Ali Olad | Polymer chemistry | Best Researcher Award

Prof. Dr. Ali Olad | Polymer chemistry | Best Researcher Award

University of Tabriz | Iran

Ali Olad is a distinguished researcher at the department of applied chemistry, university of tabriz, known for his extensive work in polymer composites, nanocomposites, conducting polymers, polymer coatings, hydrogels, and corrosion‑electrochemistry. according to his public profile he has about 143 publications, and his work has garnered over 6,000 citations.his h‑index, which reflects both productivity and impact in his field, stands at a significant level (as listed on his profile). throughout his academic career, he has delivered courses ranging from industrial chemistry and electrochemistry at undergraduate level to advanced topics like polymer composites, coatings and conducting polymers at graduate and phd levels. his research has advanced understanding and practical applications in polymer nanocomposites, surface modification and protective coatings, conducting‑polymer blends, hydrogels, and corrosion prevention. his contributions have made a substantial impact in materials chemistry and polymer science, influencing both theoretical developments and real‑world applications. overall, ali olad’s blend of teaching and prolific research marks him as a leading figure in polymer and materials chemistry at his institution.

Profile: Orcid 

Featured Publications 

Derakhshan, P., Olad, A., Salari, D., Mirmohseni, A., & Dilmaghani, A. (2025). Development of antimicrobial acrylate-based coatings containing clays modified with metallic nanocomposites for application on shoe leather. Surfaces and Interfaces.

Nazarlou, Z., Najjari, H., Olad, A., & Aydemir, U. (2025). Fluorine-free hydrophobic powder coatings: A sustainable approach using functionalized biogenic SiO2 for anticorrosion and antifouling applications. Surfaces and Interfaces.

Fathi, F., Nazarlou, Z., Aydemir, U., & Olad, A. (2025). Anti-icing and antibacterial super-hydrophobic poly(dimethyl siloxane) coatings modified with silica, TiO2, Ag3PO4, and CuO nanoparticles. Materials Chemistry and Physics.

Hezari, S., Olad, A., & Dilmaghani, A. (2024). Investigation of antibacterial properties and sustained release of Centella Asiatica extract from Fe-MOF-reinforced gelatin-based hydrogels. Polymer Bulletin.

Fazli, S., Hezari, S., & Olad, A. (2024). Preparation of hydrogels based on okra pods/chia seeds mucilage for drug delivery application. Polymer Bulletin.

Assoc. Prof. Dr. Lijing Teng – supramolecular hydrogel – Best Researcher Award 

Assoc. Prof. Dr. Lijing Teng - supramolecular hydrogel - Best Researcher Award 

School of Biology and Engineering (School of Modern Industry for Health and Medicine) - Chile

Author Profile 

ORCID 

🎓 Early academic pursuits

Lijing Teng's journey into the world of biomedical engineering began with a deep curiosity for biomaterials and their applications in medicine. she pursued her ph.d. in biomedical engineering at south china university of technology, where she developed a strong foundation in material science, polymer chemistry, and bioengineering. her doctoral research was centered on designing innovative biomaterials with multifunctional properties, laying the groundwork for her future contributions in the field. her academic excellence and dedication positioned her as a promising scientist in biomedical materials research.

🚀 Professional endeavors

As an associate professor at guizhou medical university, lijing teng has dedicated her career to advancing biomaterial science and its applications in regenerative medicine. her research is at the intersection of materials science and biology, where she focuses on developing cutting-edge solutions for medical challenges. she has been instrumental in designing novel hydrogels, adhesives, and porous scaffolds that enhance tissue regeneration, wound healing, and drug delivery. through her innovative teaching methods and mentorship, she has inspired numerous students to explore the potential of biomaterials in medical science.

🧐 Contributions and research focus

Lijing Teng's research revolves around the development of supramolecular biomaterials, which exhibit advanced properties such as self-healing, bioadhesion, and controlled degradation. her work on hydrogels has led to breakthroughs in designing smart materials that mimic natural extracellular matrices, improving their biocompatibility and functionality in clinical applications. her adhesive biomaterials have been optimized for wound closure and surgical applications, providing alternatives to traditional sutures. her research on porous scaffolds has significantly supramolecular hydrogel contributed to tissue engineering by creating environments that promote cell growth and regeneration. her interdisciplinary approach integrates chemistry, physics, and biology to create biomaterials with unprecedented capabilities.

🏆 Accolades and recognition

Throughout her career, lijing teng has received recognition for her outstanding contributions to biomedical engineering. her research publications in high-impact journals have been widely supramolecular hydrogel cited, reflecting her influence in the field. she has presented her findings at international conferences, earning accolades for her pioneering work in biomaterials. her contributions to the design of multifunctional materials have been acknowledged by peers and industry leaders, positioning her as a key researcher in the advancement of supramolecular biomaterials.

👨‍💻 Impact and influence

Lijing Teng's work has significantly impacted the field of biomaterials, particularly in the development of advanced materials for medical applications. her innovative hydrogels and adhesives have the potential to transform wound care, surgical procedures, and tissue engineering. her research has influenced both academia and industry, leading to collaborations with medical supramolecular hydrogel institutions and material scientists to refine and commercialize biomaterial-based medical solutions. through her mentorship, she has cultivated a new generation of researchers dedicated to pushing the boundaries of biomedical engineering.

🌍 Legacy and future contributions

As a leader in biomaterials research, Lijing Teng continues to push the limits of material innovation. her future work aims to further enhance the properties of supramolecular biomaterials, making them more adaptive and responsive to biological environments. she is committed to bridging the gap between fundamental research and clinical applications, ensuring that her materials contribute to better healthcare solutions. her vision extends to fostering global collaborations and interdisciplinary research, solidifying her legacy as a pioneer in biomaterials science. her contributions will continue to shape the future of regenerative medicine, improving lives through cutting-edge biomedical engineering.

Notable Publications 

  • Title: Shape-Recoverable Macroporous Nanocomposite Hydrogels Created via Ice Templating Polymerization for Noncompressible Wound Hemorrhage
    Author(s): Lijing Teng, Kaide Xia, Tianbao Qian, Zuquan Hu, Liang Hong, Ying Liao, Guorui Peng, Zhongrun Yuan, Yunhua Chen, et al.
    Journal: ACS Biomaterials Science & Engineering

  • Title: Supramolecular and dynamic covalent hydrogel scaffolds: from gelation chemistry to enhanced cell retention and cartilage regeneration
    Author(s): Lijing Teng
    Journal: Journal of Materials Chemistry B

  • Title: Weak Hydrogen Bonds Lead to Self-Healable and Bioadhesive Hybrid Polymeric Hydrogels with Mineralization-Active Functions
    Author(s): Lijing Teng
    Journal: Biomacromolecules

  • Title: Synthesis and characterization of star-shaped poly(l-lactide)s with an erythritol core and evaluation of their rifampicin-loaded microspheres for controlled drug delivery
    Author(s): Lijing Teng
    Journal: Polymer Bulletin

  • Title: Synthesis and characterization of star-shaped PLLA with sorbitol as core and its microspheres application in controlled drug release
    Author(s): Lijing Teng
    Journal: Journal of Applied Polymer Science