Whokko Schirén is a Lecturer at the Department of Building Technology within Linnaeus University's Faculty of Technology . Since 2011, he has been actively involved in teaching and research related to timber engineering, with a focus on structural mechanics and sustainable construction practices. Course responsible for Geosciences and Foundation Structures and degree project courses Teaches Building Mechanics and Building Technology 2 , specializing in acoustic exercises Director of Studies at the Department of Building Technology since 2023 His research primarily investigates stiffness properties of CLT (Cross-Laminated Timber) and the impact of vanes on finger joints. Recent work includes dynamic response analysis of timber footbridges and compliance with Eurocode 5 standards for floor vibrations. Contributed to Competitive Timber Structures project aiming to improve resource efficiency in wood construction Collaborated on studies analyzing longitudinal modulus of elasticity and rolling shear modulus in CLT
Terje Kanstad is a Professor in the Department of Structural Engineering at the Norwegian University of Science and Technology (NTNU). His research and teaching activities focus on structural design of buildings and bridges, fibre reinforced concrete, early age concrete crack assessment, finite element analysis with focus on time-dependent structural systems and material behavior, and deteriorated structures with related design methods. Professor Kanstad actively participates in key standardization committees: Fib TG 8.3 Fibre reinforced concrete Fib TG 8.8: Structural properties of flowable concrete CEN/TC 250/SC 2/WG 1/ (Revision of Eurocode 2), TG 7 Timedependent effects CEN/TC 250/SC 2/WG 1/ (Revision of Eurocode 2), TG 2 Fibre reinforced concrete Norwegian Concrete Association committee for fibre concrete (as chairman) His research interests demonstrate deep expertise in concrete technology and structural engineering: Structural design of buildings and bridges, including post-graduate lecturing and standardization work Fibre reinforced concrete applications and properties Early age concrete crack assessment methodologies Finite element analysis of time-dependent structural systems Assessment and design methods for deteriorated structures, particularly those affected by alkali-silica reactions (ASR) Professor Kanstad's recent publications (2023-2025) reveal a strong research focus on concrete technology, particularly fibre reinforced concrete, alkali-silica reactions in bridges, and advanced concrete materials. His work spans both theoretical and experimental approaches, with significant contributions to Eurocode 2 revisions. The research demonstrates consistent attention to practical engineering problems facing Norwegian infrastructure, especially bridge structures. His publications frequently address material behavior, structural assessment methodologies, and innovative concrete technologies for infrastructure rehabilitation. Professor Kanstad has been actively supervising master's students on topics related to concrete structures, alkali-silica reactions, and bridge assessment. His supervision covers both theoretical analyses and practical case studies of Norwegian infrastructure. His industry-focused teaching includes TKT4220 Concrete Structures 2 and specialized post-graduate courses on bridge design, early age crack assessment, and prestressed concrete that he has taught since 2006.
Anja Birgitta Estensen Klausen is an Associate Professor at the Norwegian University of Science and Technology (NTNU) in the Department of Structural Engineering. Her research focuses on concrete technology, particularly early-age cracking assessment, fatigue performance, and durability of concrete structures. Key research areas: Fatigue behavior of concrete, crack risk assessment, shrinkage/restraint effects, curing temperature impacts Roles in academia: Teaching courses in mechanics, structural engineering, and concrete technology Contributions to Eurocode 2 Annex D development Recent publications highlight her work on: Crack prediction models for restrained concrete Fatigue capacity under partial loading Thermo-chemo-mechanical modeling Mechanical behavior of ultra-high performance concrete Shrinkage-reducing admixtures Creep properties of fly ash concretes Her work combines experimental testing with theoretical modeling, focusing on improving structural safety and longevity.
Dr. Christina Radlbeck is a Researcher at the Department of Metal Construction within the TUM School of Engineering and Design at Technical University of Munich, working under Professor Martin Mensinger. She has been with the department since completing her doctorate in 2006, establishing herself as a specialist in metal construction with particular expertise in aluminum structures and bridge engineering. Her academic background includes: 1996-2000: Diploma in Civil Engineering, Technical University of Munich 2001: Research Engineer at Department for Civil Engineering and Applied Mechanics, McGill University 2006: Doctorate (Dr.-Ing.) at Technical University of Munich with thesis 'Ganzheitliche Analyse und Bewertung von tragenden Aluminiumkonstruktionen' Dr. Radlbeck's research focuses on critical areas of structural engineering including aluminum structures, fatigue analysis, and historical steel bridge assessment. Her work bridges fundamental material science with practical structural applications, particularly in evaluating the load-bearing capacity of aluminum joints and determining safe operating intervals for historical steel bridges. She has made significant contributions to standards development, particularly regarding DIN EN 1999-1-3 for aluminum structures. Analysis of her recent publications (2023-2025) reveals three dominant research themes: (1) advanced material characterization for additive manufacturing in construction, (2) fracture mechanics applications for railway bridge safety assessment, and (3) fatigue behavior analysis of novel aluminum and stainless steel alloys. Her work consistently connects material properties with structural performance, addressing both traditional construction challenges and emerging technologies. As an educator, Dr. Radlbeck teaches specialized courses including 'Assessment and Preservation of Historical Steel Structures,' 'Construction with Aluminum,' and 'Fracture Mechanics and Fatigue,' reflecting her deep expertise in metal construction. She has maintained an active industry presence since 2003 through independent civil engineering work, ensuring her research remains grounded in practical engineering challenges. Her research collaborations primarily involve colleagues at TUM's Department of Metal Construction, particularly with Dorina Siebert, Jakob Blankenhagen, and Professor Martin Mensinger, contributing to numerous publications in high-impact journals and international conferences. These collaborations focus on advancing sustainable practices in structural engineering through innovative assessment methods and new construction technologies.
Nadine Thomas (M.Sc.) is a Researcher at the Chair of Metal Construction at the Technical University of Munich since 2017. She holds degrees in Civil Engineering from OTH Regensburg (B.Eng., 2014) and Technical University of Munich (M.Sc., 2017). Her work focuses on structural stability, particularly buckling analysis under multiaxial stresses and eccentric load introduction in steel and composite constructions. Education B.Eng., Civil Engineering, OTH Regensburg (2014) M.Sc., Civil Engineering, Technical University of Munich (2017) Her research addresses critical challenges in bridge engineering, fire protection, and sustainability, with key contributions to Eurocode 1993-1-5 compliance. She has collaborated on studies involving historical steel structures, elastomeric bearings, and additive manufacturing in metal construction. Publications span journals like Stahlbau and conferences including the Japanese-German Bridge Symposium. Recent work includes assessments of the Chemnitz Viaduct's bearings and torsional stiffness effects on longitudinally stiffened plates. Collaborations involve Prof. Martin Mensinger, Joseph Ndogmo, and other researchers. No scientific awards are mentioned in the provided text.
Dr. Max Teichgräber is a postdoctoral researcher at the Engineering Risk Analysis Group of the Technical University of Munich (TUM), having joined in 2017 as a PhD student and transitioning to his current role in 2025. He maintains active research collaborations through visiting positions at Tongji University (Shanghai, 2024) and NTNU (Trondheim, 2018-2019). His academic foundation includes: B.Sc. in Mathematics from Ludwig Maximilian Universität München (2007-2011) B.Sc. in Civil Engineering from Technische Universität München (2011-2014) M.Sc. in Civil Engineering from Technische Universität München (2014-2017) Dr. Teichgräber's research centers on structural reliability and risk analysis, with specific expertise in safety code assessment, hidden safety mechanisms, and semi-probabilistic design frameworks. His work critically examines how traditional design assumptions impact structural safety and resource efficiency, employing advanced probabilistic methods to develop more resilient engineering standards. Analysis of his 10 publications (2018-2023) reveals consistent focus on structural reliability applications across diverse contexts—from membrane structures and wind loads to traffic modeling and bridge safety. His research demonstrates a clear trajectory toward integrating non-linear modeling with probabilistic safety frameworks to address hidden safety phenomena in engineering practice. He has received significant recognition for his work: SSF Ingenieure Prize Maurer Söhne Foundation Prize Dr. Teichgräber actively mentors students, having supervised 8 theses since 2017, and contributes to TUM's academic mission through teaching and research leadership. His involvement in 15+ active and completed research projects—including Digital twin for ships, S3UQDyn, and Navigating Risk—demonstrates robust grant support and collaborative research capacity. As a core member of TUM's Engineering Risk Analysis Group, he drives innovation in structural safety methodologies while bridging theoretical research with practical engineering applications through both teaching and industry collaboration.
Dr. Lewis Gooch is a Researcher (Research Associate) at The University of Newcastle's School of Engineering, specializing in structural reliability of unreinforced masonry. His work focuses on experimental testing, numerical modeling, and stochastic assessment to improve masonry design standards. He holds a PhD in Civil Engineering (in progress) and completed his Bachelor of Engineering with Honours Class I and a University Medal. Lewis has extensive teaching experience in courses like Engineering Risk and Uncertainty, Geomechanics, and Transportation Engineering. His research addresses masonry variability through Monte-Carlo simulations and finite element analyses. Education: Bachelor of Engineering (Civil), The University of Newcastle (2019) PhD in Civil Engineering (current), supervised by Prof. Mark J. Masia and Prof. Mark G. Stewart Research Expertise: Unreinforced masonry structural reliability Numerical modeling and experimental testing Stochastic assessment of material properties Reliability-based code calibration Awards: University Medal (2019) ADW Johnson Prize (2017) Multiple faculty commendations and scholarships Teaching: Casual academic roles in courses covering risk analysis, geomechanics, transportation engineering, and engineering mechanics.
Dr. Laurentiu Danciu is a Researcher affiliated with the Swiss Seismological Service (SED) at ETH Zurich within the Department of Earth and Planetary Sciences. His work focuses on advancing seismic hazard and risk modeling methodologies, with particular emphasis on integrating geophysical data into practical engineering applications. He contributes to large-scale projects such as the European Seismic Hazard Model (ESHM20) and the National Earthquake Risk Model of Switzerland (ERM-CH23). His research addresses challenges in induced seismicity assessment, fault displacement hazard for critical infrastructure, and dynamic risk frameworks incorporating real-time data. Key technical contributions include the development of FAIR-compliant data practices through the Geo-INQUIRE initiative and the refinement of ground motion prediction models for Swiss building codes. Danciu has also pioneered workflows for rapid seismic impact assessment of mass movements in alpine regions and evaluated the effectiveness of earthquake early warning systems in Central America. His work bridges academic research with practical applications, informing policy decisions and infrastructure resilience strategies across Europe and beyond. Core contributor to ESHM20 and ERM-CH23 frameworks Developed methods for fault-crossing displacement hazard assessment Advocated for standardized seismological data harmonization Expert in probabilistic seismic risk analysis methodologies His research outputs emphasize interdisciplinary collaboration between seismologists, engineers, and policymakers to translate complex geohazard models into actionable risk mitigation strategies.
Monica Barbero is an Associate Professor in the Department of Structural, Geotechnical and Building Engineering (DISEG) at Politecnico di Torino, Italy. She serves as Vice Coordinator of the Academic Board for the Ph.D. programme in Civil and Environmental Engineering and actively contributes to international research and standardization efforts, including Eurocode 7 and ITA-AITES congresses. Her research interests span geotechnical engineering, landslide hazard and risk, rock mechanics, tunneling, natural hazards, and the mechanical behavior of snow and complex geological formations. She leads multiple research networks focused on slope stability, landslide risk mitigation, and underground structures. Monica Barbero's recent publications reflect a strong trend in numerical modeling, constitutive modeling of geomaterials (especially rock and snow), and quantitative risk assessment for geohazards. Her work integrates field monitoring, laboratory testing, and advanced computational methods to address challenges in alpine and urban environments. assegnazione del finanziamento MIUR - ANVUR delle attività base di ricerca (legge 11 dicembre 2016 n. 232) conferred by MIUR, Italy (2017) premio per l’incentivazione della progettualità, conferito dal Politecnico di Torino sulla base dei progetti di ricerca conferred by Politecnico di Torino, Italy (2018) She has supervised Ph.D. students Lorenzo Milan (on brittle rock failure in deep excavations) and Gianmarco Vallero (on visco-plastic modeling of snow). She leads commercial research projects funded by Anas, regional authorities, and infrastructure operators, focusing on landslide risk, tunnel stability, and dam safety. She also serves on editorial boards of journals such as Gallerie e Grandi Opere Sotterranee and Geoingegneria Ambientale e Mineraria . Monica Barbero is a key member of research teams working on complex geotechnical formations and landslide monitoring systems. She coordinates national and international collaborations, including with Universidade Federal de Minas Gerais (Brazil), and participates in organizing major geotechnical conferences.
Nuno Rafael da Silva Peres is a researcher affiliated with the Faculty of Engineering at the University of Lisbon . His work focuses on structural engineering, with a strong emphasis on Generalized Beam Theory , buckling analysis , and structural health monitoring . Research Interests: Structural stability, finite element analysis, climate change impact on infrastructure, damage detection in bridges, and non-standard structural influence functions. Recent publications highlight collaborations in structural health monitoring , including applications of smartphone technology for bridge health assessments. His studies often address cold-formed steel structures and their behavior under various loads, utilizing both theoretical and computational methods.
Dariusz Czepiżak is an Associate Professor at the Faculty of Civil Engineering, Wrocław University of Science and Technology, where he is affiliated with the Department of Building Structures. He is actively engaged in teaching and research, focusing on structural engineering with an emphasis on metal and steel structures, stability, and numerical modeling. His research interests include non-typical engineering structures , thin-walled metal structures , load-bearing capacity of trapezoidal sheets , structural stability , and the application of numerical methods in solving engineering problems. He teaches courses such as Metal Structures (basics, elements, halls, objects) and Reliability and Limit States of Structures. The recent publications (2019–2024) reflect a consistent focus on steel structures, buckling analysis, scaffolding systems, and structural modeling. The work combines theoretical, numerical, and practical aspects of civil engineering, often addressing code-based design methods like the General Method in Eurocode 3. Scientific Contributions: Analysis of 2D vs 3D modeling in steel halls Monitoring of scaffolding critical elements Innovative applications of the General Method for buckling assessment Study of geometric imperfections in roof girders Load capacity of unsymmetrical welded connections Dariusz Czepiżak collaborates with researchers such as Adam Machowiak, Michał Pieńko, and Ewa Błazik-Borowa. He has no listed awards or student advisement details. His office is located in Building C-7, Room 807, and his email is dariusz.czepizak@pwr.edu.pl .
Johanna Liblik is an Expert in the Department of Civil Engineering and Architecture at Tallinn University of Technology (TalTech), where she has been working continuously since 2016. Holding a PhD (2023) and MSc (2015) from the same university, she specialises in the fire safety of timber structures protected by traditional clay and lime plasters, bridging structural engineering, conservation science and sustainable construction. Education PhD in Civil Engineering, 2016–2023 – Tallinn University of Technology, School of Engineering, Department of Civil Engineering and Architecture MSc in Civil Engineering, 2008–2015 – Tallinn University of Technology Post-graduate training in Architectural Conservation and Restoration, 2015–2016 – Estonian Academy of Arts Exchange studies in Architectural Technology and Construction Management, 2013–2014 – VIA University College, Denmark Research Focus Dr Liblik’s work centres on enhancing the fire resistance of timber buildings through the scientific understanding and modern application of traditional plasters. Her investigations span experimental material characterisation, small-scale fire testing methodologies and numerical heat-transfer modelling, always with an eye on circular-economy and heritage-conservation goals. Publication Trends Across sixteen peer-reviewed outputs (2015-2024) she has systematically advanced knowledge from fundamental material properties and charring behaviour to full-scale performance assessment and design-guidance development, integrating sustainability metrics and European regulatory harmonisation. Scientific Awards & Recognition 2023 National Contest of Educational Research – 2nd prize (doctoral category, engineering & technology) 2022 SA Professor Karl Õigeri Stipendium Fund 2019 Tallinn City Scholarship (Raestipendium) 2018 State Real Estate Ltd Doctoral Scholarship 2015 Ministry of Culture Diploma of Merit for outstanding Master’s thesis Grants & Projects She is currently contributing to five ongoing Horizon Europe and Estonian Research Council projects (total budget > €2.8 M) that target wood-bio-adhesive systems, valorisation of under-utilised wood, and circular, low-carbon building solutions. Professional Service Since 2019 she has been a member of ICOMOS Estonia and since 2018 a member of the national technical committee EVS TK8 on fire safety and sustainable construction standards.
Christian Seiler serves as Professor and Dean of the Faculty of Civil Engineering at Munich University of Applied Sciences, based in Room F 1.01a at Karlstraße 6, Munich. His leadership extends across academic administration and practical engineering applications, with core responsibilities in structural engineering fundamentals and civil infrastructure development. His research expertise encompasses: Structural Engineering (concrete/steel systems) Bridge Engineering (cable-stayed, composite, timber) Finite Element Analysis for structural simulations Normative Standards (DIN, Eurocode implementation) Railway Infrastructure and Noise Barrier Systems Prestressed Concrete and Timber Construction Analysis of his 2007-2012 publications reveals consistent focus on practical engineering challenges: dynamic analysis of railway noise barriers (2012), Eurocode-compliant concrete design (2012), vehicle impact simulations for road safety (2010), and DIN standard updates for bridges (2010). His work bridges theoretical modeling with industry applications, particularly in German infrastructure projects. Professor Seiler actively contributes to research infrastructure as: Member of Laboratory for Concrete Structures and Structural Engineering Consultant for Laboratory for Steel and Light Metal Construction (FE simulations) Active member of BayIngKa-Bau engineering organization Former Chairman of Bavarian Chamber of Civil Engineers' Standardization working group
Dr. Małgorzata Gordziej-Zagórowska serves as an Assistant Professor at the Department of Building Engineering within the Faculty of Civil and Environmental Engineering at Gdańsk University of Technology. Her office is located in Building A of the Faculty (Room 232), with contact details including email malgor@pg.edu.pl and phone +48 58 347 29 75. Her research specializes in advanced structural engineering with emphases on steel structure stability , cold-formed steel systems , and innovative girder design . Key methodologies combine experimental testing with numerical simulation to address critical challenges in plate girder web stability, cold-formed steel joint behavior, and wind load analysis. Recent work investigates variable web thickness solutions to replace traditional stiffeners and examines bolt spacing effects in built-up columns. Publications from 2020-2024 reveal consistent focus on structural failure mechanisms and innovative solutions for steel components. Her work bridges theoretical modeling with practical construction applications, particularly in optimizing cold-formed steel trusses and analyzing wind load discrepancies between standard procedures and digital simulations. Notable contributions include replacing longitudinal stiffeners through geometric innovation and validating Eurocode compliance for industrial structures. Dr. Gordziej-Zagórowska leads the MINIATURA 2023 project 'Local stability analysis of a plate girder with variable thickness of the web' (agreement 2023/07/X/ST8/00613) within the Department of Building Structures and Material Engineering. She also contributes to the parallel MINIATURA project 'Stability and failure mechanism tests of a plate girder with a Y-shaped web' managed by Dr. Wojciech Migda.
Prof. Dr. Birol Fitik serves as Professor of Structural Concrete Engineering and Dean of the Bachelor's program in Civil Engineering at Stuttgart University of Applied Sciences. He leads the New Research Fields (IAF) competence center and holds professional certification as a structural engineering inspector since 2023. His research focuses on structural concrete engineering , specializing in shear design, ultra-high-performance concrete (UHPC), fatigue analysis, and sustainable earth construction techniques. Current projects include InDeckLe - developing innovative earth-composite floor systems for industrial construction. His work emphasizes experimental validation through comprehensive shear testing databases for reinforced concrete elements. Prof. Fitik has established international recognition through co-editing the ACI-DAfStb shear databases (2020-2022), which compile global experimental data for evaluating concrete design methodologies. His publication record demonstrates sustained focus on shear behavior analysis across diverse concrete systems including lightweight variants and prestressed elements. As Speaker of New Research Fields since 2018, he directs institutional research strategy while maintaining active roles in German structural engineering associations. His professional certification as VPI structural inspector underscores practical industry engagement alongside academic work.
