Dan Yuan

Dr Dan Yuan is a lead researcher in the field of viscoelastic microfluidics and its applications. She has developed comprehensive understanding of fundamental physics for particle migration in microfluidics especially viscoelastic microfluidics, which could expand the boundary of current knowledge. Also, she has developed cutting edge microfluidic technologies for particle and cell manipulation and separation, aiming at addressing real-life challenges in both biomedicine and environment. Her research achievements and emerging reputation have been acknowledged by the broader scientific community. She was awarded the competitive Alfred Deakin Research Fellowship and awarded JSPS Fellowship as a chief investigator and secured $378K AUD research funding in total.

She was the first to develop viscoelastic fluids-based microdevices for cell manipulation and apply them to extract blood plasma from blood with ultra-high purity (Lab Chip, 2016, 16(20): 3919-3928.). This work has attracted international interests due to its potential in cancer diagnostics and prognosis, as evidenced by reports of her discovery by worldwide media in 2017: Health Canal (United States); Technology Networks (United Kingdom); UOW (University of Wollongong) news (Australia); X-MOL (China); et al. This ground-breaking research has been selected as the cover page of Lab Chip. Her work of developing viscoelastic microfluidic devices for cell purification (Lab Chip, 2019, 19(17): 2811-2821.) was selected as the cover page of Lab Chip, and was listed as one of Lab Chip’s highest citing papers contributing to its Impact Factor 7.517 (with 19 alone in 2021). This novel platform technology has started to transform the way cells are identified and purified, and is also paving the way for addressing problems with microalgae contamination in industrial processes. In addition to the size-based cell manipulation, she also pioneered the area of shape-based separation techniques and applied this to the separation of cyanobacteria, demonstrating the ability to manipulate cells based on morphologies and with a size of >100 μm (Anal. Chem. 2021, 93, 37, 12648–12654). This is a revolutionary achievement opening opportunities and applications in research fields not yet employing microfluidic technologies. This work was featured as a cover page article and has been interviewed and reported by media X-MOL (China). Her review article on the recent progress of particle migration in viscoelastic fluid (Lab Chip. 2018 18 (4): 551-567.) was listed as Web of Science Highly Cited paper.