Yufan Zheng is an incoming PhD student (2025 fall) at the University of Canberra, Australia, and the ARC Training Centre in Plant Biosecurity, supervised by Prof. Richard Duncan, Dr. Angus Carnegie, and Dr. Helen Nahrung. He was a full-time research assistant at the City University of Hong Kong, supervised by Dr. Eric Wong and Dr. Sean Yuan during December 2022 and July 2024.
He worked at Huangpu Institute of Materials with Dr. Feng Ye between March 2022 and November 2022.
He received his B.Eng. degree in computer science and technology with outstanding graduate honors from the Nanfang College of Sun Yat-sen University in Guangzhou, China.
He was advised by Dr. Choujun Zhan, Prof. Haijuan Zhang, and Prof. Guanrong Chen during his undergraduate college years (2018-2022). He was also fortunate to be mentored and work with Dr. Rocky Chen from the University of Queensland, Australia.
Welcome discussions and collaboration with researchers from any backgrounds. Please feel free to reach out!!!
✉️ Email: zhjpre@gmail.com & ivan.zane1999@gmail.com
🎓 Google Scholar  /  🆔 ORCID  /  🐙 Github  /  📄 CV
My research focuses on developing useful tools that help humans make better decisions in different areas (healthcare, industry, public health, and social media) and exploring potential relationships between mass data. Relevant areas include but are not limited to: Data mining, Machine learning, Network science, Dynamic systems, Computational epidemiology, and Time series.
Currently, infectious disease prevention and control and prediction face challenges such as diverse data sources, incomplete data, and complex systems. To effectively respond to the epidemic, it is necessary to integrate multi-source data and adopt a variety of modeling and analysis methods to achieve prevention, prediction, and intervention of the epidemic.
This research framework aims to improve the understanding and control of epidemic spread through database integration, statistical and machine learning modeling, dynamic system prediction, and intervention effect evaluation. This framework is not only suitable for the analysis of high-uncertainty time series data, but can also be extended to other complex systems that require real-time modeling.
Ensuring pest area freedom is vital for trade, requiring robust, statistically supported evidence. This involves integrating large datasets from government, industry, and community surveillance, leveraging advanced computational techniques to support biosecurity market access, and optimizing surveillance strategies.
This project aims to create a comprehensive catalogue of forest pest surveillance and diagnostic data collected through targeted and general biosecurity efforts at regional and national levels. The primary objectives are to assess the suitability of these data for biosecurity purposes and explore how it can be integrated and analysed to achieve the following outcomes: