Kang Liang

Dr. Kang Liang is a Scientia Associate Professor at the University of New South Wales (UNSW Sydney), specifically within the School of Chemical Engineering. He leads the Nano-Micro-Bio Systems research group and serves as Co-Chair of the Australian Synchrotron Program Advisory Committee for SAXS/WAXS and BioSAXS. His research focuses on the intersection of nanotechnology, biocatalysis, and materials science, with particular expertise in metal-organic frameworks and their applications in biomedical and environmental contexts.

Dr. Liang's research interests center around interfacial engineering of nanostructured materials, NanoBionics, biomimetics and biomineralization, and smart nano-micro-bio systems. His work explores how nanomaterials can interface with biological systems to create innovative solutions for healthcare, environmental monitoring, and energy applications. He has made significant contributions to the field of biocatalytic metal-organic frameworks, demonstrating their potential in drug delivery, cytoprotection, and cell manipulation.

His publication record shows a strong focus on developing advanced nanomaterials with applications spanning from environmental remediation (water purification, contaminant removal) to biomedical applications (drug delivery, biosensing, cancer treatment). The trends in his recent publications indicate increasing sophistication in the design of nanomotors and nanoswimmers, with growing emphasis on precision targeting, multi-functionality, and integration with biological systems.

• Victoria Fellowship in Physical Sciences (2017)
• Fellow of the Australian Royal Chemical Institute (FRACI)
• Fellow of the Royal Society of Chemistry (FRSC, UK)
• NHMRC Career Development Fellow (2019-2022)
• ARC Future Fellow (2023-2027)

Dr. Liang actively mentors PhD and MPhil students through his research group and encourages highly motivated candidates to join his team. His research is supported by significant funding including his current ARC Future Fellowship (2023-2027). His work bridges chemical engineering, materials science, and biomedical applications, creating a unique interdisciplinary approach to solving complex problems in healthcare and environmental sustainability.

His laboratory focuses on developing innovative nanomaterial platforms that interface with biological systems, with particular emphasis on creating responsive and adaptive systems that can perform specific functions when triggered by environmental conditions. The group's work represents a cutting-edge intersection of nanotechnology, bioengineering, and materials science.