ARACELI ESPINOZA VAZQUEZ | Materials Science | Best Researcher Award

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Dr. ARACELI ESPINOZA VAZQUEZ | Materials Science | Best Researcher Award

research at Universidad Veracruzana- Instituto de Ingenierían, Mexico

Dra. Araceli Espinoza Vázquez is a distinguished researcher specializing in materials science, corrosion inhibition, and electrochemical analysis. With a strong background in academia and research, she has contributed significantly to understanding corrosion mechanisms and developing innovative protective coatings. Her work has applications in industrial sectors such as petroleum and in the preservation of historically significant metals like bronze and silver. As a professor and researcher, she has mentored students in various engineering and chemistry disciplines, helping shape the next generation of scientists. She has held numerous teaching and research positions at prestigious institutions, including Universidad Nacional Autónoma de México (UNAM) and Universidad Veracruzana. Dra. Espinoza has also participated in multiple postdoctoral fellowships, furthering her expertise in electrochemical techniques and sustainable corrosion inhibitors. Her dedication to advancing materials science through both fundamental and applied research has earned her recognition within the academic and scientific communities, making her a leader in her field.

Professional Profile

Education

Dra. Espinoza Vázquez earned her Ph.D. in Materials Science and Engineering from the Universidad Autónoma Metropolitana-Azcapotzalco (UAM) in 2013, where she focused on the electrochemical characterization of corrosion inhibitors. Prior to this, she completed a Master’s degree in the same discipline at UAM in 2011, conducting extensive research on chemical interactions at metal surfaces. She obtained her Bachelor’s degree in Chemical Engineering from UAM in 2008, laying a strong foundation in material properties and industrial applications. Throughout her academic journey, she has specialized in electrochemical techniques such as impedance spectroscopy and polarization curves, which are crucial for evaluating corrosion resistance. Her education also includes international research experiences, including academic stays at Universidad Rovira & Virgili in Spain, where she explored organic corrosion inhibitors for steel protection. This diverse educational background has equipped her with the expertise to lead research projects in both academic and industrial settings.

Professional Experience

Dra. Espinoza Vázquez has an extensive academic and research career, with experience spanning over a decade. She is currently a faculty member at the Institute of Engineering at Universidad Veracruzana, where she teaches and conducts research on materials protection. Previously, she served as a professor at UNAM’s Faculty of Chemistry, instructing courses in metallurgy and electrochemical processing. Her experience also includes postdoctoral research at UNAM and the Institute of Materials Research, where she worked on corrosion inhibitors for hydrocarbons and cultural heritage preservation. She has collaborated with various universities and research centers, contributing to projects on nanostructured coatings and sustainable corrosion prevention methods. In addition to her academic roles, she has been actively involved in mentoring students at both undergraduate and postgraduate levels, fostering new talent in materials science. Her multidisciplinary experience reflects her commitment to bridging theoretical research with practical applications in engineering and industry.

Research Interests

Dra. Espinoza’s research primarily focuses on corrosion science, electrochemical techniques, and materials protection. She specializes in studying the mechanisms of corrosion and developing inhibitors from natural and synthetic compounds. A major aspect of her work involves applying electrochemical impedance spectroscopy (EIS) and polarization curves to evaluate metal degradation in aggressive environments. Her research extends to protective coatings for metals of historical and artistic value, such as bronze and silver, aiming to preserve cultural heritage artifacts. In recent years, she has explored biomedical applications of magnesium alloys, investigating corrosion-resistant materials for medical implants. Additionally, she has worked on developing mesoporous materials impregnated with corrosion inhibitors, advancing sustainable and eco-friendly protective technologies. Her interdisciplinary research spans industrial applications, environmental sustainability, and materials conservation, positioning her as a key contributor to the field of materials science and electrochemistry.

Awards and Honors

Dra. Espinoza has been recognized for her contributions to materials science and corrosion research through various prestigious honors. She has held the National Researcher Level I (SNI-I) distinction from Mexico’s National System of Researchers (CONACYT) since 2015, a testament to her impactful scientific work. She has also been awarded multiple postdoctoral research fellowships, including support from DGAPA-UNAM and CONACYT, for projects on corrosion inhibitors for industrial and cultural applications. Her publications in renowned journals and international conferences have further established her reputation as a leading researcher. She has also been an invited speaker at national and international symposiums, sharing insights on electrochemical protection strategies. Through her dedication to advancing knowledge in corrosion science and engineering, she continues to earn recognition within the scientific community. Her achievements highlight her significant role in academia and research, making her a strong candidate for awards celebrating excellence in scientific contributions.

Conclusion

Dra. Espinoza Vázquez is a highly qualified and accomplished researcher in materials science, particularly in corrosion studies. Her research spans academia, industry, and cultural heritage, demonstrating a well-rounded impact. While she is a strong candidate for the Best Researcher Award, further publications in high-impact journals and leadership in major projects could elevate her candidacy even further.

Publications Top Noted

  • Corrosion inhibition performance of expired dicloxacillin for X65 steel in 1 M HCl

    • Authors: Ramírez-Cano, J.A., Espinoza-Vázquez, A., Campos-Anaya, K.R., Galván-Martínez, R., Orozco-Cruz, R.
    • Year: 2025
    • Journal: Materials Letters
    • Citations: 0

  • Effect of the Use of Some Rare Earth Compounds as Corrosion Inhibitors for API 5L X70 Steel in Saline Medium

    • Authors: Hernández García, S., Espinoza-Vázquez, A., Palacios, L.N., Castro, M., Orozco-Cruz, R.
    • Year: 2025
    • Journal: Metals
    • Citations: 0

  • Application of electrochemical noise in the study of an epoxy coating with hematite nanoparticles

    • Authors: Ramírez-Fernández, J.A., Orozco-Cruz, R., Espinoza-Vázquez, A., Carmona-Hernández, A., Galván-Martínez, R.
    • Year: Not specified
    • Journal: Not specified
    • Citations: 0

  • Electrochemical and theoretical evaluation of loratadine as corrosion inhibitor for X65 steel in 1M HCl aqueous solution

    • Authors: Ramírez-Cano, J.A., Espinoza-Vázquez, A., Miralrio, A., Castro, M., Orozco-Cruz, R.
    • Year: 2024
    • Journal: International Journal of Electrochemical Science
    • Citations: 1

  • EIS study of Mimosa tenuiflora nanocontainers in a defective epoxy resin for the protection of low-carbon steel in a saline media

    • Authors: Méndez-Figueroa, H.G., Soria-Castro, M., Quintana-Owen, P., Galván-Martínez, R., Orozco-Cruz, R.
    • Year: Not specified
    • Journal: Not specified
    • Citations: 0

  • Electrochemical characterization of ZnO/Mt@Fe-TA nanocontainers tested as corrosion inhibitor for metallic structures in a 3.5% NaCl medium

    • Authors: Zambrano, P.N.T., Méndez-Figueroa, H.G., Espinoza-Vázquez, A., Martinez, R.G., Orozco-Cruz, R.
    • Year: Not specified
    • Journal: Not specified
    • Citations: 1

 

Yuriy Chumlyakov | Materials Science | Best Researcher Award

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Prof. Yuriy Chumlyakov | Materials Science | Best Researcher Award

head of laboratory at Tomsk State University, Russia

Yuriy Ivanovich Chumlyakov is a prominent Russian scientist renowned for his groundbreaking contributions to materials science and solid-state physics. Currently, he is the head of the Laboratory of Physics of Strength and Plasticity at the Siberian Physical-Technical Institute, Tomsk State University, and also a professor at Tomsk State University. Over his distinguished career, Chumlyakov has gained international recognition for his pioneering research on high-strength single crystals, including studies on mechanical twinning, thermoelastic martensitic transformations, and shape memory alloys. His work has not only enriched theoretical physics but also influenced practical applications in material engineering, particularly in areas like superelasticity and plastic deformation. Throughout his career, he has collaborated with leading research institutions globally and played a key role in advancing the scientific understanding of materials’ behavior under stress and transformation. His academic and professional pursuits have made him a leading figure in his field, contributing extensively to both research and teaching.

Professional Profile

Education

Yuriy Chumlyakov’s academic journey is marked by an unwavering commitment to advancing knowledge in solid-state physics. He completed his undergraduate degree at Tomsk State University, where he earned a diploma in physics in 1970. Building upon this foundation, he pursued graduate studies at the same institution, earning his Ph.D. in solid-state physics in 1980. His expertise in the field was further solidified when he obtained the prestigious Doctor of Science degree in 1989 from the Institute of Strength Physics and Materials Science, Russian Academy of Sciences, Tomsk. Chumlyakov’s education provided him with the deep theoretical understanding and practical research skills necessary for his long-term contributions to the study of material properties, including those related to crystal structures, plasticity, and shape memory alloys. His academic background has played an essential role in shaping his successful career as a researcher and educator, allowing him to mentor future generations of scientists.

Professional Experience

Yuriy Ivanovich Chumlyakov’s professional career spans several decades, with significant contributions to both academic research and the advancement of materials science. Since 1989, he has served as the head of the Laboratory of Physics of Strength and Plasticity at the Siberian Physical-Technical Institute, where he has overseen numerous research projects focused on the behavior of high-strength single crystals under various stress conditions. Additionally, since 1993, Chumlyakov has been a professor at Tomsk State University, educating students in solid-state physics and materials science. His career also includes a long tenure as a senior research worker at the same institute, where he initially gained prominence. Throughout his career, Chumlyakov has been involved in numerous international collaborations, contributing to the global scientific community. His leadership and extensive experience in experimental and theoretical physics have positioned him as a key figure in the study of materials’ mechanical properties and transformations.

Research Interests

Yuriy Chumlyakov’s research interests lie at the intersection of solid-state physics, materials science, and applied physics. His primary focus is on the behavior of single crystals, particularly in the context of mechanical twinning, plastic deformation, and fracture mechanisms. He has extensively studied thermoelastic martensitic transformations in homogeneous and non-homogeneous crystals, including materials like NiTi, FeNiCoAl, and TiNiFe. Chumlyakov’s work on shape memory alloys and superelasticity has contributed to advancing the understanding of materials that undergo reversible transformations when subjected to external stimuli, such as temperature or stress. His expertise also extends to the dislocation structures in crystals and the plastic deformation of single crystals, which are vital for applications in aerospace, automotive, and medical fields. The practical implications of his work are vast, especially in the development of advanced materials for engineering solutions, including applications in structural health monitoring and high-performance materials.

Awards and Honors

Yuriy Ivanovich Chumlyakov’s exemplary contributions to materials science have earned him numerous prestigious awards and honors over the years. He has been a recipient of multiple grants from the Russian Foundation for Basic Research and the Russian Ministry of Education, underscoring the significance of his research in advancing the field. Chumlyakov’s work has been widely recognized internationally, with honors including a fellowship from the Japan Society for the Promotion of Science (JSPS) and the prestigious George Miller Professorship at the University of Illinois. He has served on the editorial boards of leading journals such as the Journal of Physics of Metals and Metallography and as a guest editor for special issues on shape memory alloys in the ASME Journal of Engineering and Technology. Furthermore, his contributions to the scientific community have been acknowledged through his appointment as a permanent jury member of PhD and Doctor of Science councils at Tomsk State University. These honors reflect his standing as a leading researcher in his field.

Conclusion

Yuriy Ivanovich Chumlyakov is a highly deserving candidate for the Best Researcher Award. His long history of groundbreaking research, leadership in academia, global recognition, and extensive contributions to the fields of solid-state physics and materials science make him a standout figure in his discipline. His work on shape memory alloys and thermomechanical transformations is crucial in advancing both theoretical and practical aspects of materials science, particularly for engineering applications. Expanding his outreach and engaging with newer interdisciplinary fields would only further enhance the impact of his already impressive career.

Publications Top Noted

  • High-temperature thermoelastic martensitic transformations in Ni44Fe19Ga27Co10 single crystals
    • Authors: Timofeeva, E.E., Panchenko, E.Y., Zherdeva, M.V., Volochaev, M.N., Chumlyakov, Y.I.
    • Year: 2025
    • Journal: Materials Letters
    • Citations: 0
  • Effect of carbon on the shape memory effect of [1¯44]−Oriented Cr20Fe20Mn20Co35Ni4.9C0.1 high-entropy alloy single crystals under tension
    • Authors: Kireeva, I.V., Chumlyakov, Y.I., Pobedennaya, Z.V., Vyrodova, A.V.
    • Year: 2024
    • Journal: Materials Letters
    • Citations: 0
  • Cyclic stability of the elastocaloric effect in heterophase [001]-oriented TiNi single crystals
    • Authors: Surikov, N.Y., Panchenko, E., Chumlyakov, Y.I., Marchenko, E.
    • Year: 2024
    • Journal: Applied Physics Letters
    • Citations: 0
  • Influence of the number of particle variants on the cyclic stability of superelasticity in Ti-51.5at.%Ni single crystals
    • Authors: Timofeeva, E.E., Zherdeva, M.V., Tagiltsev, A.I., Panchenko, E.Y., Chumlyakov, Y.I.
    • Year: 2024
    • Journal: Materials Letters
    • Citations: 1
  • Thermal and Cyclic Stability of Two-Way Shape Memory Effect in Ni44Fe19Ga27Co10 Single Crystals
    • Authors: Timofeeva, E.E., Dmitrienko, M.S., Panchenko, E.Y., Fatkullin, I.D., Chumlyakov, Y.I.
    • Year: 2024
    • Journal: Russian Physics Journal
    • Citations: 0
  • Microstructure and Thermoelastic Martensitic Transformation in Ni-Low and -Rich Ni–Ti–Hf–Nb High-temperature Shape Memory Alloys
    • Authors: Eftifeeva, A.S., Timofeeva, E.E., Panchenko, E.Y., Yanushonyte, E.I., Chumlyakov, Y.I.
    • Year: 2024
    • Journal: Russian Physics Journal
    • Citations: 0
  • Orientation Dependence of Cyclic Stability of Superelasticity of Ti50.2Ni49.8 Alloy Single Crystals under Compression
    • Authors: Kireeva, I.V., Chumlyakov, Y.I., Vyrodova, A.V., Pobedennaya, Z.V., Marchenko, E.S.
    • Year: 2024
    • Journal: Physics of Metals and Metallography
    • Citations: 0
  • Influence of Heat Treatments on Martensitic Transformations and Elastocaloric Effect in Two-Phase (β + γ) NiFeGa Alloys
    • Authors: Kurlevskaya, I.D., Panchenko, E.Y., Tokhmetova, A.B., Timofeeva, E.E., Chumlyakov, Y.I.
    • Year: 2024
    • Journal: Physical Mesomechanics
    • Citations: 1
  • Superelasticity of [0 0 1]-oriented Fe–Mn–Al–Cr–Ni crystals with a negative temperature dependence of transformation stresses
    • Authors: Chumlyakov, Y.I., Kireeva, I.V., Pobedennaya, Z.V., Kuksgauzen, I.V., Kuksgauzen, D.A.
    • Year: 2024
    • Journal: Materials Letters
    • Citations: 0
  • Formation of texture and twinning at 296 K of “Artificial” polycrystals of an equiatomic Co20Cr20Fe20Ni20Mn20 High-entropy alloy
    • Authors: Kireeva, I.V., Chumlyakov, Y.I., Kuksgauzen, I.V., Kuksgauzen, D.A.
    • Year: 2024
    • Journal: Materials Letters
    • Citations: 0

 

Wenjing Yang | Materials Science and Engineering | Best Researcher Award

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Dr. Wenjing Yang | Materials Science and Engineering | Best Researcher Award

Research Associate, Inner Mongolia Metal Material Research Institute, China

Wenjing Yang is a dedicated Research Associate at the Inner Mongolia Metal Material Research Institute. With a passion for materials science and engineering, she has focused her career on the welding and processing of metal materials. After earning her doctorate from Northeastern University, Wenjing has continued to innovate in her field, contributing to the advancement of materials engineering through her research and professional experience.

Profile

Scopus

Evaluation of Wenjing Yang for the “Best Researcher Award”

Strengths for the Award:

Innovative Contributions: Wenjing Yang has made significant contributions to the field of Materials Science and Engineering, particularly in the area of metal welding and processing. The development of the double-sided friction stir processing (DFSP) technique is noteworthy, as it addresses common issues in traditional friction stir processing by eliminating the heat-affected zone (HAZ) and thermo-mechanically affected zone (TMAZ). This innovation has the potential to improve the mechanical properties of metal joints significantly.

Research Impact: The citation index of Yang’s work, particularly the articles cited 25 and 27 times, indicates a growing recognition and impact within the scientific community. The research on achieving high strength and ductility in aluminum alloys through DFSP has been well-received, reflecting the importance and relevance of the work.

Diverse Research Output: Yang has published multiple peer-reviewed articles in reputable journals, including “Materials Science and Engineering A” and “Heliyon.” This demonstrates a consistent output of high-quality research in the field.

Novel Theoretical Contributions: Yang’s work on the Cavity Growth Mechanism Map (CGMM) is another highlight. This theoretical framework for understanding superplastic deformation in aluminum alloys adds depth to the understanding of material behavior under specific conditions, contributing to the broader field of materials science.

Areas for Improvement:

Citation Index: While some of Yang’s work has been well-cited, there are publications with low or no citations. Increasing the visibility and impact of these papers through better dissemination, collaboration, or focusing on trending research topics could enhance overall citation metrics.

Collaborations and Professional Engagement: The absence of documented collaborations, industry projects, and professional memberships might be seen as a gap in Yang’s profile. Building a network through collaborations and professional organizations could strengthen research impact and provide additional opportunities for innovation.

Broader Research Scope: While Yang has made significant contributions to specific areas within materials science, expanding the research scope to include interdisciplinary studies or applications in other industries could increase the relevance and applicability of the research.

Education 🎓

Wenjing Yang completed her doctoral studies at Northeastern University, specializing in Materials Science and Engineering. Her academic background has equipped her with a strong foundation in the study and application of metal materials, particularly in the context of welding and processing technologies.

Professional Experience 🏢

Since November 2021, Wenjing Yang has been working at the Inner Mongolia Metal Material Research Institute. In her role as a Research Associate, she has been instrumental in leading several key research projects. Her work primarily revolves around developing innovative methods for the welding and processing of metal materials, significantly contributing to the institute’s research output.

Research Interests 🔍

Wenjing Yang’s research interests are centered around Materials Science and Engineering, with a particular focus on welding techniques and the processing of dissimilar metals. She has proposed novel methods, such as double-sided friction stir processing (DFSP) and a multi-layer plug and bolt connection for dissimilar metal butt joints, aimed at enhancing the mechanical properties and impact resistance of metal materials.

Awards and Recognitions 🏆

Wenjing Yang is a candidate for the Best Researcher Award at the World Top Scientists Awards. Her innovative contributions to the field of materials engineering, particularly her work on the Cavity Growth Mechanism Map (CGMM) for aluminum alloys, have earned her recognition within the scientific community.

Publications Top Notes📚

2024 – Improve the impact property in a novel butt joint of Ti/Al dissimilar metals – Published in Heliyon.

2021 – Parametric optimization for friction stir processing in Al-Zn-Mg-Cu alloy – Published in Materials and Manufacturing Processes.

Cited by: 25

2016 – Improvement of microstructure and mechanical properties of 7050-T7451 aluminum by a novel double-sided friction stir processing – Published in Materials Science Forum.

Cited by: 1

2017 – Achieving High Strength and Ductility in Double-Sided Friction Stir Processing 7050-T7451 Aluminum Alloy – Published in Materials Science and Engineering A.

Cited by: 27

2022 – Morphology Evolution of Cavity and Energy Dissipation during Superplastic Deformation of 7B04 Al-alloy – Published in Chinese Journal of Materials Research.

Cited by: 1

2024 – Effect of Sc on wettability of ER5356 welding wires and porosity of deposited metal – Published in ACS Omega.

Conclusion:

Wenjing Yang is a strong candidate for the “Best Researcher Award,” given the innovative contributions to the field of materials science, particularly in metal welding and processing. The development of new techniques like DFSP and theoretical contributions like the CGMM demonstrate a high level of expertise and innovation. However, there is room for growth in terms of expanding research collaborations, increasing professional engagement, and improving the citation impact across all publications. With continued focus and strategic enhancements, Yang’s research could have an even greater influence on the field.