Lecturer , Nanjing Normal University , China
Shu Zhu 👨🔬 is a dedicated Lecturer at Nanjing Normal University 📍, serving in the School of Electrical and Automation Engineering and the Jiangsu Key Laboratory of 3D Printing Equipment and Manufacturing 🏫. He earned his Ph.D. in Mechanical Engineering from Southeast University 🎓 in 2024. His work focuses on microfluidics, impedance cytometry, and point-of-care testing (POCT) devices 🧪. With 19 publications in prestigious journals like Lab on a Chip and Analytica Chimica Acta, he is known for innovative tools like CytoExam, a deep learning-powered liquid biopsy device. 🧬💡
Professional Profile
ORCID
Education & Experience
Shu Zhu completed his Ph.D. in Mechanical Engineering from Southeast University (SEU) 🎓 in 2024, where he explored cutting-edge technologies in microfluidic systems 💧 and cell analysis. He is currently a Lecturer 👨🏫 at Nanjing Normal University, contributing to both teaching and high-impact research at the Jiangsu Key Laboratory of 3D Printing Equipment 🖨️. His academic journey is marked by rigorous exploration into impedance cytometry and microdevices for biomedical applications 🧫. With 530+ citations 📈 and 19 research papers, his experience bridges advanced research and practical healthcare solutions. 🧠🔬
Professional Development
Dr. Shu Zhu is an emerging expert in biomedical microdevices 🔍. He has been actively involved in major national projects like the National Natural Science Foundation of China and the Jiangsu Key R&D Program 🇨🇳. With 10 patents 📝 under his name, his professional growth has been fueled by innovation and problem-solving. He developed CytoExam, an AI-integrated diagnostic tool for CTC detection 🤖🧬. Though early in his career, his professional track reflects rapid growth 📊, meaningful impact, and a strong foundation for future leadership in microfluidic healthcare technologies 🚀.
Research Focus
Shu Zhu’s research 🔍 focuses on microfluidics, particularly inertial microfluidics, impedance cytometry, and POCT (point-of-care testing) devices 🧪. His innovations include CytoExam 🧬, a deep learning-enabled liquid biopsy system for identifying circulating tumor cells (CTCs), reflecting his commitment to merging bioengineering with clinical diagnostics 💻🧫. He also works on micromixing, cell deformability analysis, and dielectric characterization of cells 🔋. His research bridges multiple domains—mechanical engineering, biomedical diagnostics, and artificial intelligence—making significant contributions toward fast, accurate, and accessible healthcare technologies ⏱️🏥.
Awards & Honors
While formal awards may still be in progress, Shu Zhu’s achievements speak volumes 🌟. With 19 published SCI/EI papers 📰 and 10 patents pending or granted 🔖, his work is highly recognized in academic circles. His projects have received national-level funding from the NSFC and Jiangsu R&D initiatives 🇨🇳, reflecting strong institutional trust and impact. His citation index of over 530 📊 showcases the value and reach of his contributions to microfluidics and biomedical diagnostics 🔬. As a rising innovator, he is a strong candidate for accolades such as the Best Researcher Award 🥇.
Publication Top Notes
1. Comprehensive Analysis of Shear Deformation Cytometry Based on Numerical Simulation Method
Journal: Biosensors (2025-06)
DOI: 10.3390/bios15060389
Contributors: Jun Wang, Jiahe Chen, Wenlai Tang, Shu Zhu
🔎 Summary:
This study employs numerical simulations to enhance understanding of shear deformation cytometry, enabling more precise mechanical characterization of cells in microfluidic systems.
2. Multiparameter Mechanical Phenotyping for Accurate Cell Identification Using High-Throughput Microfluidic Deformability Cytometry
Journal: Analytical Chemistry (2024-06-25)
DOI: 10.1021/acs.analchem.4c01175
Contributors: Zheng Zhou, Kefan Guo, Shu Zhu, Chen Ni, Zhonghua Ni, Nan Xiang
🔎 Summary:
Presents a novel high-throughput deformability cytometry system integrating multiple mechanical properties for improved label-free cell classification.
3. Liquid Biopsy Instrument for Ultra-Fast and Label-Free Detection of Circulating Tumor Cells
Journal: Research (2024-01)
DOI: 10.34133/research.0431
Contributors: Shu Zhu et al.
🔎 Summary:
Describes a breakthrough microfluidic instrument that enables rapid, label-free detection of CTCs using AI-based analysis, enhancing cancer diagnostics.
4. Next‐Generation Liquid Biopsy Instruments: Challenges and Opportunities
Journal: ELECTROPHORESIS (2023-05)
DOI: 10.1002/elps.202200169
Contributors: Shu Zhu, Yaohui Fang, Kefan Guo, Zhonghua Ni, Nan Xiang
🔎 Summary:
Outlines key technical obstacles and future directions in the development of liquid biopsy devices for precision oncology.
5. Microfluidic Deformability Cytometry: A Review
Journal: Talanta (2023-01)
DOI: 10.1016/j.talanta.2022.123815
Contributors: Yao Chen, Kefan Guo, Lin Jiang, Shu Zhu, Zhonghua Ni, Nan Xiang
🔎 Summary:
A detailed overview of techniques and innovations in deformability cytometry via microfluidics, aimed at biomedical research applications.
6. Efficient Bioparticle Extraction Using a Miniaturized Inertial Microfluidic Centrifuge
Journal: Lab on a Chip (2022)
DOI: 10.1039/d2lc00496h
Contributors: Yaohui Fang, Shu Zhu, Weiqi Cheng, Zhonghua Ni, Nan Xiang
🔎 Summary:
Demonstrates a compact device capable of high-efficiency bioparticle separation for use in portable medical diagnostics.
7. A Novel 3D Tesla Valve Micromixer for Efficient Mixing and Chitosan Nanoparticle Production
Journal: ELECTROPHORESIS (2022-11)
DOI: 10.1002/elps.202200077
Contributors: Kefan Guo, Yao Chen, Zheng Zhou, Shu Zhu, Zhonghua Ni, Nan Xiang
🔎 Summary:
Introduces a Tesla-inspired micromixer that enhances fluid mixing and supports biomedical nanoparticle synthesis applications.
8. An Ultra-Thin Silicon Nitride Membrane for Label-Free CTCs Isolation from Whole Blood with Low WBC Residue
Journal: Separation and Purification Technology (2022-09)
DOI: 10.1016/j.seppur.2022.121349
Contributors: Yunlin Quan, Zhixian Zhu, Dezhi Tang, Shu Zhu, et al.
🔎 Summary:
Highlights the efficiency of an ultra-thin membrane for clean, label-free isolation of cancer cells from blood samples.
9. Label-Free Microfluidics for Single-Cell Analysis
Journal: Microchemical Journal (2022-06)
DOI: 10.1016/j.microc.2022.107284
Contributors: Yao Chen, Zheng Zhou, Shu Zhu, Zhonghua Ni, Nan Xiang
🔎 Summary:
Explores microfluidic systems enabling individual cell profiling without the need for external labels or markers.
10. Stackable Micromixer with Modular Design for Efficient Mixing Over Wide Reynold Numbers
Journal: International Journal of Heat and Mass Transfer (2022-02)
DOI: 10.1016/j.ijheatmasstransfer.2021.122129
Contributors: Shu Zhu, Yaohui Fang, Yao Chen, et al.
🔎 Summary:
Introduces a modular mixing solution that adapts to a wide range of flow conditions, optimizing reactions in microfluidic settings.
11. Inertial Microfluidics for High-Throughput Cell Analysis and Detection: A Review
Journal: The Analyst (2021)
DOI: 10.1039/d1an00983d
Contributors: Zheng Zhou, Yao Chen, Shu Zhu, Linbo Liu, et al.
🔎 Summary:
Reviews the mechanisms and biomedical relevance of using inertial microfluidics for rapid and scalable cellular diagnostics.
12. Microfluidic Impedance Cytometry for Single-Cell Sensing: Review on Electrode Configurations
Journal: Talanta (2021-10)
DOI: 10.1016/j.talanta.2021.122571
Contributors: Shu Zhu, Xiaozhe Zhang, Zheng Zhou, et al.
🔎 Summary:
Analyzes various electrode setups for impedance cytometry, detailing how they influence single-cell electrical measurements.
13. An Easy-Fabricated and Disposable Polymer-Film Microfluidic Impedance Cytometer for Cell Sensing
Journal: Analytica Chimica Acta (2021-08)
DOI: 10.1016/j.aca.2021.338759
Contributors: Shu Zhu, Xiaozhe Zhang, Mu Chen, et al.
🔎 Summary:
Describes the development of a low-cost, disposable cytometer fabricated from polymer film, optimized for practical biomedical testing.
Conclusion
Dr. Shu Zhu demonstrates exceptional credentials for the Best Researcher Award, blending cutting-edge scientific research with real-world medical impact. His inventions like CytoExam and advancements in label-free CTC detection via microfluidic platforms highlight his strong contribution to biomedical engineering and diagnostic technology. His publication quality, patent portfolio, and dedicated focus on translational healthcare innovations place him among top contenders in his field.