Mr. Jae Min Lee | Architectural Engineering | Best Researcher Award

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Mr. Jae Min Lee | Architectural Engineering | Best Researcher Award

Mr. Jae Min Lee | Ph.D student | Chungbuk National University | South Korea

Academic Background

Jae Min Lee has established a strong academic foundation in Architectural Engineering with a focus on concrete mechanics and computational modeling. His scholarly record reflects measurable research engagement, with Scopus indexing multiple scholarly outputs, Google Scholar citations indicating growing influence, and an h-index demonstrating early-career research impact. His academic journey combines experimental material science and data-driven modeling, positioning him at the intersection of civil engineering and artificial intelligence.

Research Focus

His research centers on predicting and characterizing the behavior of concrete through machine learning and data-informed techniques. He integrates artificial neural networks and physics-informed neural networks to study thermal, mechanical, and moisture-related characteristics in complex concrete systems.

Work Experience

He has contributed to academic research environments through active involvement in laboratory-based investigations and computational analysis. His role includes developing data-driven methodologies for understanding heterogeneous concrete behavior and bridging experimental findings with predictive modeling. He has also participated in collaborative research that links advanced simulations with material characterization, enhancing interdisciplinary insight into structural performance.

Key Contributions

His contributions significantly advance the understanding of thermal and mechanical behavior in large-scale concrete structures. By implementing inverse estimation approaches using neural network frameworks, he has improved the accuracy of predicting internal temperature rise and moisture diffusion in mass concrete. His work introduces efficient methods for quantifying behavioral parameters even when physical observations are limited or affected by noise, reducing experimental dependency. These developments support sustainable and intelligent engineering practices and promote cost-efficient evaluation of material properties through computational innovation.

Awards & Recognition

His academic achievements and growing research influence have led to nomination for the Best Researcher Award. His work has drawn attention for combining civil engineering principles with artificial intelligence to solve emerging challenges in structural materials research.

Professional Roles & Memberships

He is an active member of major technical organizations, including the Korea Concrete Institute and the Korea Institute for Structural Maintenance and Inspection. His involvement reflects commitment to professional development and knowledge dissemination within the concrete engineering community. He also participates in collaborative initiatives involving machine learning applications in material sciences, contributing to interdisciplinary research networks.

Publication Profile

Scopus

Featured Publications

Lee, J. M., & Lee, C. J. Inverse estimation of moisture diffusion model for concrete using artificial neural network.

Lee, J. M., Zhang, W., Lee, D., & Lee, C. Residual strength of concrete subjected to fatigue based on a machine learning technique.

Impact Statement / Vision

His long-term vision is to develop intelligent frameworks that enhance predictive accuracy and reduce experimental burden in concrete engineering. By combining deep learning, physics-based modeling, and structural material science, his work aspires to advance next-generation concrete technologies. He aims to contribute solutions that support sustainability, efficiency, and innovation in civil and structural engineering research.

Christa Reicher | Architecture | Outstanding Contribution Award

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Prof. Christa Reicher | Architecture | Outstanding Contribution Award

Professor | RWTH Aachen University | Germany

Prof. Christa Reicher is a distinguished architect and urban planner recognized internationally for her expertise in urban design, cultural heritage, and sustainable spatial development. As the holder of the UNESCO Chair for Cultural Heritage and Urbanism at RWTH Aachen University, she plays a leading role in bridging academia, practice, and policy-making. She has contributed to shaping urban development strategies in Germany and Europe through her leadership in research institutes, advisory boards, and policy initiatives. Her work reflects a consistent dedication to the integration of cultural heritage into contemporary planning, making her a leading figure in resilient and future-oriented urbanism.

Publication Profile

ORCID

Google Scholar

Education Background

Prof. Christa Reicher studied architecture and urban planning at RWTH Aachen University and ETH Zurich, two of Europe’s most prestigious institutions for architectural education. She earned her diploma with distinction from RWTH Aachen, which laid the foundation for her academic and professional career. Her education combined theoretical knowledge with practical exposure to international urban planning challenges. Early on, she demonstrated a strong interest in connecting urban design with cultural, historical, and social contexts. This academic foundation equipped her with the interdisciplinary perspective that characterizes her later work in sustainable planning, urban heritage conservation, and spatial development strategies.

Professional Experience

Prof. Christa Reicher has built an extensive professional career in academia, practice, and advisory roles, marked by leadership positions at top universities and governmental institutions. At RWTH Aachen, she directs the Institute for Urban Design and European Urbanism and has shaped interdisciplinary graduate programs. She has advised German cities such as Berlin, Düsseldorf, and Dortmund, as well as international urban development projects in Zurich, Vienna, and beyond. Her leadership extends to serving on high-level commissions, advisory boards, and expert panels, where she has influenced heritage management, high-rise developments, and post-industrial transformation strategies, including her pivotal role in the Rhenish Mining District transformation.

Awards and Honors

Prof. Christa Reicher has been honored with numerous prestigious appointments and memberships that recognize her contributions to urbanism and heritage. She holds the UNESCO Chair for Cultural Heritage and Urbanism at RWTH Aachen, underscoring her global recognition in these fields. She has been appointed to influential advisory boards by federal ministries and city governments, reflecting her expertise in both cultural heritage and sustainable planning. Her membership in renowned professional associations such as the German Academy for Urban and Regional Planning and the Association of German Architects also highlight her status as a thought leader and respected practitioner in architecture and planning.

Research Focus

Prof. Christa Reicher ’s research focuses on the intersections of cultural heritage, urban design, and sustainable development. She investigates how historic urban landscapes can inform future-oriented planning, contributing to resilience and identity in cities undergoing transformation. Her studies address pressing challenges such as structural change in post-mining regions, the integration of cultural values into planning, and adaptive strategies for urban sustainability. By combining theoretical frameworks with applied case studies, she advances interdisciplinary approaches to urbanism. Her research contributes to global discourses on heritage management, urban resilience, and the sustainable transformation of cities and regions in response to contemporary challenges.

Publications Notes

  • Spatial strategy process 2038+ in Rhenish Mining District and the consideration of the intangible cultural heritage
    Published Year: 2025
    Citation: Not yet cited

  • Towards a Fluid Planning Approach in Germany: An Option for Social Fragmentation?
    Published Year: 2025
    Citation: Not yet cited

  • Heritage Impact Assessment Index Within Urban Development Context: The Case of Masjed-e Jame of Isfahan in Iran
    Published Year: 2024
    Citation: 3

  • Building block of a resilient model region
    Published Year: 2024
    Citation: 1

  • Future Landscape – Perspectives and Conservation Approaches
    Published Year: 2024
    Citation: 1

Conclusion

Prof. Christa Reicher has established herself as a leading authority in urban design, cultural heritage, and sustainable development. Through her academic roles, advisory positions, and research contributions, she has significantly influenced policy-making, planning practices, and scholarly debates in Germany and internationally. Her ability to merge heritage preservation with innovative urban strategies sets her apart as a forward-thinking planner. Holding the UNESCO Chair at RWTH Aachen University, she continues to shape the discourse on cultural heritage and urban resilience. Prof. Reicher’s career embodies a balance of theory, practice, and policy, ensuring lasting impact on urban planning and design.

Kevin Moreno Gata | Architecture | Best Researcher Award

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Mr. Kevin Moreno Gata | Architecture | Best Researcher Award

Research Associate, RWTH Aachen University, Germany

Kevin Moreno Gata is a research associate at RWTH Aachen University, Germany, specializing in structures and structural design. He holds extensive experience in developing innovative and sustainable building systems, particularly using naturally grown timber as a basis for load-bearing structures. With a strong foundation in both theoretical and applied research, Kevin contributes significantly to the advancement of engineering in the context of sustainable architecture and materials. 🌱🏗️

Publication Profile

ORCID

Education:

Kevin earned his academic credentials in the field of structural engineering, focusing on sustainable materials and construction practices. His academic pursuits have been complemented by his hands-on involvement in advanced research projects, contributing to the design and structural analysis of timber-based constructions. 🎓🔧

Experience:

Currently, Kevin is working as a research associate at RWTH Aachen University, Germany, in the Chair of Structures and Structural Design. He is involved in various groundbreaking projects that explore innovative and sustainable ways of utilizing naturally grown timber in construction. His professional experience includes securing prestigious grants and collaborating with international research teams. 💼🌍

Research Interests:

Kevin’s research is primarily focused on the structural analysis, design, and simulation of naturally grown timber elements for use in load-bearing building structures. His interests include circular design in forest construction, the use of advanced computational methods for timber structures, and the development of new techniques for sustainable and environmentally friendly architecture. 🌳📐

Awards:

Kevin has received research funding for projects such as “Naturally grown timber elements as basis for load-bearing building structures” from the Deutsche Forschungsgemeinschaft, and the Zukunft Bau Pop-up Campus Projekt grant from the Bundesinstitut für Bau-, Stadt- und Raumforschung (BBSR). His innovative research continues to gain recognition and shape the future of sustainable building practices. 🏆🌍

Publications:

Function-Oriented Applicability Evaluation of Technical Folding Based on Expert Knowledge
Published: 2024-12-08
Journal: Applied Sciences
Read more here
Cited by: 5

Building with Naturally Grown Timber: Circular Design in Forest Construction – A Pedestrian Bridge Case Study
Published: 2024-08-26
Journal: Proceedings of the IASS 2024 Symposium Redefining the Art of Structural Design
Read more here
Cited by: 10

Geometrical Analysis of Naturally Grown Timber for the Design of Load-Bearing Structures
Published: 2024-06-30
Preprint: Read more here
Cited by: 3

Generalised Scaled Boundary Isogeometric Analysis–A Method for Structural Analysis of Naturally Shaped Timber Structures
Published: 2024
Journal: Wood Material Science and Engineering
Read more here
Cited by: 15