Dr. Michał Hajos | Materials Engineering | Best Researcher Award

Dr. Michał Hajos | Materials Engineering | Best Researcher Award

University of Agriculture in Krakow, Poland.

Michal Hajos is a skilled academic and researcher currently working at the University of Agriculture in Krakow, Poland. With a strong foundation in metallurgy and extensive experience in industrial research, Hajos has dedicated his career to exploring innovative solutions in material science, combustion processes, and plant-based material research. He has worked on numerous industrial and academic projects, contributing significantly to both the research and development sectors. His research interests include the study of combustion and drying processes and the exploration of green methods for nanoparticle production.

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Education 🎓

Dr. Michał Hajos holds a PhD in Metallurgy from AGH University in Krakow (2008–2014), with a dissertation on "Physicochemical parameters of the electrochemical process for the production of zinc oxide nanoparticles." He also earned a Master of Science in Metallurgy from the same institution (2002–2008), where his thesis focused on binders in molding sands. Additionally, he completed his Environmental Protection Technician qualification at Zespół Szkół Chemicznych in Krakow (1995–2000), researching the use of industrial waste as alternative fuels in the cement industry.

Work Experience 💼

Dr. Michał Hajos is currently an Assistant at the University of Agriculture in Krakow (2022–present), focusing on research and teaching in mechanical engineering and agrophysics, with expertise in material science and thermodynamics. He served as Head of Executive at CBR Rock Master (2021–2022), overseeing R&D, production planning, and product certification. Prior to that, he was a Laboratory Analyst (2019–2021) at the same company, specializing in designing and testing prototypes for height safety systems. Dr. Hajos also worked as a Process Engineer at NYCZ Intertrade (2016–2018), leading nickel recovery processes from galvanic waste. Earlier, he contributed as a Research Assistant and Lecturer at AGH University of Science and Technology (2012–2015), designing measurement stands and conducting research for shale gas extraction projects.

Research Interests 🔬

Dr. Michał Hajos focuses on the study of combustion and drying processes 🔥💧, aiming to optimize energy efficiency and material properties.

Physico-Chemical Properties of Plant-Based Materials 🌿

He investigates the physico-chemical properties of plant-based materials, exploring sustainable alternatives for various industrial applications.

Green Nanoparticle Production 🌱🔬

A significant aspect of his research is the development of green methods for nanoparticle production, striving to create eco-friendly technologies for the future.

Achievements 🏆

Third Degree Award in the "Technician 2000" competition (2000)
For his thesis on alternative fuels for the cement industry.

Patent in Nickel Recovery Process (2014)
Involved in the patenting process for the method of manufacturing molds and cores in smelting technologies.

Multiple Conference Contributions (2008–2013)
Organized and participated in various national and international conferences, contributing to both research dissemination and academic development.

Selected Publications 📚

Size Distribution of Zinc Oxide Nanoparticles Depending on the Temperature of Electrochemical Synthesis
Hajos, M., Starowicz, M., Brzychczyk, B., Basista, G., Francik, S.
Materials, 2025, 18(2), 458
Focus: This study investigates how the temperature during electrochemical synthesis affects the size distribution of zinc oxide nanoparticles.

Prediction of Brake Pad Wear of Trucks Transporting Oversize Loads Based on the Number of Drivers’ Braking and the Load Level of the Trucks—Multiple Regression Models
Basista, G., Hajos, M., Francik, S., Pedryc, N.
Applied Sciences (Switzerland), 2024, 14(13), 5408
Focus: This article uses multiple regression models to predict brake pad wear in trucks transporting oversize loads.

Citations: 1

Modeling the Drying Process of Onion Slices Using Artificial Neural Networks
Francik, S., Łapczyńska-Kordon, B., Hajos, M., Zawiślak, A., Francik, R.
Energies, 2024, 17(13), 3199
Focus: The study explores the application of artificial neural networks to model the drying process of onion slices.

Cohesion and Adhesion Properties of Modified Water Glass with Colloidal Solutions of ZnO
Smyksy, K., Kmita, A., Hutera, B., Hajos, M., Starowicz, M.
Metalurgija, 2014, 53(4), pp. 459–462
Focus: The article discusses the cohesion and adhesion properties of modified water glass combined with colloidal solutions of zinc oxide.

Citations: 5

Morphology and Structure of ZnO Nanoparticles Produced by Electrochemical Method
Stypuła, B., Kmita, A., Hajos, M.
Medziagotyra, 2014, 20(1), pp. 3–9
Focus: This paper examines the morphology and structure of zinc oxide nanoparticles produced through an electrochemical method.

 

 

Dr. Neng Tao | Fuel Combustion | Best Researcher Award

Dr. Neng Tao | Fuel Combustion | Best Researcher Award

Guangzhou Institute of Energy Conversion, Chinese Academy of Sciences, China.

Dr. Neng Tao is a distinguished researcher at the Guangzhou Institute of Energy Conversion, Chinese Academy of Sciences, specializing in molecular dynamics simulations, thermal decomposition mechanisms, and fire-extinguishing studies. She has a dual Ph.D. in Safety Science and Architecture and Civil Engineering, complemented by postdoctoral research in energy conversion technologies. Dr. Tao is committed to advancing sustainable solutions through her interdisciplinary expertise.

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Orcid

🎓 Education

Dr. Neng Tao holds an exceptional academic background with dual Ph.D. degrees and extensive research experience. She earned her Ph.D. in Architecture and Civil Engineering from the City University of Hong Kong (2018.09–2023.03), focusing on interdisciplinary studies bridging engineering and safety. Simultaneously, she pursued a Ph.D. in Safety Science and Engineering at the University of Science and Technology of China (2017.09–2022.11), emphasizing fire safety and thermal decomposition mechanisms. Her academic journey began with a Bachelor’s in Safety Engineering from the China University of Geosciences (Wuhan) (2017.09–2022.11), where she developed a strong foundation in safety engineering principles. Currently, she is engaged in postdoctoral research at the Guangzhou Institute of Energy Conversion, Chinese Academy of Sciences (2022.12–Present), advancing her expertise in energy conversion and sustainable safety solutions.

💼 Work Experience

Dr. Neng Tao is currently a Postdoctoral Researcher at the Guangzhou Institute of Energy Conversion, Chinese Academy of Sciences (2022.12–Present). Her work focuses on advanced energy conversion technologies and fire-extinguishing mechanisms, leveraging molecular dynamics simulations and density functional theory to develop sustainable and efficient solutions in fire safety and energy systems.

🔬 Research Interests

Molecular Dynamics Simulation Using ReaxFF-Based Methodologies

Dr. Neng Tao specializes in employing ReaxFF-based molecular dynamics simulations to explore complex chemical reactions and interactions at the atomic level, enhancing the understanding of material behavior under extreme conditions.

Thermal Decomposition and Pyrolysis Mechanisms

Her research delves into the thermal decomposition and pyrolysis processes of advanced materials, aiming to optimize their performance and safety profiles in energy and fire safety applications.

Fire-Extinguishing Studies with Low-Global-Warming-Potential Materials

Dr. Tao investigates innovative fire-extinguishing mechanisms using environmentally friendly agents, focusing on materials with low global warming potential to promote sustainable safety solutions.

Advanced Energy Conversion Technologies

Her work also extends to developing cutting-edge energy conversion technologies, addressing critical challenges in energy efficiency and environmental sustainability.

📚 Publications Top Notes

Tao Neng, et al. Thermal decomposition and fire-extinguishing mechanism of N(CF₂CF₃)₃ by ReaxFF-based molecular dynamics simulation and density functional theory calculation. International Journal of Quantum Chemistry, 2022, Link

Tao Neng, et al. Experimental and ReaxFF-based molecular dynamics studies of the reaction of oxygen with DR-2 as a low global warming potential working fluid. International Journal of Quantum Chemistry, 2021, Link

Tao Neng, et al. Experimental and Density Functional Theory Studies on 1,1,1,4,4,4-Hexafluoro-2-Butene Pyrolysis. Molecules, 2020, Link