Bingcheng Yi | Bioinspired Functional Surfaces | Best Researcher Award

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Mr. Bingcheng Yi | Bioinspired Functional Surfaces  | Best Researcher Award

Associated professor at University of Health and Rehabilitation Sciences, china

Dr. Zhang Jinde is an Associate Professor at the University of Health and Rehabilitation Sciences, specializing in vascular tissue engineering and biomaterial modification for tissue regeneration. He completed his PhD at Donghua University, focusing on biomaterials, and has worked as a postdoctoral researcher at Shanghai Ninth People’s Hospital. With extensive experience in biomimetic materials, Dr. Zhang is dedicated to developing advanced biomaterials like nanofibers and hydrogels for tissue regeneration. 🌱

Publication Profile

scopus

Education 🎓

PhD in Biomaterials, Donghua University, 2020 👩‍🎓Master in Biochemical Engineering, Donghua University, 2016 🧪Bachelor in Food Quality and Safety, Hainan University, 2013 🍽️

Experience 💼

2022–Present: Associate Professor, University of Health and Rehabilitation Sciences 🏫2020–2022: Postdoc, Shanghai Ninth People’s Hospital, Shanghai Jiao Tong University 🏥2016–2020: Research Assistant, Donghua University 🔬

Awards and Honors 🏅🏆

Dr. Zhang has received numerous awards, including the National Scholarship for Graduate Students (2019), Best Research Presentation Award at the International Biomaterials Conference (2020), and an Excellence in Innovation Award from the University of Health and Rehabilitation Sciences (2022).

Research Focus 🔬

His research focuses on vascular tissue engineering, developing advanced biomaterials like nanofiber hydrogels to regulate cell behaviors, mechanisms of cell-matrix interactions in tissue remodeling, and designing biomimetic materials for effective tissue regeneration. 💡

Publications 📖

Bacterial cellulose-based scaffold modified with anti-CD29 antibody to selectively capture urine-derived stem cells for bladder repair
Authors: Shao, T., Yan, M., Liu, R., Yi, B., Zhou, Q.
Journal: Carbohydrate Polymers
Year: 2025, Volume 352, Article 123150
Summary: The article focuses on a bacterial cellulose-based scaffold modified with anti-CD29 antibody for selectively capturing urine-derived stem cells aimed at bladder repair.

Fucoidan-derived carbon dots as nanopenetrants of blood-brain barrier for Parkinson’s disease treatment
Authors: Han, M., Yi, B., Song, R., Shen, X., Zhou, Q.
Journal: Journal of Colloid and Interface Science
Year: 2025, Volume 680, pp. 516–527
Summary: This study investigates fucoidan-derived carbon dots as nanocarriers for penetrating the blood-brain barrier to treat Parkinson’s disease.

ADSCC-CM-Induced Keratin Hydrogel-Based Bioactive Microneedle Patch Containing Triamcinolone Acetonide for the Treatment of Pathological Scar
Authors: Li, C., Yi, B., Xu, Q., Zhou, Q., Wang, Z.
Journal: Advanced Functional Materials
Year: 2024, Volume 34(46), Article 2400457
Summary: This research presents a keratin hydrogel-based microneedle patch, induced by ADSCC-conditioned media, for the treatment of pathological scars.

Mechanical loading on cell-free polymer composite scaffold enhances in situ regeneration of fully functional Achilles tendon in a rabbit model
Authors: Wang, W., Lin, X., Tu, T., Zhang, P., Liu, W.
Journal: Biomaterials Advances
Year: 2024, Volume 163, Article 213950
Summary: The article discusses the effects of mechanical loading on a cell-free polymer scaffold, promoting tendon regeneration in a rabbit model.

Piezoelectrically-enhanced composite membranes mimicking the tendinous electrical microenvironment for advanced tendon repair
Authors: Wang, W., Wang, P., Li, Q., Liu, W., Wang, X.
Journal: Nano Today
Year: 2024, Volume 57, Article 102381
Summary: This study explores the use of piezoelectric composite membranes for tendon repair by mimicking the electrical microenvironment.

Ecofriendly and high-performance flexible pressure sensor derived from natural plant materials for intelligent audible and silent speech recognition
Authors: Zheng, X., Yi, B., Zhou, Q., Li, Y., Li, Y.
Journal: Nano Energy
Year: 2024, Volume 126, Article 109701
Summary: The article presents a flexible pressure sensor made from natural plant materials, intended for speech recognition applications.

Sulfated Chitosan-Modified CuS Nanocluster: A Versatile Nanoformulation for Simultaneous Antibacterial and Bone Regenerative Therapy in Periodontitis
Authors: Chen, X., Huang, N., Wang, D., Yuan, C., Zhou, Q.
Journal: ACS Nano
Year: 2024, Volume 18(22), pp. 14312–14326
Summary: This study introduces a sulfated chitosan-modified CuS nanocluster for combined antibacterial and bone regeneration therapy in periodontitis.

Polylysine-derived carbon quantum dots modulate T lymphocyte responses for periodontitis treatment
Authors: Deng, X., Yi, B., Guo, F., Yuan, C., Zhou, Q.
Journal: Materials and Design
Year: 2024, Volume 241, Article 112975
Summary: The research highlights how polylysine-derived carbon quantum dots can modulate T lymphocyte responses to treat periodontitis.

Physiological cyclic stretching potentiates the cell–cell junctions in vascular endothelial layer formed on aligned fiber substrate
Authors: Shi, Y., Li, D., Yi, B., Xu, T., Zhang, Y.
Journal: Biomaterials Advances
Year: 2024, Volume 157, Article 213751
Summary: This paper explores how cyclic stretching can enhance cell–cell junctions in a vascular endothelial layer on an aligned fiber substrate.

The Combination of Aligned PDA-Fe@PLCL Conduit with Aligned GelMA Hydrogel Promotes Peripheral Nerve Regeneration
Authors: Wang, P., You, J., Liu, G., Yi, B., Huang, Q.
Journal: Advanced Healthcare Materials
Year: 2024 (in press)
Summary: This research proposes a combined conduit and hydrogel approach to promote peripheral nerve regeneration.

Conclusion

The candidate is highly deserving of the Best Researcher Award due to their solid academic background, exceptional research contributions in biomaterials, and the promising potential for their findings to shape the future of regenerative medicine and tissue engineering. While areas like interdisciplinary collaboration, public engagement, and commercialization could be strengthened, their work shows significant potential for continued innovation. Given their drive and track record of excellence, they are poised to make enduring contributions to both academic and clinical fields.

Xuejie Gao | From Liquid to Solid | Women Researcher Award

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Assoc. Prof. Dr Xuejie Gao | From Liquid to Solid | Women Researcher Award

Professor at Dalian Polytechnic University , China

🚀 Dr. Xuejie Gao is an Associate Professor at Dalian Polytechnic University, specializing in 3D printing for lithium-ion and solid-state batteries. 📚 Holding a Ph.D. in Mechanical and Material Engineering from Western University, she leads innovative battery technology research. 🔋 Her work focuses on sustainable energy solutions, advancing energy storage efficiency. ✍️ Dr. Gao has authored high-impact publications in top-tier journals like Advanced Materials and Energy Storage Materials. 🌍 She collaborates with academic and industrial leaders, driving breakthroughs in next-generation battery technologies.

Publication Profile

scopus

Education🎓

Dr. Xuejie Gao earned her Ph.D. in Mechanical and Material Engineering from Western University, where she focused on 3D printing applications in battery development. 🧪 Her research emphasized transitioning from liquid to solid-state batteries to improve energy efficiency. 📈 Dr. Gao completed her undergraduate and master’s studies in Material Science, laying the foundation for her advanced research in sustainable energy storage. 🌱 She received multiple scholarships during her academic journey, highlighting her dedication and exceptional performance in material engineering and energy applications.

Experience👩‍🏫 

Dr. Gao serves as an Associate Professor at Dalian Polytechnic University, engaging in cutting-edge research and teaching. 💡 She has led six ongoing projects and successfully completed three, emphasizing battery innovation. ⚙️ Dr. Gao collaborates with the industry, contributing to two sponsored projects involving battery manufacturing advancements. 🏭 Her expertise extends to guiding Ph.D. students and acting as a Youth Editorial Board member for Renewables and eScience. 🌏 Dr. Gao bridges academia and industry, fostering advancements in sustainable battery technologies.

Awards and Honors🏆 

Dr. Gao has received accolades for her pioneering work in battery technology. 🌟 She is a CTAPI Fellow, recognized for her contributions to energy storage and advanced materials. 📜 Dr. Gao’s publications in high-impact journals reflect her leadership in the field. 🧑‍🔬 Her patents in process further cement her innovative contributions. 🌍 As a member of editorial boards and industry collaborations, Dr. Gao’s influence extends across academic and commercial sectors. 💼 Her role in shaping the next generation of batteries has garnered widespread recognition.

Research Focus🔬 

Dr. Gao’s research targets the development of 3D-printed lithium-ion and solid-state batteries. ⚡ Her focus lies in enhancing battery performance, reducing manufacturing costs, and fostering sustainability. 🧩 Key areas include material development, advanced fabrication techniques, and energy efficiency improvements. 🏭 Collaborating with Shanghai Carbon Industrial Co., she applies her findings to real-world applications. 🚘 Dr. Gao’s innovations aim to transform industries such as electric vehicles and renewable energy storage. 📊 Her interdisciplinary approach integrates material science, engineering, and energy technologies.

Publications 📖

“Separator engineering: Assisting lithium salt dissociation and constructing LiF-rich solid electrolyte interphases for high-rate lithium metal batteries” (2025): Focuses on improving the efficiency of lithium metal batteries by enhancing lithium salt dissociation and creating stable solid electrolyte interphases (SEI).

“Long-lifespan thin Li anode achieved by dead Li rejuvenation and Li dendrite suppression for all-solid-state lithium batteries” (2024): This study introduces methods for rejuvenating dead lithium and suppressing lithium dendrites to improve the lifespan and safety of solid-state batteries.

“Carboxymethyl chitosan composited poly(ethylene oxide) electrolyte with high ion conductivity and interfacial stability for lithium metal batteries” (2024): Examines an electrolyte composite that enhances ion conductivity and stability, crucial for improving the performance and longevity of lithium metal batteries.

“Natural biopolymers derived kinematic and self-healing hydrogel coatings to continuously protect metallic zinc anodes” (2024): Investigates self-healing hydrogel coatings that protect zinc anodes in batteries, enhancing their stability and lifespan.

“Phosphotungstic acid decorated free-standing electrode accelerates polysulfides conversion for high-performance flexible Li–S batteries” (2024): Introduces a novel electrode material that accelerates the conversion of polysulfides, improving the performance of lithium-sulfur (Li-S) batteries.

“All-in-one Janus covalent organic frameworks separator as fast Li nucleator and polysulfides catalyzer in lithium-sulfur batteries” (2024): This research presents a separator made of covalent organic frameworks that acts as both a lithium nucleator and a catalyst for polysulfides in Li-S batteries.

“ZIF-67-Derived Flexible Sulfur Cathode with Improved Redox Kinetics for High-Performance Li-S Batteries” (2024): Focuses on a new sulfur cathode derived from ZIF-67, which improves redox kinetics and enhances the performance of Li-S batteries.

“Lignin-reinforced PVDF electrolyte for dendrite-free quasi-solid-state Li metal battery” (2024): This study uses lignin-reinforced PVDF electrolyte to prevent dendrite formation, improving the performance of quasi-solid-state lithium metal batteries.

“Dual-single-atoms of Pt–Co boost sulfur redox kinetics for ultrafast Li–S batteries” (2024): Highlights the use of Pt-Co single atoms to enhance sulfur redox kinetics, enabling faster and more efficient Li-S batteries.

“Ester-Enhanced Inorganic-Rich Solid Electrolyte Interphase Enabled Dendrite-Free Fast-Charging Lithium Metal Batteries” (2024): Focuses on creating a dendrite-free, fast-charging lithium metal battery by enhancing the solid electrolyte interphase with esters and inorganic materials.

Conclusion

Dr. Gao Xuejie’s expertise in advanced battery technologies, particularly her research on solid-state batteries and the application of 3D printing for energy storage, positions her as an exceptional candidate for the Best Researcher Award. Her continuous pursuit of innovation in the energy sector, along with her substantial academic achievements, makes her a standout researcher deserving of recognition in this category.