Prof. Ji Wenjuan | Sensor | Best Researcher Award
Professor Wenjuan Ji is a materials scientist specializing in the design, synthesis, and functional exploration of porous metal-organic frameworks. Her research focuses on developing novel MOF materials with ferroelectric and nonlinear optical properties, while also advancing applied studies in energy materials, fluorescence, and electrochemical sensing. With a strong background in chemistry and materials science, she combines expertise in crystallography, spectroscopy, and electrochemical techniques to bridge fundamental discoveries with practical applications. Recognized for her contributions to functional materials, she continues to lead innovative projects that drive progress in energy technologies and advanced sensing systems.
Education
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Professor Wenjuan Ji has pursued advanced education in chemistry and materials science, establishing a strong foundation in the fields of inorganic chemistry and functional materials. Her academic journey provided her with expertise in crystallography, solid-state chemistry, and material characterization, which later guided her into the study and development of porous metal-organic frameworks.
Experience
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With a career dedicated to research and teaching, Professor Wenjuan Ji has accumulated extensive experience in designing, synthesizing, and characterizing advanced porous materials. She has led research teams in exploring the multifunctional properties of metal-organic frameworks and applied them to diverse areas of materials science. Her professional experience extends to supervising graduate students, collaborating with national and international research groups, and contributing to the advancement of applied chemistry.
Awards and Recognition
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Professor Wenjuan Ji has been recognized for her significant contributions to the field of functional materials. She has received honors from academic and scientific organizations for her pioneering work in the development of innovative porous structures with unique electronic and optical properties. These distinctions highlight her commitment to advancing material science and her leadership in the research community.
Skills and Expertise
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Her skills span the synthesis of metal-organic frameworks, advanced crystallographic analysis, and property evaluation of functional materials. She is proficient in applying spectroscopic and electrochemical techniques to investigate the performance of materials. Additionally, her strengths include leading interdisciplinary projects, integrating theoretical understanding with experimental work, and mentoring future researchers.
Research Focus
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Professor Ji’s research primarily concentrates on the design, synthesis, and property studies of porous metal-organic frameworks. She focuses on developing novel MOFs that exhibit ferroelectric and nonlinear optical characteristics. Her work also extends to applied research in energy-related materials, fluorescence-based detection, and electrochemical sensing technologies. Through this research, she aims to bridge fundamental discoveries with practical applications in energy, environmental monitoring, and advanced sensing
Publications
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Zinc metal-organic framework with high-density free carboxyl oxygen functionalized pore walls for targeted electrochemical sensing of paracetamol
Authors: Wenjuan Ji
Journal: Chinese Journal of Inorganic Chemistry, 2024Dual Turn-On/Off Fluorescence Sensing in Heterobimetallic MOFs for Ultrasensitive Detection of Multiple Antibiotics
Authors: Jianli Shi, Bo Yan, Guojiao Wang, Bingqiang Wang, Haiying Yang, Yunlong Fu, Wenjuan Ji
Journal: Inorganic Chemistry, 2025
Conclusion
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Through her education, experience, and dedication to innovative research, Professor Wenjuan Ji has established herself as a leading figure in the field of functional materials. Her work with porous metal-organic frameworks represents a significant contribution to material science, offering new directions for applications in energy, sensing, and optical technologies. Her ability to merge theoretical insights with practical applications ensures her continued impact on both academic research and real-world technological advancement.