Marcin Kwapisz | Simulations | Research Excellence Award

Dr. Marcin Kwapisz | Simulations | Research Excellence Award

Senior Researcher | Czestochowa University of Technology | Poland 

Dr. Marcin Kwapisz is a materials engineering and nondestructive evaluation (NDE) researcher at the Częstochowa University of Technology, specializing in the mechanical behavior of materials under complex loading and in the development of advanced diagnostic technologies for industrial applications. With a portfolio of 30 publications, 74 citations, and an h-index of 5, he has contributed to strengthening scientific understanding of alternate pressing, multiaxial compression, and magnetic-based assessment techniques. His work places particular emphasis on Barkhausen Noise (BN) testing, where he has co-developed robotic and integrated measuring heads that improve the precision, repeatability, and automation of structural integrity evaluation in ferromagnetic materials. Collaborating with over 28 co-authors, Kwapisz engages in cross-disciplinary research bridging materials science, mechanical engineering, sensor technology, and automation, resulting in outputs that support enhanced quality control, reduced failure risk, and greater manufacturing efficiency. Collectively, his research advances modern inspection methodologies and contributes to safer, more reliable, and technologically progressive engineering practices worldwide.

Profiles: Scopus | ORCID | Google Scholar

Featured Publications

1. Knapiński, M., Dyja, H., Kawałek, A., Kwapisz, M., & Koczurkiewicz, B. (2013). Physical simulations of the controlled rolling process of plate X100 with accelerated cooling. Solid State Phenomena, 199, 484–489.
Cited by: 19

2. Dyja, H., Knapiński, M., Kwapisz, M., & Snopek, J. (2011). Physical simulation of controlled rolling and accelerated cooling for ultrafine-grained steel plates. Archives of Metallurgy and Materials, 56, 447–454.
Cited by: 10

3. Kawałek, A., Bajor, T., Kwapisz, M., Sawicki, S., & Borowski, J. (2021). Numerical modeling of the extrusion process of aluminum alloy 6XXX series section. Journal of Chemical Technology & Metallurgy, 56(2).
Cited by: 7

4. Dyja, H., Kwapisz, M., Laber, K., & Knapiński, M. (2011). Analysis of the effect of the tool shape on the stress and strain distribution in the alternate extrusion and multiaxial compression process. Archives of Metallurgy and Materials.
Cited by: 7

5. Rydz, D., Garstka, T., Koczurkiewicz, B., & Kwapisz, M. (2014). Walcowanie blach grubych ze stopu magnezu AZ31. Hutnik, Wiadomości Hutnicze, 81(5).
Cited by: 6

George Efthimiou | Computational Fluid Dynamics | Best Researcher Award

Dr. George Efthimiou | Computational Fluid Dynamics | Best Researcher Award

Senior Scientist | University of Western Macedonia | Greece

Dr. George C. Efthimiou, affiliated with the Chemical Process & Energy Resources Institute, Thessaloniki, Greece, is a distinguished researcher recognized for his extensive contributions to the fields of atmospheric dispersion modeling, environmental sustainability, and urban air quality analysis. Dr. Efthimiou has established a significant academic presence supported by 66 published documents and 899 citations, reflecting the wide impact and credibility of his scientific research. Holding an h-index of 17, his research demonstrates consistent scholarly influence through innovative modeling and applied environmental studies. His recent works, such as “An Empirical Theoretical Model for the Turbulent Diffusion Coefficient in Urban Atmospheric Dispersion” (Urban Science, 2025), “Predicting Extreme Atmospheric Conditions: An Empirical Approach to Maximum Pressure and Temperature” (Sustainability, 2025), and “Application of an Empirical Model to Improve Maximum Value Predictions in CFD-RANS: Insights from Four Scientific Domains” (Atmosphere, 2024), showcase his commitment to bridging empirical and computational approaches for enhanced environmental predictions. Additional studies, including “An Evaluation of the Sensitivity of a Source Term Estimation Methodology of Sensor Configuration in an Urban-like Environment” (Atmosphere, 2024) and conference papers on indoor depollution modeling and photocatalytic paint applications, highlight his multidisciplinary engagement in atmospheric chemistry, pollutant transport, and sustainable engineering solutions. Overall, Dr. Efthimiou’s prolific research record and strong citation profile reflect his enduring contributions to advancing urban environmental modeling, air pollution control technologies, and computational fluid dynamics (CFD) in environmental engineering.

Profiles: Scopus | ORCID | Google Scholar

Featured Publications

1. Hertwig, D., Efthimiou, G. C., Bartzis, J. G., & Leitl, B. (2012). CFD-RANS model validation of turbulent flow in a semi-idealized urban canopy. Journal of Wind Engineering and Industrial Aerodynamics, 111, 61–72.
Cited by: 121

2. De Sabatino, S., Buccolieri, R., Olesen, H. R., Ketzel, M., Berkowicz, R., Franke, J., … (2011). COST 732 in practice: The MUST model evaluation exercise. International Journal of Environment and Pollution, 44(1–4), 403–418.
Cited by: 102

3. Bartzis, J., Wolkoff, P., Stranger, M., Efthimiou, G., Tolis, E. I., Maes, F., … (2015). On organic emissions testing from indoor consumer products’ use. Journal of Hazardous Materials, 285, 37–45.
Cited by: 82

4. Tolias, I. C., Koutsourakis, N., Hertwig, D., Efthimiou, G. C., Venetsanos, A. G., … (2018). Large Eddy Simulation study on the structure of turbulent flow in a complex city. Journal of Wind Engineering and Industrial Aerodynamics, 177, 101–116.
Cited by: 70

5. Dimitroulopoulou, C., Trantallidi, M., Carrer, P., Efthimiou, G. C., & Bartzis, J. G. (2015). EPHECT II: Exposure assessment to household consumer products. Science of the Total Environment, 536, 890–902.
Cited by: 64

Dr. George C. Efthimiou’s research advances global environmental sustainability by enhancing predictive modeling of air quality and pollutant dispersion, enabling smarter urban planning and cleaner cities. His integration of empirical and computational methods drives innovation in environmental policy, industrial emission control, and climate-resilient urban development.