. These supportive measures not only benefit student retention but also increase the attractiveness of engineering (education).
Both educators and industry play a crucial a role in empowering tomorrow's engineers. This talk will showcase inspirational examples of strategies, solutions, and implementation methods. By integrating these approaches into civil engineering education, we aim to equip students with the skills and confidence needed to thrive in their careers and contribute meaningfully to the industry.
Giulia Sonetti, PhD, Research Institute for Sustainability Science & Technology (UPC)
Short Bio:
Giulia Sonetti, PhD, is a transdisciplinary researcher and former Beatriu de Pinós fellow at the Research Institute for Sustainability Science & Technology, Universitat Politecnica de Catalunya — BarcelonaTech (UPC), and currently Marie-Curie IF at the Insitute of Global Health - ISglobal, Spain. Her work bridges engineering, environmental psychology and transformative education to cultivate inner capacities for sustainability transitions. Trained as an building engineer (MSc, University of Naples) and renewable-energy engineer (MSc, University of Nottingham), she earned her PhD in Environment & Territory from Politecnico di Torino. She has authored 50+ peer-reviewed outputs and sits on the editorial boards of Sustainability (MDPI) and the International Journal of Sustainability in Higher Education. An alumna of the Postdoc Academy for Transformational Leadership, she advises universities and NGOs on inner development for societal change.
Beyond Technocentrism: Fostering Inner Transformation in Engineering Education for Sustainability
Escalating climate- and resource-related crises demand a paradigm shift in engineering education—one that moves beyond technocentrism toward the cultivation of inner capacities that can drive systemic change. Drawing on findings from the TL SEEDS project (Transformative Learning for Sustainability and Ethics in Higher STEAM Education), the BdP funded "TE4life" and the MSCA Cycling to Care studies, this keynote argues that technical prowess alone is insufficient. Empirical evidence shows that embedding emotional intelligence training, mindfulness micro-practices and intergenerational, nature-based experiences can reduces eco-anxiety while boosting pro-environmental intention. Using GreenComp and the Inner Development Goals as reference frames, this keynote propose a three-layer curricular model: (1) inner work to nurture self-awareness, (2) relational intelligence through community living-labs, and (3) Human-Nature connectedness practices. Curricular implementation pathways—from reflective assessment rubrics to faculty capacity-building—will be discussed, highlighting how universities can partner with industry and civil society to graduate engineers who combine technical excellence with ethical courage and planetary responsibility.
Enikő Bereczki
Short Bio:
Enikő Bereczki, has been working with young people since 2006. She is an expert for several domestic and international organisations. Since 2015, she and her Generation Dilemmas team have been delivering lectures, conducting intergenerational training and mentoring, and carrying out research. This year, she published her book The Mysterious Generation Z: Working with Today's Teens and Twenties, which features interviews with a variety of influencers, secretaries and YouTubers.
Understanding Generation Z: Challenges and Opportunities in Education
Generation Z differs significantly from previous generations in their learning habits, digital mindset, and approach to communication. Often labeled as impatient or overly dependent on technology, they face numerous stereotypes that can impact their educational experiences. This lecture explores these differences, challenges common misconceptions, and provides university educators with practical strategies to engage and support Gen Z students effectively.
Professor Emanuela Tilley, Faculty of Engineering Sciences, University College London
Short Bio:
Professor Emanuela Tilley is a world leader in engineering education, serving as Professor of Engineering Education, Director of Studies for the UCL Centre for Engineering Education, and Director of the Integrated Engineering Programme (IEP) at University College London. She pioneered the IEP's cross-faculty teaching framework engaging over 2,000 students annually in interdisciplinary, experiential learning to address global challenges. Emanuela's passionate, pragmatic and people-centred leadership is credited for building a sense of community focused on modernising engineering education at UCL.
With nearly a decade of experience working within the built environment, Emanuela returned to academia after working in consultancy on renowned architectural projects around the world such as Zayed National Museum and Masdar City in Abu Dhabi, UAE, the Shard in London, UK, and the Camp Nou in Barcelona, Spain. She is Vice President of the European Society for Engineering Education (SEFI) and a Principal Fellow of the Higher Education Academy. She also sits on advisory boards for higher education institutions globally, focusing on education strategy and innovation. Her research spans innovation in engineering education pedagogies, social responsibility in engineering, and interdisciplinary learning.
Beyond Blueprints: The Case for Interdisciplinarity within Civil Engineering Curricula
Civil engineering has traditionally been defined by technical mastery — the blueprints, calculations, and specifications that shape our built environment. Yet today's most urgent challenges — from climate resilience to equitable infrastructure — are complex, systemic, and deeply entangled with social, environmental, and ethical dimensions. Meeting them requires engineers who can think and act beyond disciplinary boundaries.
This keynote draws on research and practice from UCL's Integrated Engineering Programme (IEP), including flagship interdisciplinary project-based learning initiatives such as How to Change the World. Evidence from large-scale student cohorts shows that working across disciplines develops not only technical adaptability but also critical transferable skills: systems thinking, communication, stakeholder engagement, and the integration of diverse perspectives into workable solutions. These experiences foster leadership, self-directed learning, and readiness for the uncertainties of real-world engineering practice.
Framed within the challenge-led education approach championed by UCL Grand Challenges, the talk demonstrates how embedding authentic, "wicked" problems into civil engineering curricula connects theory to practice, promotes responsible innovation, and aligns with the UN Sustainable Development Goals.
"Beyond Blueprints" makes the case for a deliberate rebalancing of civil engineering education — retaining disciplinary rigour while systematically integrating interdisciplinary, challenge-led experiences. This shift not only enhances graduate employability but also equips future engineers to lead in shaping sustainable, inclusive, and resilient futures.
Contact
Location:
Faculty of Civil Engineering
Budapest University of Technology and Economics
Muegyetem rkp. 3.
Budapest, Hungary

Social events
To be announced