Dr. Chengjun Zeng | Polymer composites | Best Researcher Award
Assoc. Prof. Dr. Chengjun Zeng , Harbin Institute of Technology , China.
Dr. Chengjun ZengΒ Β is an Associate Professor at Harbin Institute of Technology, specializing inΒ shape memory polymer composites, 4D printing, and mechanical metamaterials. He earned his Ph.D. in Mechanics from Harbin Institute of Technology (2022) and a Bachelor’s in Naval Architecture and Ocean Engineering from Harbin Engineering University (2017). Previously, he served as an Assistant Professor and Postdoctoral researcher under Prof. Jinsong Leng. Dr. Zeng has published impactful research inΒ Advanced Functional Materials, International Journal of Plasticity, and Composites Science and Technology. His work pushes boundaries inΒ composite mechanics and programmable materials.Β
Publication Profile
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Education & ExperienceΒ 

Β Education
Β Ph.D. in MechanicsΒ β Harbin Institute of Technology (2017-2022)
Β B.Sc. in Naval Architecture and Ocean EngineeringΒ β Harbin Engineering University (2013-2017)
Β Experience
Β Associate Professor & Master’s SupervisorΒ β Harbin Institute of Technology (2025-Present)
Β Assistant Professor & Master’s SupervisorΒ β Harbin Institute of Technology (2023-2025)
Β Postdoctoral ResearcherΒ (Co-supervised by Prof. Jinsong Leng) β Harbin Institute of Technology (2023-2025)
Suitability Summary
Dr.Β Chengjun Zeng,Β Associate Professor at Harbin Institute of Technology, is a leading expert inΒ shape memory polymer composites, 4D printing, mechanical metamaterials, and composite mechanics. His outstanding research contributions,Β high-impact publications, and pioneering advancements in smart materialsΒ position him as a deserving recipient of theΒ Best Researcher Award.
Professional DevelopmentΒ 

Dr. Chengjun Zeng is a rising expert inΒ advanced materials science and mechanical engineering, with significant contributions toΒ 4D printing, smart composites, and mechanical metamaterials. His research integratesΒ viscoelasticity, anisotropic behaviors, and phase transitions, driving innovations inΒ programmable structures and bio-inspired designs. His publications inΒ top-tier journalsΒ reflect hisΒ dedication to high-impact research. As a Master’s supervisor, he mentors students inΒ cutting-edge polymer mechanics. His collaborations with leading scholars and institutions further solidify his role inΒ transforming next-gen material science.Β
Research FocusΒ 

Dr. Chengjun Zeng’s research revolves aroundΒ advanced polymer composites, focusing onΒ shape memory effects, smart materials, and bio-inspired mechanics. His work exploresΒ programmable deformation, high-stretchability structures, and sustainable composite applications. LeveragingΒ 4D printing, he pioneersΒ reconfigurable materials for aerospace, biomedical, and mechanical applications. His models integrateΒ finite deformation mechanics, viscoelasticity, and phase transitions, bridging theoretical advancements with real-world implementations. His contributions are shaping the future ofΒ adaptive materials, mechanical metamaterials, and intelligent composite structures, making strides towardΒ functional and responsive engineering solutions.Β
Awards & HonorsΒ 

Β Published in Top-Tier SCI JournalsΒ β Advanced Functional Materials, International Journal of Plasticity, Composites Science and Technology
Β Ph.D. Advisor & Research MentorΒ β Supervising graduate students inΒ cutting-edge polymer mechanics
Β High-Impact PublicationsΒ β Featured in journals with Impact FactorsΒ 18.5, 9.4, and 8.3
Β Recognized for Innovations in 4D Printing & Composite Mechanics
Publication Top Notes
Β Construction of Mechanical Metamaterials and Their Extraordinary FunctionsΒ βΒ Composite Structures, 2025-02, DOI:Β 10.1016/j.compstruct.2025.118872Β
Β 4D Printed Mortise-Tenon Mechanical-Electromagnetic Multifunctional Pixel MetamaterialsΒ βΒ Chemical Engineering Journal, 2025-01, DOI:Β 10.1016/j.cej.2024.158784Β
Β Bamboo-Inspired 3D Printed Continuous Fiber-Reinforced Vascular CompositesΒ βΒ Composites Communications, 2025-01, DOI:Β 10.1016/j.coco.2024.102219Β
Β Mechanical Properties of Diamond-Type Triply Periodic Minimal Surface Structures Fabricated by Photo-Curing 3D PrintingΒ βΒ Composite Structures, 2025-01, DOI:Β 10.1016/j.compstruct.2024.118695Β
Β Theoretical Model Combined Finite Element Approach for Studying Mechanical Behavior of Shape Memory Hydrogel Ribbed Sheet with Stretch-Triggered Bend EffectΒ βΒ Composite Structures, 2025-01, DOI:Β 10.1016/j.compstruct.2024.118783Β