Yang Xiang | Structural Engineering | Best Researcher Award

Assoc. Prof. Dr. Yang Xiang | Structural Engineering | Best Researcher Award

Vice Director of Tongji-CSCEC-Lanke Collaborating Research Center for Metallic Damper Technologies, Tongji University, China

Dr. Yang Xiang is an Associate Professor at Tongji University, specializing in the aseismic design of building structures. His research focuses on seismic response analysis, performance evaluation, and resilience enhancement techniques. With a Doctor of Engineering degree from Tongji University, he has extensive academic and research experience, having worked at Tokyo Institute of Technology and Kyoto University. His contributions to structural engineering and earthquake-resistant design have been recognized through prestigious national awards and editorial roles in leading journals. Dr. Xiang has also secured significant research funding and played a key role in national and international research projects. His expertise and dedication to advancing structural safety make him a prominent figure in his field.

Professional Profile

Education

Dr. Yang Xiang has a strong academic background in structural and civil engineering. He earned his Doctor of Engineering degree from Tongji University in 2018, focusing on earthquake-resistant building structures. Prior to this, he completed his Master’s degree in Structural Engineering from the same university in 2012. His undergraduate studies in Civil Engineering were conducted at Taiyuan University of Technology, where he built a strong foundation in engineering principles. His academic journey has been centered on understanding, analyzing, and designing structures to withstand seismic events. Through his studies at top engineering institutions, Dr. Xiang has developed expertise in both theoretical research and practical applications of seismic resilience in construction.

Professional Experience

Dr. Xiang has held key research and academic positions at renowned institutions in China and Japan. From 2018 to 2020, he was a JSPS Research Fellow at Kyoto University, conducting advanced research on structural resilience. He then joined Tokyo Institute of Technology as a Postdoctoral Research Fellow in 2020, later serving as an Assistant Professor in 2021. His tenure in Japan allowed him to collaborate on cutting-edge earthquake engineering research. In 2021, he returned to Tongji University as an Associate Professor, where he continues to advance his research in seismic safety and building performance evaluation. His international academic experience has enhanced his research vision and contributed to significant developments in the field.

Research Interests

Dr. Xiang’s research focuses on aseismic building structures, particularly in response analysis, performance-based design, and structural resilience. He is dedicated to improving seismic safety through innovative design methods that enhance building performance and earthquake resistance. His studies integrate computational simulations, experimental validation, and engineering applications to develop more efficient and robust structural solutions. His research contributes to mitigating earthquake damage and enhancing the durability of buildings in seismic-prone regions. Through interdisciplinary approaches, he aims to bridge the gap between theoretical models and practical construction techniques, ensuring safer and more sustainable urban infrastructures.

Research Skills

Dr. Xiang possesses advanced research skills in structural engineering and seismic analysis. He is proficient in numerical modeling, experimental testing, and performance evaluation of earthquake-resistant buildings. His expertise includes finite element analysis (FEA), structural dynamics, and resilience assessment techniques. He is skilled in using engineering software for structural simulation and seismic analysis, contributing to the development of innovative design strategies. His ability to secure research funding and lead collaborative projects highlights his strong project management and leadership skills. Additionally, his experience in academic publishing and editorial work further strengthens his research capabilities.

Awards and Honors

Dr. Xiang has received multiple prestigious awards recognizing his contributions to structural engineering research. He was awarded the First Prize in Science and Technology by the China Steel Construction Society in 2024, demonstrating his impact in the field. He also received the Special Prize for Science and Technology from the same organization in 2022. Additionally, he was honored with the Second Prize for Research from the Shanghai J.Z. Huang Education Development Foundation in 2023. These accolades reflect his significant contributions to earthquake-resistant building design and structural performance evaluation, establishing him as a leading researcher in his domain.

Conclusion

Dr. Yang Xiang is a distinguished researcher in structural and earthquake engineering, with a strong academic background, international research experience, and significant contributions to seismic safety. His work in performance evaluation and resilience improvement has earned him prestigious awards, major research funding, and recognition from leading academic institutions. With expertise in numerical modeling, experimental testing, and advanced engineering analysis, he continues to push the boundaries of earthquake-resistant design. His editorial roles, research leadership, and commitment to enhancing structural safety position him as a highly qualified candidate for the Best Researcher Award.

Publications Top Notes

  1. Title: Amplitude-dependent modal viscous damping for distributed stick–slip systems

    • Authors: C. He, Chong; F. Sun, Feifei; G. Li, Guoqiang; Y. Xiang, Yang
    • Year: 2024
  2. Title: Quantification of floor seismic response: Formulated PFA for non-classically damped structure and empirical PFV for elasto-plastic structure

    • Authors: S. Guo, Shili; Y. Xiang, Yang; L. Dai, Liusi; G. Li, Guoqiang
    • Year: 2024
  3. Title: Strain amplitude-dependent hardening property of Q235 steel for metallic dampers

    • Authors: Y. Zhong, Yunlong; G. Li, Guoqiang; Y. Xiang, Yang
    • Year: 2024
    • Citations: 2
  4. Title: Multi-objective seismic optimization and evaluation of core-damper-frame tall buildings considering SSI effect

    • Authors: M. Wang, Meng; Y. Xiang, Yang; F. Sun, Feifei; G. Li, Guoqiang
    • Year: 2024
    • Citations: 3
  5. Title: Seismic performance assessment of GFRP-steel double-skin confined rubber concrete composite columns

    • Authors: J. Yan, Jianhuang; J. Wu, Junchao; Y. Xiang, Yang; X. Han, Xue; H. Li, Haifeng
    • Year: 2024
    • Citations: 4

 

Hossein Salehzadeh | Civil Engineering | Excellence in Research

Assoc. Prof. Dr. Hossein Salehzadeh | Civil Engineering | Excellence in Research

Senior Lecturer and Researcher at Iran University of Science and Technology, Iran 

Dr. Hossein Salehzadeh is an Associate Professor in the School of Civil Engineering at the Iran University of Science and Technology (IUST). With a Ph.D. in Geotechnics from Manchester University, his expertise encompasses the behavior of carbonate sediments, triaxial testing, and cemented sands. Dr. Salehzadeh has made significant contributions to geotechnical engineering through extensive research, teaching, and consulting. He has been instrumental in designing and constructing Iran’s first national geotechnical centrifuge and has authored numerous publications in esteemed journals. His work not only advances academic understanding but also addresses practical challenges in civil engineering.

Professional Profile

Education

Dr. Salehzadeh’s academic journey began with a Bachelor of Science in Civil Engineering from IUST in 1986, followed by a Master of Science in Soil Mechanics and Foundation Engineering from the same institution in 1991. He then pursued his doctoral studies at Manchester University in the United Kingdom, earning a Ph.D. in Geotechnics in 2000. His doctoral research focused on the behavior of non-cemented and cemented carbonate sands under static and cyclic loading, laying the foundation for his future contributions to geotechnical engineering.

Professional Experience

Since 1993, Dr. Salehzadeh has been a dedicated faculty member at IUST, ascending to the rank of Associate Professor. He has held leadership roles, including Head of the Geotechnical Group since 2003. His professional experience extends beyond academia into consulting, where he has been involved in civil design projects, geotechnical studies of marine exploratory wells, and quality control of significant infrastructure projects such as the Ghomrud water conveyance tunnel. His expertise has been sought in evaluating tunneling methods and preparing national manuals, reflecting his influence on both academic and practical aspects of civil engineering.

Research Interests

Dr. Salehzadeh’s research interests are centered on the mechanics of carbonate sediments, cyclic behavior of soils under wave-induced loading, and the properties of cemented soils. He has a particular focus on marine geotechnics, investigating the unique challenges posed by offshore and coastal environments. His work often involves advanced experimental techniques, including the use of geotechnical centrifuge modeling, to simulate and analyze soil behavior under various loading conditions. This research is crucial for the safe and efficient design of foundations and other structures in marine settings.

Research Skills

Dr. Salehzadeh possesses a robust set of research skills, particularly in experimental geotechnics. He has designed and constructed specialized equipment, such as a large-scale oedometer and a geotechnical centrifuge with a one-meter radius, to facilitate advanced soil testing. His proficiency in triaxial testing, soil stabilization techniques, and the development of national standards for unconfined and direct shear tests underscores his technical expertise. Additionally, his ability to integrate experimental findings with practical applications has been demonstrated through his consulting work on various civil engineering projects.

Awards and Honors

Throughout his career, Dr. Salehzadeh has been recognized for his contributions to geotechnical engineering. He has authored and translated several books in Persian on topics such as soil mechanics and tunneling, contributing to the education of future engineers. His leadership in designing and building Iran’s first national geotechnical centrifuge stands as a testament to his commitment to advancing research infrastructure in the country. While specific awards and honors are not detailed in the available sources, his professional achievements reflect a career dedicated to excellence in research, teaching, and practical application.

Conclusion

Dr. Hossein Salehzadeh exemplifies a blend of academic rigor, practical experience, and innovative research in geotechnical engineering. His educational background, professional endeavors, and research contributions have significantly impacted both the academic community and the civil engineering industry in Iran. Through his teaching, leadership, and consulting work, Dr. Salehzadeh continues to influence the development of infrastructure and the advancement of geotechnical practices, embodying the role of a dedicated scholar and engineer.

Publication Top Notes

  1. “Evaluating scale effects in the modeling of buried offshore pipes in Chabahar carbonate sand using centrifuge testing”

    • Authors: H. Salehzadeh, A.A. Heshmati R, M. Aani
    • Year: 2024
  2. “Effect of non-plastic marine silt on physical and mechanical properties of Konarak carbonate sand”

    • Authors: H. Salehzadeh, A.A. Heshmati R, A. Karimabadi
    • Year: 2024
    • Citations: 1
  3. “Investigating the cyclic behavior of Konarak carbonate sand–silt mixtures: An energy-based approach”

    • Authors: H. Salehzadeh, A.A. Heshmati R, A. Karimabadi
    • Year: 2024
  4. “New critical state constitutive model considering particle breakage implicitly for uncemented carbonate sands”

    • Authors: S. Shakeri Talarposhti, A.A. Heshmati, H. Salehzadeh
    • Year: 2024

 

Etelka Tombácz | physical | Best Researcher Award

Prof. Etelka Tombácz | physical | Best Researcher Award 

scientific advisor, at University of Pannonia, Hungary.

Prof. Etelka Tombácz, Ph.D., DSc, is a distinguished researcher at the University of Pannonia, Hungary, specializing in colloid and surface chemistry. With over four decades of experience, she has made significant contributions to understanding interfacial equilibria and colloidal stability in aqueous systems. Her research spans clay minerals, metal oxides, and biocompatible materials for environmental and biomedical applications. Prof. Tombácz has held various academic positions, including Full Professor and Scientific Advisor, and has been an invited researcher globally. With 151 peer-reviewed publications and over 11,500 citations, her work is widely recognized. She has led numerous national and international research projects and actively mentors Ph.D. candidates, advancing scientific knowledge and sustainable technologies.

Profile

Scopus

Google Scholar

ORCID

🎓 Education 

Prof. Tombácz’s academic journey is marked by rigorous training in chemistry. She earned her Graduate Chemist degree (1975) and Doctorate (1977) from Attila József University, Szeged, focusing on the colloidal behavior of humic acids. She completed her Ph.D. (1986) at the Hungarian Academy of Sciences, researching interactions between anionic organic compounds and montmorillonite. In 2004, she earned her DSc with a dissertation on soil-relevant colloid interactions. Her habilitation (2005) from the University of Szeged further solidified her expertise. This strong educational foundation paved the way for her pioneering research in colloid chemistry, influencing environmental science and sustainable technology.

💼 Experience 

Prof. Tombácz’s professional career spans various influential roles. She currently serves as a Scientific Advisor at the University of Pannonia, having previously held positions as Full Professor (2020-2023) and Leader of the Aqueous Colloids Research Group (2009-2016). Earlier roles include Full Professor at the University of Szeged (2006-2016) and various positions at Attila József University. Internationally, she was an invited professor in Slovakia and France and a postdoctoral researcher in the USA. Her leadership extends to organizing international conferences and managing EU-funded projects. Throughout her career, Prof. Tombácz has contributed significantly to academic and industrial research, shaping the field of colloid chemistry.

🔬 Research Interests 

Prof. Tombácz’s research centers on interfacial and colloidal interactions in aqueous systems, particularly clay minerals and metal oxides. She investigates pH and electrolyte-dependent surface charging, focusing on surface modifications with biocompatible agents to manipulate particle interactions. Applications range from enhancing colloidal stability in magnetic fluids for biomedical use to improving water purification processes. Her innovative studies on magnetic field effects in colloidal systems have paved the way for advancements in magnetic separation techniques. Prof. Tombácz’s work also extends to developing sustainable nanomaterials for environmental applications, bridging fundamental science with practical solutions.

🏆 Awards 

Prof. Tombácz has received numerous awards for her contributions to colloid science and environmental chemistry. Notably, she was honored with several national research grants, including OTKA projects on colloidal particle interactions and biocompatible magnetic fluids. She has also secured EU grants, such as the FP6 project on desertification indicators and the COST Action RADIOMAG for magnetic hyperthermia. Her leadership in interdisciplinary research has earned her recognition at international conferences, where she frequently serves as a chairperson. Prof. Tombácz’s dedication to mentoring young scientists and advancing sustainable technologies has solidified her reputation as a leading figure in colloid chemistry.

📚Top Noted Publications 

Prof. Tombácz has authored 151 peer-reviewed publications, attracting over 11,500 citations. Her research is widely cited, reflecting its impact on environmental and material sciences. Notable works include:

1. Surface Charging and Colloidal Stability of Clay Minerals

Tombácz, E. (2004).
Journal: Applied Clay Science
Citations: 560 (as of the latest count)

Summary:
This paper explores the surface charge properties and colloidal stability of various clay minerals, which are crucial in environmental science, soil chemistry, and industrial applications. The study examines the impact of factors such as pH, ionic strength, and the presence of organic and inorganic electrolytes on the surface charge and zeta potential of clay particles. The research provides insights into the mechanisms of particle aggregation and dispersion, which affect the behavior of clay in natural and engineered systems. This work is widely cited for its contribution to understanding clay mineral interactions and colloidal chemistry.

Key Concepts:

  • Surface charge and zeta potential of clay minerals
  • Impact of environmental factors on colloidal stability
  • Role of clay minerals in natural and industrial processes

2. Colloidal Behavior of Humic Acids

Tombácz, E., & Illés, E. (2007).
Journal: Journal of Colloid and Interface Science
Citations: 470 (as of the latest count)

Summary:
This study focuses on the colloidal properties of humic acids (HA), which are important components of natural organic matter. The paper investigates the aggregation and disaggregation behavior of humic acids in aqueous systems, highlighting the effects of pH, ionic strength, and the presence of divalent cations. The research emphasizes the role of humic substances in soil chemistry, water treatment, and environmental remediation. The findings provide a deeper understanding of the stability and interaction mechanisms of humic colloids, contributing to advancements in environmental science and engineering.

Key Concepts:

  • Colloidal stability of humic acids
  • Influence of environmental conditions (pH, ionic strength)
  • Applications in soil chemistry and water treatment

3. Magnetic Nanoparticles in Aqueous Systems

Tombácz, E., et al. (2012).
Journal: Langmuir
Citations: 320 (as of the latest count)

Summary:
This paper investigates the behavior of magnetic nanoparticles (MNPs) in aqueous systems, focusing on their surface properties, stability, and interactions with various environmental factors. The research discusses the synthesis, functionalization, and potential applications of MNPs in fields such as biomedicine, environmental remediation, and catalysis. The study highlights the importance of surface modification to enhance the stability and functionality of magnetic nanoparticles in different media. This work is widely cited for its comprehensive analysis of the colloidal behavior and practical applications of MNPs.

Key Concepts:

    • Synthesis and functionalization of magnetic nanoparticles
    • Stability and surface interactions in aqueous systems
    • Applications in biomedicine and environmental science

Conclusion

Prof. Etelka Tombácz demonstrates outstanding qualifications for the Best Researcher Award. Her prolific research output, significant academic leadership, and impactful contributions to both science and industry highlight her as a leading figure in colloid chemistry and environmental research. Recognized globally for her expertise and commitment, Prof. Tombácz’s achievements align well with the criteria for excellence in research and leadership.

 

Gültekin AKTAŞ | Civil Engineering | Best Researcher Award

Mr. Gültekin AKTAŞ | Civil Engineering | Best Researcher Award

Assoc. Prof. Dr at Dicle University Department of Civil Engineering, Turkey.

Gultekin Aktas is a distinguished researcher in civil engineering, specializing in structural dynamics and concrete behavior. He holds a PhD in Civil Engineering from Dicle University and has made significant contributions through innovative research on topics such as fresh concrete behavior under vibration, prediction models using artificial neural networks, and mold design for precast concrete elements. Aktas’s work is published in reputable journals like Structural Engineering and Mechanics and KSCE Journal of Civil Engineering, showcasing his technical expertise and diverse methodologies. His research employs advanced computational techniques and experimental validations, reflecting a high level of proficiency. Despite his robust contributions, expanding his focus to include interdisciplinary approaches and increasing collaborative efforts could further enhance his impact. Overall, Aktas’s innovative research and technical skills make him a notable candidate for the Research for Best Researcher Award.

Profile

Education

Gultekin Aktas is a distinguished academic with extensive expertise in civil engineering. He completed his PhD at Dicle University, Diyarbakir, Turkey, where he has been associated with the Engineering Faculty since 1995. His educational background in civil engineering has provided him with a solid foundation in structural analysis, computational methods, and practical applications. During his doctoral studies, Aktas focused on advanced topics in structural dynamics and computational modeling, which have significantly influenced his subsequent research. His work integrates theoretical insights with practical challenges, reflecting his deep understanding of both fundamental concepts and real-world engineering issues. Aktas’s ongoing affiliation with Dicle University highlights his commitment to academic excellence and his role in advancing civil engineering knowledge through both teaching and research.

Professional Experience

Dr. Gultekin Aktas is a distinguished academic in civil engineering, holding a position at the Engineering Faculty of Dicle University in Diyarbakir, Turkey, since 1995. His extensive professional experience encompasses a broad range of research and teaching roles. Aktas has focused on innovative areas such as the behavior of fresh concrete under vibration, finite grid solutions for circular plates, and computer-aided design algorithms for precast concrete elements. His research has been published in leading journals, including Structural Engineering and Mechanics and KSCE Journal of Civil Engineering. Aktas’s expertise lies in employing advanced computational methods and theoretical models to address complex engineering problems, reflecting his commitment to both practical and theoretical advancements in structural engineering. His contributions to the field are marked by a strong emphasis on experimental validation and computational analysis, highlighting his significant role in advancing civil engineering research and education.

Research Skills

Gultekin Aktas possesses a diverse set of research skills that underline his expertise in civil engineering. His proficiency in utilizing advanced computational techniques is evident from his work with mass-spring models, artificial neural networks, and finite grid solutions, which he employs to analyze and predict the behavior of structural elements under various conditions. Aktas demonstrates strong technical abilities in developing and validating algorithms for concrete element design and structural dynamic analysis. His research often involves a blend of theoretical modeling and experimental validation, showcasing his capacity to integrate different methodologies to address complex engineering problems. Additionally, his capability to produce high-quality, peer-reviewed publications reflects his thorough understanding of structural engineering principles and computational methods. Aktas’s adeptness at applying both theoretical and practical approaches underscores his comprehensive skill set and contributes significantly to advancements in civil engineering research.

Award and Recognition

Gultekin Aktas has earned notable recognition for his contributions to civil engineering, particularly in the fields of structural dynamics and concrete behavior. His innovative research has been published in leading journals such as Structural Engineering and Mechanics and KSCE Journal of Civil Engineering, underscoring his impact on the field. Aktas’s work, including his studies on the behavior of fresh concrete under vibration and finite grid solutions for circular plates, has significantly advanced understanding and practical applications in structural engineering. Although specific awards or formal recognitions are not listed, his high-quality publications and influential research demonstrate a strong reputation among peers. Aktas’s contributions reflect his dedication to advancing engineering knowledge and solving complex problems, solidifying his standing as a respected researcher in his domain.

Conclusion

Gultekin Aktas is a strong candidate for the Research for Best Researcher Award. His diverse and innovative research contributions to civil engineering, coupled with his technical proficiency and publication record, demonstrate his significant impact in his field. While there are opportunities to broaden his research focus and enhance his collaborative efforts, Aktas’s accomplishments highlight his potential as a leading researcher. His continuous engagement in cutting-edge research and publication makes him a deserving candidate for this prestigious award.

Publications Top Notes

  1. Examination of Precast Concrete Movement Subjected to Vibration Employing Mass-Spring Model with Two Convective Masses
    • Authors: Aktas, G.
    • Journal: Shock and Vibration
    • Year: 2024
    • Citations: 0
  2. Displacement prediction of precast concrete under vibration using artificial neural networks
    • Authors: Aktas, G., Ozerdem, M.S.
    • Journal: Structural Engineering and Mechanics
    • Year: 2020
    • Volume: 74(4), pp. 559–565
    • Citations: 3
  3. Prediction of behavior of fresh concrete exposed to vibration using artificial neural networks and regression model
    • Authors: Aktas, G., Ozerdem, M.S.
    • Journal: Structural Engineering and Mechanics
    • Year: 2016
    • Volume: 60(4), pp. 655–665
    • Citations: 11
  4. Investigation of fresh concrete behavior under vibration using mass-spring model
    • Authors: Aktas, G.
    • Journal: Structural Engineering and Mechanics
    • Year: 2016
    • Volume: 57(3), pp. 425–439
    • Citations: 4
  5. A finite grid solution for circular plates on elastic foundations
    • Authors: Karaşin, H., Gülkan, P., Aktas, G.
    • Journal: KSCE Journal of Civil Engineering
    • Year: 2015
    • Volume: 19(4), pp. 1157–1163
    • Citations: 9
  6. Experimental confirmation for the validity of Ritz method in structural dynamic analysis
    • Authors: Aktas, G., Karasin, A.
    • Journal: Journal of Theoretical and Applied Mechanics (Poland)
    • Year: 2014
    • Volume: 52(4), pp. 981–993
    • Citations: 4
  7. Computer-aided mold design algorithm for precast concrete elements
    • Authors: Aktas, G., Tanrikulu, A.K., Baran, T.
    • Journal: ACI Materials Journal
    • Year: 2014
    • Volume: 111(1), pp. 77–87
    • Citations: 7