Quanquan Guo | Mechanics of Functional and Intelligent Materials | Excellence in Research Award

Dr. Quanquan Guo | Mechanics of Functional and Intelligent Materials | Excellence in Research Award

Postdoctoral Researcher at Max Planck Institute of Microstructure Physics | Germany

Dr. Quanquan Guo is a materials scientist whose research bridges dynamic polymer chemistry, sustainable energy systems, and advanced functional materials, with a strong focus on “Structure Code of Organic Electrode Materials for Rechargeable Multivalent Metal Batteries,” “Proton-Selective Coating Enables Fast-Kinetics High-Mass-Loading Cathodes for Sustainable Zinc Batteries,” and “Hierarchically Structured Hydrogel Actuator for Microplastic Pollutant Detection and Removal,” reflecting the breadth of his scientific vision. He serves as a Postdoctoral Associate at the Max Planck Institute of Microstructure Physics and Technische Universität Dresden, where he advances high-performance aqueous battery electrode-skin strategies, molecularly engineered polymer networks, and recyclable electronics. His academic foundation spans a doctorate, master’s, and bachelor’s training in polymer science and engineering, during which he developed pioneering works such as “Protein-Inspired Self-Healable Ti₃C₂ MXenes-Based Supramolecular Elastomer for Intelligent Sensing,” “A Cephalopod-Inspired Mechanoluminescence Material with Skin-Like Self-Healing and Sensing Properties,” “A Review of Mechanochromic Polymers and Composites,” and “Biological Phytic Acid as a Multifunctional Curing Agent for Elastomers.” His contributions extend to emerging technologies including two-dimensional conjugated MOFs, smart adsorbent materials, mechanochromic electronic skins, recyclable functional membranes, and scalable manufacturing platforms such as screen printing and latex-template self-assembly. With more than forty publications, including numerous first and co-first-author articles in leading journals such as Nature Communications, Chemical Society Reviews, Angewandte Chemie, ACS Nano, Advanced Functional Materials, and Chemistry of Materials, his work has accumulated thousands of citations and has earned widespread recognition. His portfolio is complemented by patented polymer-composite technologies and contributions to the monograph Solutions to Microplastics Pollution. Through his interdisciplinary approach, Quanquan Guo continues to develop transformative materials aimed at sustainable energy storage, smart electronics, and environmental remediation.

Profile:  Orcid | Google Scholar

Featured Publications:

Su, G., Yin, S., Guo, Y., Zhao, F., Guo, Q., Zhang, X., Zhou, T., & Yu, G. (2021). Balancing the mechanical, electronic, and self-healing properties in conductive self-healing hydrogel for wearable sensor applications. Materials Horizons, 8(6), 1795–1804.

Liu, X., Su, G., Guo, Q., Lu, C., Zhou, T., Zhou, C., & Zhang, X. (2018). Hierarchically structured self-healing sensors with tunable positive/negative piezoresistivity. Advanced Functional Materials, 28(15), 1706658.

Guo, Q., Zhang, X., Zhao, F., Song, Q., Su, G., Tan, Y., Tao, Q., Zhou, T., Yu, Y., … (2020). Protein-inspired self-healable Ti₃C₂ MXenes/rubber-based supramolecular elastomer for intelligent sensing. ACS Nano, 14(3), 2788–2797.

Guo, Q., Huang, B., Lu, C., Zhou, T., Su, G., Jia, L., & Zhang, X. (2019). A cephalopod-inspired mechanoluminescence material with skin-like self-healing and sensing properties. Materials Horizons, 6(5), 996–1004.

Wang, Y., Guo, Q., Su, G., Cao, J., Liu, J., & Zhang, X. (2019). Hierarchically structured self-healing actuators with superfast light- and magnetic-response. Advanced Functional Materials, 29(50), 1906198.

Syed Ali | Impact Mechanics and Dynamic Material Behavior | Best Researcher Award

Mr. Syed Ali | Impact Mechanics and Dynamic Material Behavior | Best Researcher Award

PHD Scholor at Zhenzhou University | China

Mr. Syed Ali is a dynamic and dedicated Civil Structural Engineer whose academic and research pursuits reflect an exceptional commitment to advancing innovative structural systems for sustainable and resilient infrastructure. Currently pursuing a Ph.D. in Civil Structural Engineering at Zhengzhou University, China, his research focuses on fatigue behavior, seismic performance, and high-performance materials in concrete bridge structures. His scholarly contributions include high-impact publications such as A Review of Fatigue in Concrete of Segmental Bridge Beams: Challenges, High-Performance Concrete Innovations, and Future Directions, Seismic Performance and Vulnerability Analysis of ECC and HSREC Bridge Piers with High-Strength Steel Bars, and Rheological, Mechanical, and Self-Recovery Performance of 3D-Printed ECC Reinforced with Shape Memory Alloy Fibers. His work integrates material science, computational modeling, and advanced construction technologies to enhance structural durability and safety in modern engineering applications. With a solid foundation built through his MSc in Structural Engineering from Cecos University and a Bachelor’s degree in Civil Engineering from Sarhad University of Science and Emerging Technologies, he combines theoretical understanding with practical insight. His professional experience includes serving as a Lecturer at the Swedish College of Engineering, Wah Cantt, where he taught core engineering courses and guided final-year projects, and as a Site Engineer at the National Logistic Cell, where he supervised structural projects with a strong emphasis on safety, precision, and compliance with international standards. Proficient in ABAQUS, ETABS, AutoCAD, Python, and GEP, he blends analytical acumen with a creative approach to problem-solving. His multilingual skills and leadership qualities complement his academic excellence, positioning him as a promising researcher and educator dedicated to shaping the future of sustainable structural engineering.

Profile: Google Scholar

Featured Publications:

Ali, M. F., Qian, H., Umar, M., Fenglin, L., Raza, A., Ali, S. B., & Chenglong, Y. (2025). Rheological, mechanical, and self-recovery performance of 3D-printed ECC reinforced with shape memory alloy fibers. Journal of Building Engineering, 114255.

Ali, S. B., Liang, Y., Yan, L., Chen, P., Shu, J., & Guan, P. (2025). Seismic performance and vulnerability analysis of ECC and HSREC bridge piers with high-strength steel bars. Earthquakes and Structures, 29(2), 153.