Theany To | Materials Science | Best Researcher Award

Dr. Theany To | Materials Science | Best Researcher Award 

Postdoc fellow, at Univ Rennes, CNRS, IPR (Institut de Physique de Rennes) – UMR 6251, F-35000 Rennes, France.

Theany To is a dedicated researcher in glass mechanics, currently serving as a Marie-Curie Bienvenüe Post-doc at the Institute of Physics of Rennes (IPR), France (2023–2025). With a strong background in mechanical properties of glass, fracture toughness, and composite materials, Theany has made significant contributions to the field of materials science. He has collaborated with leading international researchers and industry partners, investigating the behavior of oxide glasses, silicate glasses, and novel glass-ceramic composites. Apart from research, he actively mentors students and participates in outreach activities, fostering scientific curiosity. Fluent in English, French, Danish, and Khmer, he enjoys engaging in football, volleyball, and scientific vulgarization. His enthusiasm for investigation and cooperation drives his passion for advancing the understanding of glass materials. 🏆🔬

Professional Profile

Scopus

ORCID

Google Scholar

Education 🎓

  • Ph.D. in Physics (Glass Mechanics), University of Rennes 1, France (2015–2019)
    Thesis: “Mechanical properties of innovated glasses and composite glasses – Cracking, Fracture Toughness, and Strength”

    • Developed insights into glass fracture mechanisms and composite structures.

    • Won a regional public award in a science communication contest.

  • Master’s Degree in Mechanical and Engineering Sciences, INSA Rennes, France (2014–2015)

    • Ranked 2nd out of 38 students in theory and 3rd in applications.

    • Specialized in material behavior under stress and fracture mechanics.

  • Bachelor’s Degree in Civil Engineering, Institute of Technology of Cambodia (2009–2014)

    • Focused on structural mechanics and tunnel construction.

    • Conducted research on cut-and-cover tunnel design.

Experience 🏢🔬

  • Marie-Curie Bienvenüe Post-doc, IPR, France (2023–2025)

    • Investigating mechanical properties of advanced glasses.

    • Supervising graduate students and collaborating on international projects.

  • Postdoctoral Researcher, IPGP, France (2022)

    • Explored mixed alkaline silicate glasses and mechanical behavior.

    • Published multiple high-impact journal articles.

  • Researcher, Aalborg University, Denmark (2019–2022)

    • Supervised 4 Master’s and multiple Ph.D. students.

    • Led projects on oxide glasses, crack-resistant materials, and phase separation.

  • Lecturer, University of Rennes 1, France (2017–2018)

    • Taught Mechanical Behavior of Materials to Master’s students.

    • Conducted practical solid mechanics courses for undergraduates.

Research Interests 🔍

  • Glass Fracture and Toughness: Investigating how glasses break under stress and methods to enhance durability.

  • Oxide Glasses & Composites: Exploring materials like lithium aluminoborate, galliumborate, and phosphosilicate glasses.

  • High-Pressure Glass Mechanics: Studying how glass properties change under extreme conditions.

  • Industrial Glass Applications: Collaborating with companies to develop stronger, more resilient glass materials.

  • Experimental and Theoretical Modeling: Combining experimental methods with computational simulations for advanced material analysis.

Awards & Honors 🏆

  • Regional Public & Internet Award (2017) – 🏅 “My Thesis in 3 Minutes” (French Science Communication Contest).

  • Marie-Curie Bienvenüe Postdoctoral Fellowship (2023–2025) – 🌍 Prestigious European postdoctoral research grant.

  • 2nd Place in Master’s Program (2015) – 🎓 Ranked among top students at INSA Rennes.

  • Multiple Research Grants & Collaboration Awards – 📜 Recognition for contributions to international glass mechanics research.

Top Noted Publications 📚🔗

Below are some of Theany To’s notable publications with links to full texts:

  • “Thermal and mechanical properties of Mg–Al–Si–O–N glasses with up to 6.2 at.% nitrogen”
    Authors: Theany To, et al.
    Journal: Journal of the American Ceramic Society, 2025.
    Summary: This study investigates the thermal and mechanical properties of magnesium-aluminum-silicon oxynitride (Mg–Al–Si–O–N) glasses containing up to 6.2 atomic percent nitrogen. The research aims to understand how nitrogen incorporation influences the structure and properties of these glasses. While the specific details of this study are not available in the provided sources, related research has shown that increasing aluminum content in similar glass systems leads to higher glass transition and crystallization temperatures, as well as increased viscosity. These changes are attributed to the progressive polymerization of the silicate network due to the glass-forming role of Al₂O₃.mostwiedzy.pl+1KFUPM+1KFUPM+1mostwiedzy.pl+1

  • “Fracture behavior of brittle particulate composites”
    Authors: T. Lacondemine, Theany To, et al.
    Journal: Materialia, 2024.
    Summary: This paper examines the fracture behavior of brittle matrix composites containing particulate reinforcements. Although specific details are not available, earlier studies have explored similar systems. For instance, research on glass matrices with nickel spheres investigated how the inclusion of metal particles affects fracture energy and crack propagation. The findings indicated that the presence of these particles can lead to local crack blunting, thereby increasing the material’s fracture energy.SpringerLinkSpringerLinkSpringerLink

  • “Mechanical and Electrochemical Properties of Lithium Aluminoborate Glasses”
    Authors: Theany To, et al.
    Journal: Glass Europe, 2024.
    Summary: This research focuses on lithium aluminoborate glasses, analyzing their mechanical strength and electrochemical behavior. The study aims to elucidate the relationship between the glass composition and its performance in applications such as solid-state batteries.

  • “Crystallization and mechanical properties of a barium titanosilicate glass”
    Authors: P. Mezeix, Theany To, et al.
    Journal: Journal of Materials Science, 2024.
    Summary: This paper investigates the crystallization behavior and mechanical properties of barium titanosilicate glass. The research explores how controlled crystallization impacts the material’s hardness and fracture toughness, providing insights into the development of glass-ceramic materials with tailored properties.

  • “Comparing the effects of Ga₂O₃ and Al₂O₃ on sodium borate glasses”
    Authors: Theany To, et al.
    Journal: Journal of Non-Crystalline Solids, 2023.
    Summary: This study compares the influence of gallium oxide (Ga₂O₃) and aluminum oxide (Al₂O₃) additives on the structure and properties of sodium borate glasses. The research aims to determine how these oxides affect factors such as thermal stability, hardness, and chemical durability, contributing to the understanding of modifier effects in glass science.

Conclusion

Theany To is a highly accomplished researcher with outstanding contributions to glass mechanics, extensive academic mentorship, and a strong collaborative network. With further engagement in grant leadership and industrial applications, they would be an excellent candidate for a Best Researcher Award.

SUK-WON HWANG | Materials Science | Best Researcher Award

SUK-WON HWANG | Materials Science | Best Researcher Award

Prof SUK-WON HWANG,Korea University,South Korea
Suk-Won Hwang, an innovator in bioelectronics, is renowned for his pioneering work in biodegradable and transient electronic systems. 🧪 His research focuses on developing flexible, stretchable, and implantable devices for biomedical applications. With a prolific publication record, Hwang’s contributions include biocompatible conductive polymers, wireless nerve stimulators, and soft electronics for neuromodulation. His multidisciplinary approach integrates materials science, engineering, and medicine to create bioresorbable electronics that dissolve harmlessly in the body, opening new avenues in healthcare. Hwang’s work underscores a commitment to sustainable, eco-friendly technologies with profound implications for personalized medicine and human-machine interfaces.

Publication profile

Scopus

Education

Dr. Suk-Won Hwang is an esteemed academic with a strong foundation in materials science and engineering. He earned his Bachelor’s and Master’s degrees from Hanyang University in 2003 and 2005, respectively, where he delved into the intricacies of materials science. Building upon this knowledge, he pursued further studies at the University of Illinois at Urbana-Champaign, culminating in a Ph.D. in Materials Science and Engineering in 2013. Throughout his academic journey, Dr. Hwang has demonstrated a commitment to advancing the field through rigorous research and scholarly contributions. His educational background equips him with a comprehensive understanding of materials and their applications, positioning him as a valuable asset to both academia and industry.

 

Research focus

This person’s research focus seems to lie at the intersection of bioresorbable materials and electronic systems, with a particular emphasis on stretchable and transient electronics. They delve into various applications, such as wireless nerve stimulation, surgical meshes with monitoring capabilities and drug delivery, as well as antibacterial and radiative cooling systems. Their work also explores innovative designs inspired by nature, like electric eel-inspired electrocytes for power systems. Through their studies, they aim to develop highly efficient and sustainable solutions for soft, biodegradable electronics. 🌱🔬📱

Publication top notes

Correction to: Highly Elastic, Bioresorbable Polymeric Materials for Stretchable, Transient Electronic Systems (Nano-Micro Letters,

Soft, Long-Lived, Bioresorbable Electronic Surgical Mesh with Wireless Pressure Monitor and On-Demand Drug Delivery

Stretchable and biodegradable composite films for disposable, antibacterial, radiative cooling system

Electric Eel-Inspired Soft Electrocytes for Solid-State Power Systems

Materials and Designs for Extremely Efficient Encapsulation of Soft, Biodegradable Electronics

Ultra-stretchable and biodegradable elastomers for soft, transient electronics

Photothermal Lithography for Realizing a Stretchable Multilayer Electronic Circuit Using a Laser