Christopher Miller

Dr. Christopher Miller is a Lecturer in the School of Civil and Environmental Engineering at the University of New South Wales (UNSW), Sydney. His academic appointment focuses on environmental engineering with a strong emphasis on chemical processes in natural and engineered water systems.

Dr. Miller received his PhD in Environmental Engineering from UNSW in 2012, following dual undergraduate degrees in 2007: a Bachelor of Engineering (Environmental Engineering, First Class Honors with University Medal) and a Bachelor of Science (Chemistry), both from UNSW.

Dr. Miller's research centers on advanced oxidation processes and redox chemistry in environmental systems. His work focuses on developing mechanistic models of redox processes relevant to both engineered water treatment systems and natural biogeochemical cycles. He specifically investigates trace metal biogeochemistry, with emphasis on iron and copper chemistry, and their applications in water treatment technologies. His research aims to bridge fundamental chemical understanding with practical engineering applications to improve water treatment processes.

Analysis of Dr. Miller's recent publications (2021-2024) reveals a strong focus on membrane capacitive deionization (MCDI) for brackish water desalination, particularly for remote Australian communities. His work also explores fundamental aspects of advanced oxidation processes, including ferryl ion chemistry, hydroxyl radical generation, and copper-mediated redox transformations. These studies combine experimental and computational approaches to elucidate reaction mechanisms that underpin water treatment technologies.

Dr. Miller's research has been published in high-impact environmental science and engineering journals including Environmental Science & Technology, Water Research, and ACS Catalysis. His collaborative work often involves interdisciplinary teams addressing complex water treatment challenges.

Dr. Miller's teaching and research activities focus on applying rigorous chemical principles to solve real-world environmental engineering problems. His work emphasizes understanding fundamental mechanisms to enable more effective and efficient water treatment technologies, particularly for challenging water sources in remote locations.