Dr. Anatoly Nikolaevich Makarov | Heat Transfer Analysis | Distinguished Scientist Award

Dr. Anatoly Makarov | Heat Transfer Analysis | Distinguished Scientist Award

Dr. Anatoly Makarov | Tver State Technical University | Russia

Dr. Anatoly Nikolaevich Makarov is a Doctor of Engineering Sciences, Professor, and Honoured Worker of the Higher School of the Russian Federation. He has served as the Head of the Electric Power Supply and Electrical Engineering Department at Tver State Technical University since 1996. He is a leading specialist in power engineering and the author of a scientific discovery recognized with the P.L. Kapitsa Gold Medal “For Scientific Discovery.” His research output includes 65 documents, cited 59 times by 26 other works, with an h-index of 3. He has developed a pioneering theory of heat transfer in electric arc steelmaking furnaces and discovered the laws of thermal radiation from gas volumes of electric arcs and torches—achievements comparable to the classical laws of Stefan, Boltzmann, Wien, and Planck. Based on these discoveries, he formulated a multidisciplinary heat transfer calculation method applied to electric arc and torch furnaces, boiler fireboxes, and combustion chambers of gas turbine plants. His work, documented in monographs, textbooks, and numerous journal articles, is widely used in research and education, shaping advancements in power engineering, metallurgy, heat technology, and applied physics.

Profile: Scopus

Featured Publications

  • Makarov, A. N. (2025). Convective and conductive heat transfer in the bath under the arcs of high-power arc steel-melting furnaces: Part II. Distribution of isotherms over the surfaces of slag and metal in the EAF. Metallurgist.

  • Makarov, A. N. (2025). Heat transfer by convection and conduction in the bath beneath the arcs of high-power arc steel-melting furnaces: Part I. Laws of thermal radiation of gas volumes in arcs and flames and their use for calculating heat transfer in electric arc furnaces (EAF). Metallurgist.

  • Makarov, A. N. (2025). Calculation of thermal fluxes of arc radiation over the surface and depth of the bath of electric arc steelmaking furnaces. Conference Paper.

  • Makarov, A. N. (2024). Complex heat transfer in a bath under arcs of high-power arc steel-melting furnaces: Part III. Evaporation of metal under arcs and influence of the absorption coefficient of the furnace atmosphere on flow density. Metallurgist.

  • Makarov, A. N. (2024). Complex heat transfer in a bath under arcs of high-power arc steel-melting furnaces: Part II. Conversion of radiant arc flows into convection and heat conduction flows in the bath. Metallurgist.

  • Makarov, A. N. (2024). Complex heat transfer in a bath under arcs of high-power arc steel-melting furnaces: Part I. Laws of thermal radiation of gas volumes and their rationale for calculating heat transfer in EAFs. Metallurgist.

 

Prof. Dr. Francisco Vera Garcia| Heat Transfer Analysis | Thermal Sciences Award

Prof. Dr. Francisco Vera Garcia | Heat Transfer Analysis | Thermal Sciences Award

Prof. Dr. Francisco Vera Garcia | Polytechnic University of Cartagena | Spain

Prof. Dr. Francisco Vera Garcia, Full Professor at the Polytechnic University of Cartagena, is a highly accomplished researcher and educator in the field of thermal and fluid engineering. Born in Paris, France, and currently based in Cartagena, Spain, he leads multiple academic and research initiatives within the Department of Thermal and Fluid Engineering, making significant contributions to the study of heat transfer, thermohydraulic, and energy systems optimization. He is a member of the research group “Advanced Materials for Energy Production and Storage” and was previously part of the group “Modeling of Thermal and Energy Systems.” He has extensive experience in modeling transient processes, multiphase mixtures, and phase change phenomena, with applications that include energy system design, desalination, and sustainable thermal technologies. He has authored 48 publications that have been cited 1,236 times across 1,073 documents, demonstrating the wide recognition and impact of his work. With an h-index of 18 demonstrating sustained scholarly influence. His work exemplifies the combination of rigorous research and real-world problem-solving, establishing him as a leading expert in thermal and fluid system engineering.

Profile: Scopus | Google Scholar | Orcid

Featured Publications

  • Garcia-Cascales, J. R., Vera-Garcia, F., & Corberan-Salvador, J. M., et al. (2007). Assessment of boiling and condensation heat transfer correlations in the modeling of plate heat exchangers. International Journal of Refrigeration, 30(6), 1029–1041.

  • Mazon-Hernandez, R., Garcia-Cascales, J. R., Vera-Garcia, F., & Kaiser, A. S., et al. (2013). Improving the electrical parameters of a photovoltaic panel by means of an induced or forced air stream. International Journal of Photoenergy, 2013, Article 830968.

  • Rubio, J. A. P., Vera-Garcia, F., Grau, J. H., Camara, J. M., & Hernandez, D. A. (2018). Marine diesel engine failure simulator based on thermodynamic model. Applied Thermal Engineering, 144, 982–995.

  • Illan-Gomez, F., Lopez-Belchi, A., Garcia-Cascales, J. R., & Vera-Garcia, F. (2015). Experimental two-phase heat transfer coefficient and frictional pressure drop inside mini-channels during condensation with R1234yf and R134a. International Journal of Refrigeration, 51, 12–23.

  • Vera-Garcia, F., Garcia-Cascales, J. R., Gonzalvez-Macia, J., Cabello, R., et al. (2010). A simplified model for shell-and-tube heat exchangers: Practical application. Applied Thermal Engineering, 30(10), 1231–1241.

  • Garcia-Cascales, J. R., Vera-Garcia, F., Gonzalvez-Macia, J., et al. (2010). Compact heat exchangers modeling: Condensation. International Journal of Refrigeration, 33(1), 135–147.

  • Lopez-Belchi, A., Illan-Gomez, F., Vera-Garcia, F., & Garcia-Cascales, J. R. (2014). Experimental condensing two-phase frictional pressure drop inside mini-channels: Comparisons and new model development. International Journal of Heat and Mass Transfer, 75, 581–591.

Ms. Ekaterina Sadikova | Heat Transfer Analysis | Best Researcher Award

Ms. Ekaterina Sadikova | Heat Transfer Analysis | Best Researcher Award

Ms. Ekaterina Sadikova | Peter the Great St.Petersburg Polytechnic University | Russia

Ms. Ekaterina Sadikova is a postgraduate student at Peter the Great St. Petersburg Polytechnic University, specializing in Thermo physics and Theoretical Heat Engineering, and currently working as a Research Scientist at Aurora Chemicals LLC. She earned her Bachelor’s degree in Applied Mathematics and Physics and a Master’s degree with honors in 2023 from the same institution, where she also received recognition for her strong academic achievements. Her research interests lie at the intersection of computational modeling, thermophysical processes, and applied mathematics, with an emphasis on validating theoretical models through experimental methods. She has contributed to both fundamental and applied research, completing projects such as her Bachelor’s thesis on the propagation of laminar flames over combustible surfaces and her Master’s thesis on computational analysis of the temperature state of fuel assemblies in the spent fuel pool of the Beloyarskaya Nuclear Power Plant under beyond-design accident conditions. Her expertise has been applied to consultancy and industry projects with organizations such as Atom Energy Project and Aurora Chemicals LLC, where she is engaged in developing a laboratory-scale prototype for synthesizing hexafluoroethane. She was recognized with the Best Presentation Award at the Minsk International Heat and Mass Transfer Forum.

Profile: Google Scholar

Featured Publications

  • Sadikova, E. V. (2023). Computational analysis of the temperature state of fuel rods in the spent fuel pool of power unit No. 4 at the Beloyarsk Nuclear Power Plant under beyond-design basis accidents (Master’s thesis). Peter the Great St. Petersburg Polytechnic University.

  • Sadikova, E. V., & Snegiryov, A. Yu. (2022). Propagation of a laminar flame over the surface of a combustible material. Science Week, PhysMech, 291–293.