Jincai Zhang | Experimental Design | Best Researcher Award

Jincai Zhang | Experimental Design | Best Researcher Award

Assoc. Prof. Dr Jincai Zhang, Shanxi University, China

Assoc. Prof. Dr. Jincai Zhang 🎓🔬 is a materials scientist specializing in industrial waste utilization and inorganic materials. He earned his Ph.D. (2012) and Master’s (2006) from the Institute of Coal Chemistry, CAS, and a Bachelor’s from Hunan University (1999). Currently an Associate Professor at Shanxi University 🏫, he was a visiting scholar at the National University of Singapore (2022-2023) 🌏. His research focuses on advanced materials, inorganic fibers, and coatings, with numerous publications in high-impact journals 📚. His work contributes to sustainable material development and environmental engineering 🌱⚙️.

Publication Profile

Scopus

Education background

Assoc. Prof. Dr. Jincai Zhang 🎓🔬 is an expert in material science with a strong academic background. He earned his Ph.D. (2009-2012) and Master’s degree (2003-2006) in Material Science from the Institute of Coal Chemistry, CAS 🏛️⚛️. His journey began with a Bachelor’s degree in Corrosion and Protection from Hunan University (1995-1999) 🏗️🛡️. With extensive research experience, Dr. Zhang has contributed significantly to material protection and coal chemistry. His expertise spans corrosion prevention, advanced materials, and industrial applications 🏭⚙️. As an Associate Professor, he continues to inspire innovation in material science, driving advancements in sustainable technologies 🌍🔎.

Experience

Assoc. Prof. Dr. Jincai Zhang is a dedicated researcher in resources and environmental engineering 🌿🔬. Since July 2015, he has been an Associate Professor at Shanxi University 🏛️. From December 2022 to December 2023, he was a visiting scholar at the National University of Singapore 🇸🇬 under Prof. Seeram Ramakrishna. Previously, he served as a Senior Engineer (2013-2015) and Assistant Researcher (2012-2013) at BGRIMM ⚙️. He also worked at the Institute of Coal Chemistry, CAS (2006-2009) and as a Technician at Zhengzhou NISSAN Automobile Co. Ltd. (1999-2003) 🚗. His expertise spans engineering, research, and industrial applications ⚡.

Research Focus

Assoc. Prof. Dr. Jincai Zhang’s research focuses on advanced materials science 🏗️, particularly in the development and modification of glass-ceramic proppants 🔬, nano calcium carbonate ⚛️, and biomass-based carbon materials 🌿. His work explores sintering additives, heating regimes, and surface modifications to enhance material properties for industrial applications 🏭. Dr. Zhang also investigates inorganic fibers derived from industrial solid wastes and their structural characteristics 🔍. His contributions extend to basalt fibers, kaolin/TiO₂ composites, and supercapacitors, highlighting his impact in energy storage ⚡ and ceramic engineering 🏺. His studies advance sustainable material utilization for modern industries 🌎.

Impact and Innovation 

Assoc. Prof. Dr. Jincai Zhang’s research focus lies in sustainable materials science and industrial waste utilization. His work explores innovative ways to transform industrial by-products into valuable materials, promoting resource efficiency and environmental sustainability. Notable contributions include the development of glass-ceramic proppants, kaolin/TiO₂ composites, and inorganic fibers, combining fundamental science with industrial applications. This approach supports circular economy principles and addresses global challenges like waste management and sustainability. Dr. Zhang’s research is integral to advancing green technologies in material development and enhancing eco-friendly industrial processes. 🌍🔬♻️🧪💡

Publication Top Notes

Investigating the effects of sintering additives and heating regimes on the performances of glass–ceramic proppants derived from industrial wastes

Research progress of preparation and growth mechanism of various crystalline nanocalcium carbonate

Preparation of biomass-based carbon materials and its research progress in supercapacitors 

Preparation, properties and formation mechanism of hydroxyl-silicone oil coating on the surface of kaolin/ TiO2 composites

Progress on Controllable Preparation of Polycrystalline and Polymorphic Nano Calcium Carbonate by Calcium Carbide Slag

Research Progress on Surface Modification of Basalt Fiber

Influencing Factors and Evaluation Methods of Modification Effect of Nano Calcium Carbonate

Study Progress on Inorganic Fibers from Industry Solid Wastes and the Key Factors Determining Their Characteristics

Effect of Unhydrated Aminopropyl Triethoxysilane Modification on the Properties of Calcined Kaolin

Development of electromagnetic shielding coatings

Ajad Shrestha | Experimental Design | Innovative Research Award

Ajad Shrestha | Experimental Design | Innovative Research Award

Mr Ajad Shrestha, Global Engineering Associates, P., Ltd. Nepal

Publication profile

google scholar

Education

Ajad Shrestha holds a Master’s degree in Civil and Hydraulics Engineering from Tongji University (2021–2024) and a Bachelor’s degree in Civil Engineering from the Institute of Engineering, Thapathali Campus (2015–2019). His educational background has provided him with a solid foundation in structural engineering, which is critical for innovative research in this field.

Research Projects

Ajad has contributed to multiple significant research projects, such as studying the use of recycled polyethylene terephthalate (PET) in 3D printable mortar, investigating the flexural and shear performance of HS-ECC beams, and exploring autogenous shrinkage mitigation in high-strength engineered cementitious composites (HS-ECC). His ability to manage complex variables and deliver measurable results, like reducing shrinkage by 40%, showcases his technical expertise and problem-solving skills.

Work Experience

Ajad has substantial research experience as a Research Student at Tongji University, focusing on HS-ECC material and structural applications. He also worked as a Civil Engineer and Research Assistant at Global Engineering Associates, gaining hands-on experience in FEM analysis, bridge damage research, and structural calculations. This combination of academic and professional experience makes him a strong candidate for the Innovative Research Award.

Publications

Ajad’s contributions to scholarly publications are extensive, including papers on high-performance concrete, machine learning models, and advanced structural analysis. His research on the mechanical properties of cementitious composites and UHPC highlights his commitment to developing innovative, real-world solutions.

Research focus

The research focus of this individual is on advanced materials in civil engineering, particularly engineered cementitious composites and ultra-high-performance concrete (UHPC). Their work explores the mechanical and shrinkage properties of these materials, emphasizing the use of iron sand to develop high-strength cementitious composites. Additionally, they employ hybrid machine learning models to predict the mechanical properties of UHPC, validated through experiments. This interdisciplinary approach integrates material science, construction technology, and AI-driven predictive modeling to enhance the performance and sustainability of modern construction materials. 🏗️🔬💡

Awards and Scholarships

Ajad has earned the Departmental Scholarship from Tongji University, a recognition based on his academic performance and research contributions. This accolade, along with his proven track record in research, reflects his dedication and potential for future innovation.

Conclusion

Based on Ajad Shrestha’s extensive research in structural engineering, innovative use of materials like recycled PET and HS-ECC, and his solid academic background, he appears to be a highly suitable candidate for the Innovative Research Award. His demonstrated ability to solve complex problems, combined with a focus on real-world applications, makes him a promising innovator in the field of civil engineering.

Publication top notes

Development of high-strength engineered cementitious composites using iron sand: Mechanical and shrinkage properties

Hybrid machine learning model to predict the mechanical properties of ultra-high-performance concrete (UHPC) with experimental validation