Roles and Affiliations: Daniel Ellström is an Associate Professor at Linköping University's Department of Management and Engineering (IEI) and a member of the Industrial Management (INDEK) division. He serves as Director of Studies and Degree Project Coordinator at INDEK, and participates in IL-nämndens programplanegrupp (PPG-IL). His academic email is daniel.ellstrom@liu.se . Education: No specific educational details provided in the text. Research Interests: Ellström's research focuses on market strategies, sustainable business practices, and digital transformation. He applies frameworks such as the resource-based view, resource dependence theory, and dynamic capabilities to analyze firm capabilities in areas like customer support, SME growth, and environmental sustainability. His work emphasizes how firms leverage capabilities to navigate challenges such as digital transformation and sustainable offering development. Research Contributions: His publications span topics including green marketing typologies, startup equity strategies, and synergies in sustainable food systems. Recent work highlights digital transformation dynamics and SME financing mechanisms. Grants and Labs: Affiliated with the Centre for Business Model Innovation (CBMI), which explores adaptive business models in societal changes. Collaborates with industry partners to ensure research relevance. Teaching: Responsible for courses like TEIM32 and TEIM11 in industrial marketing. Engages in educational innovation to align with industry needs.
Bassem O Andrawes is a Professor in the Department of Civil and Environmental Engineering at the University of Illinois, affiliated with the National Center for Supercomputing Applications (NCSA). His research focuses on innovative materials like shape memory alloys (SMAs) and their applications in civil infrastructure, including reinforced concrete, bridge engineering, and structural rehabilitation. He has been recognized with prestigious awards including the ASCE Fellow (2024) and NSF CAREER Award (2011). Key research interests include: Active confinement and prestressing systems using SMAs Structural health monitoring and data-driven performance evaluation Bridge deck and girder analysis under dynamic and static loads Sustainable solutions for mass timber and concrete structures Recent work highlights include developing adaptive prestressing systems for concrete crossties, SMA-based crack healing for concrete structures, and digital twin models for bridge monitoring. His studies bridge materials science with civil engineering applications, emphasizing durability and resilience in infrastructure systems. Notable achievements include over 100 peer-reviewed publications and leadership in projects addressing seismic retrofitting, FRP composites, and material testing integrated (MTI) simulation paradigms. Collaborations span academia and industry, focusing on practical solutions for infrastructure challenges.
Dr. Amar Khennane serves as a Senior Lecturer at the University of New South Wales (UNSW) Canberra campus within the School of Engineering and Information Technology. His academic career spans multiple institutions including previous appointments as Maitre de Conferences in Tizi-Ouzou, Algeria, Research Associate in Newcastle, Australia, and Lecturer/Senior Lecturer at the University of Southern Queensland (USQ). His research interests focus on sustainable construction materials, particularly bio-cementitious materials, composite materials, timber engineering, reinforced concrete, and hybrid structures. Dr. Khennane has published extensively in these fields with 47 peer-reviewed journal papers, 33 conference papers, 6 other publications, and 2 books including the widely recognized "Introduction to Finite Element Analysis Using MATLAB (R) and Abaqus" (2013). His recent work emphasizes recycling timber waste into geopolymer cement composites, sustainable wood-geopolymer masonry units, and fire response of timber structures. His scholarly output shows a clear trend toward sustainable construction materials and advanced structural analysis techniques, with significant contributions in finite element modeling, seismic performance evaluation, and fire resistance of composite structures. The majority of his recent publications (2020-2024) focus on developing sustainable building materials using recycled components and analyzing structural behavior under various loading conditions. Dr. Khennane actively contributes to engineering education through teaching courses in Structural Analysis, Finite Element Method, Reinforced Concrete, and Stress/Strain Analysis. His educational background includes authoring textbooks that bridge theoretical concepts with practical computational tools like MATLAB and Abaqus.
Associate Professor David Lange serves as Deputy Director of Higher Degree by Research at the School of Civil Engineering , University of Queensland . With academic qualifications from the University of Edinburgh (PhD and MSc), he specializes in fire safety engineering and structural engineering , focusing on timber buildings, lithium-ion battery fire safety, and risk analysis techniques. Chartered Engineer (CPEng), Fellow of Engineers Australia (FIEAust) Registered Professional Engineer of Queensland (RPEQ) APEC Engineer and International Professional Engineer (IntPE) His research explores fire behavior in mass timber structures , vertical fire spread , and infrastructure resilience . Publications highlight his expertise in probabilistic modeling, fire dynamics, and structural response to extreme conditions. Recent collaborative studies examine flame spread in ventilated façades, compartment fire behavior, and risk evaluation frameworks. He actively supervises PhD projects in areas like fire safety of low-carbon concrete, diagrid structures, and physics-informed machine learning for fire modeling.
David Roueche serves as the Gottlieb Associate Professor of Structural Engineering within the Department of Civil and Environmental Engineering at Auburn University's Samuel Ginn College of Engineering. His research focuses on structural performance under extreme wind events, forensic engineering methodologies, and improving building resilience against hurricanes and tornadoes through interdisciplinary approaches. Dr. Roueche's academic foundation includes advanced degrees from the University of Florida, with complementary physics training: Ph.D. in Structural Engineering, University of Florida M.S. in Civil Engineering, University of Florida B.S. in Civil Engineering, University of Florida B.S. in Engineering Physics, Jacksonville University His primary research explores extreme wind loads on low-rise buildings , post-disaster field investigations , and performance-based wind engineering , with specialized expertise in light wood-frame structures and surge/flood modeling. He integrates engineering analysis with social science through survivor interviews to reconstruct tornado events and identify vulnerabilities in residential construction, particularly for mobile and manufactured housing in the Southeastern United States. Analysis of his recent publications reveals a dominant focus on post-disaster assessment frameworks, field data collection protocols, and performance-based evaluation methods for wind-affected structures. His work increasingly emphasizes interdisciplinary collaboration—combining engineering, social science, and geospatial technologies—to develop comprehensive disaster response systems and improve building codes. Key trends include standardization of forensic engineering practices through organizations like StEER and application of computational modeling to predict structural failures. Dr. Roueche's significant recognitions include: Ginn Faculty Achievement Fellow designation NSF CAREER Award (2020) for advancing post-windstorm assessment methodologies He directs substantial research funding including a $500,000 USDA grant for timber-steel composite research and leads the Auburn Mass Timber Collaborative—an interdisciplinary initiative uniting forestry, architecture, and engineering faculty. Through the Structural Engineering Emergency Response (StEER) network, he coordinates Field Assessment Structural Teams for disasters like Hurricane Ian and the 2022 Arabi tornado, developing standardized protocols adopted nationally for post-disaster evaluations. His mentoring extends to doctoral students in civil engineering, with recent success in securing competitive fellowships for advisees. As a core member of StEER, Dr. Roueche develops and implements field assessment protocols used in rapid disaster response. He leads FAST teams deploying UAVs, LiDAR, and ground surveys to document structural performance after hurricanes and tornadoes, with datasets informing FEMA guidelines and building code revisions. His work with the Auburn Mass Timber Collaborative advances sustainable construction methods through experimental testing of innovative structural systems.
Prof. Dr. Antonis Chatzinotas is a leading figure in Microbial Interaction Ecology at the Helmholtz Centre for Environmental Research (UFZ) and holds a Professorship at the University of Leipzig since 2020. His research focuses on understanding microbial and viral interactions in terrestrial and aquatic ecosystems, particularly how environmental changes affect community composition, genetic landscapes, and biogeochemical cycles. Head of Microbial Interaction Ecology group at UFZ Professor at University of Leipzig Key research areas include: Microbial and viral diversity in pristine/aquifer systems Predatory interactions between protists/bacteria/viruses Applications in agroecosystems and environmental biotechnology Functional redundancy in microbial communities Impact of environmental variability on coexistence Recent publications highlight interdisciplinary approaches combining DNA stable isotope probing , metagenomics , and ecological modeling to study bioaugmentation, pesticide-microbe interactions, and viral transport mechanisms. His work bridges theoretical ecology with practical environmental solutions. Collaborations span institutions like EPFL, ETH Zurich, and University of Otago. Current projects explore low-risk biopesticides, virome-land use relationships, and microbial stability-vegetation links. The group actively supports open science principles and participates in transformative publishing agreements.
Steven Collins is a Professor of Practice in Civil Engineering at Aalto University , specializing in industrial wood construction. His work bridges scientific research and industry applications to enhance timber's role in sustainable structural engineering. Research Interests : Species-specific timber behavior (particularly birch), focusing on modeling, testing, and variance analysis. Non-destructive testing techniques like laser scattering, grain orientation analysis, and digital image correlation. Statistical and Bayesian approaches for probabilistic modeling of material properties and uncertainty quantification. Timber finger joint mechanics and wood processing techniques (e.g., densification, chemical treatment). Scientific Contributions : His recent publications (2022–2025) emphasize mechanical behavior of timber , predictive modeling , and innovative processing methods . Key trends include optimizing birch timber for structural applications, advancing Bayesian statistical models for wood mechanics, and improving non-destructive testing protocols using laser technologies and digital image correlation. Laboratory & Collaborations : Actively involved in experimental testing (destructive and non-destructive) and statistical analysis of wood properties. Collaborates with researchers like Gerhard Fink , Lauri Rautkari , and Farid Vafadar on timber mechanics and reliability studies. Part of the Structures – Structural Engineering, Mechanics and Computation research group at Aalto University.
Malgorzata Zboinska is an Associate Professor at Chalmers University of Technology within the Department of Architecture and Civil Engineering . She is a licensed architect and member of the Swedish Association of Architects and National Chamber of Architects of Poland . Hybrid architecture-technology-art research Focus on bio-based materials , digital fabrication , and creative robotics Development Leader of Chalmers' Robotic Fabrication Laboratory Editorial board member of TAD | Technology, Architecture + Design journal Research Themes bridge architecture , digital technology , and art , with expertise in: Sustainable and circular architectural practices 3D printing and robotic construction Material bioinnovation and upcycling Interactive and kinetic architectural solutions Her publications demonstrate strong output in digital fabrication , bio-material applications , and environmental architecture , with international exhibitions at Tempe Center for the Arts (USA) , Dutch Design Week (NL) , and Färgfabriken (Sweden) .
Yuxiang Chen is an Associate Professor in the Department of Civil and Environmental Engineering at the University of Alberta. His research focuses on high-performance buildings, net-zero energy systems, and sustainable construction practices. He integrates advanced modeling techniques, renewable energy solutions, and intelligent design strategies to optimize building performance in cold climates. PhD, Building Engineering (2013), Concordia University MASc, Building Engineering (2008), Concordia University BEng, Building Engineering (2006), Concordia University Dr. Chen’s work emphasizes modular construction, thermal energy storage, and data-driven modeling for building systems. He explores the use of robotics in construction, thermal resistance of masonry walls, and energy-efficient community greenhouses tailored for cold regions. His recent publications highlight trends in building thermal dynamics, with a focus on resistor-capacitor (RC) models, hybrid heating systems, and snow accumulation impacts on solar panels. He also contributes to cold-climate energy management and smart home integration.
Thomas Reynolds is a Senior Lecturer and Chancellor's Fellow in Civil Engineering at the University of Edinburgh School of Engineering. He holds an MEng in Engineering Science from Oxford (2005), PhD from Bath (2013), and PGCert in Teaching from Cambridge (2017). A Chartered Engineer and ICE member since 2010, his industry experience includes structural design for WYG and AKT on projects ranging from Swansea sea lock to Masdar Institute in Abu Dhabi. Research focuses on timber engineering innovation, structural health monitoring, and disaster-resilient construction. Current investigations include cyclone resilience of traditional housing in Madagascar, CLT connection robustness, and bicycle-based bridge monitoring techniques. Publications emphasize experimental mechanics of timber systems, climate impact modeling on structures, and sustainable construction technologies. Recent work explores novel materials applications and field measurement methodologies. He leads projects like 'Sustainable Improvement of Cyclone Resilience for Traditional Houses in Coastal Madagascar' (EPSRC) and 'EDACAB: Efficient Data Acquisition for Condition Assessment of Bridges'. Teaching covers structural mechanics, materials engineering, and design courses.
Mina Konaković Luković is an Assistant Professor in the Department of Electrical Engineering and Computer Science at Massachusetts Institute of Technology (MIT) , affiliated with the Computer Science and Artificial Intelligence Laboratory (CSAIL) . She leads the Algorithmic Design Group , focusing on computational design and fabrication, geometry processing, and robotics. Education: PhD in Computer Science (EPFL), MS & BS in Mathematics (University of Belgrade) Research Interests: Spanning computer graphics, computational fabrication, and 3D geometry processing with applications in smart materials, architectural geometry, and physics-based simulations. Her work integrates machine learning and differential geometry to optimize design algorithms for novel materials and deployable structures. Articles Trends: Recent publications emphasize multi-objective optimization for 3D printing materials, graph grammar in robot design, and computational methods for auxetic structures. Themes revolve around data-driven design, deployable shells, and terrain-adaptive robotics. Scientific Awards: Schmidt Science Fellows Additional Study Grant (2020) ACM SIGGRAPH Outstanding Doctoral Dissertation Honorable Mention (2020) Eurographics PhD Award (2020) Patrick Denantes Memorial Prize (2019) Doctoral Program Thesis Distinction from EDIC EPFL (2019) SIAM Early Career Prize (2020) Eurographics Junior Fellows (2021) Advising & Grants: Mentored by Prof. Dr. Wojciech Matusik and Prof. Dr. Mark Pauly, with funding from Swiss National Centre of Competence in Research (NCCR) Digital Fabrication. She actively participates in program committees and summer schools.
Dr. Yelda Turkan is an Associate Professor in the School of Civil and Construction Engineering at Oregon State University and a Hans Fischer Fellow at the Technical University of Munich (TUM-IAS). Her research focuses on leveraging computer vision, machine learning, and digital twins to enhance sustainability and resilience in the built environment. She holds a Ph.D. in Civil Engineering from the University of Waterloo, Canada, and dual B.Sc. degrees in Civil Engineering and Geomatics Engineering from Istanbul Technical University, alongside an M.Sc. in Remote Sensing. Her work integrates advanced technologies like LiDAR and BIM to improve construction monitoring, structural safety, and fire protection. She has authored over 80 peer-reviewed publications and secured $4.5M in grants from agencies like the NSF. Dr. Turkan serves as Vice President of the International Association for Automation and Robotics in Construction and chairs the ASCE Computing Division Executive Committee. Her research spans digital twins for infrastructure performance, fire safety simulations, and automated progress tracking. Key contributions include frameworks for bridge construction monitoring, fire safety management in timber structures, and BIM-based energy fault detection. Awards include the Robert C. Wilson Faculty Scholar (2023–2025) and ASCE ExCEEd Teaching Fellow (2015).
Nicholas Vlachopoulos is a Professor of Civil Engineering at the Royal Military College of Canada (RMC) with cross-appointments at Queen's University's Department of Geological Science and Geological Engineering and School of Environmental Studies. He holds a PhD (2009) from Queen's University and B/A.Sc/M.A.Sc degrees from RMC. His research focuses on geotechnical engineering, geomechanics, and environmental engineering, emphasizing physical testing, field observations, and analytical techniques to advance engineering practices. Key roles include Research Director of the GeoEngineering Centre, CEO of Geologos Inc., and Director of RMC's Green Team addressing environmental challenges in military facilities. Education: PhD in Geological/Geotechnical Engineering - Queen's University (2009) M.A.Sc in Civil Engineering - Royal Military College (1995) B.A.Sc in Civil Engineering - Royal Military College Research Interests: Geotechnical Engineering (rock mechanics, tunneling) Environmental remediation in defense facilities Structural health monitoring using fiber optics Rock bolt and ground support systems Military infrastructure resilience Professional Contributions: Founder of Geologos Inc., specializing in geotechnical solutions Recipient of DND Innovation Award for environmental solutions Teaching excellence awards (2018) Supervised award-winning graduate students (2017-2021) Lab/Team Leadership: RMC Green Team: Environmental engineering solutions for Canadian Forces bases GeoEngineering Centre: Interdisciplinary geotechnical research
Bunji Izumi is an Assistant Professor at the Department of Architecture and Technology, Faculty of Architecture and Design, NTNU, supported by the Scandinavia-Japan Sasakawa Lectureship. He holds a Dipl.-Ing., M.Sc., and B.Eng., and is a registered architect in Japan. His career includes roles at Nikken Sekkei Ltd. (Tokyo) as Senior Computational Designer and Associate in Structural Design, and at Driendl Architects in Vienna, Austria. His research focuses on structural engineering, timber-steel composite systems, fire safety, digital design, and sustainable architecture. Key areas include optimization methods in architectural design, circular timber structures, and interdisciplinary collaboration between architects and engineers. Publications highlight work on foldable canopies, fire-resistant composites, BIM integration, and structural education reforms. He contributes to exhibitions like IASS 2019 and collaborates on projects such as the Shogakukan Building and Vienna Indoor Swimming Pool. His educational background includes postgraduate studies at TU Vienna and the University of Tokyo, emphasizing structural design and timber engineering. Current research trends emphasize sustainability, circular design, and computational workflows.
Stefano Invernizzi is an Associate Professor at the Department of Structural, Geotechnical and Building Engineering (DISEG) of Politecnico di Torino. His expertise spans civil and structural engineering, focusing on fracture mechanics, finite element analysis, and numerical modeling of historical masonry and concrete structures. Teaches Statics and structural analysis courses at the Faculty of Architecture. Supervised numerous PhD and degree theses on masonry, concrete, and computational mechanics. Research emphasizes scale effects on material strength, fractal properties of structural materials, contact mechanics, and seismic vulnerability of historical buildings. He co-developed the sequentially linear saw-tooth softening model for robust analysis of reinforced concrete structures. Collaborated with Prof. Jan Rots on computational mechanics and contributed to projects like TOMORROW (additive manufacturing for building walls) and DURA_LAM (nano-materials for timber durability). His work aligns with SDGs 9 (Industry Innovation) and 11 (Sustainable Cities). He leads the Laboratorio di Meccanica della Frattura and has authored over 30 publications in journals like Engineering Fracture Mechanics and International Journal of Fracture . His research integrates statistical theories of strength with nonlinear numerical simulations for disordered materials.
