About
Associate Professor Michael Jack is a faculty member in the Department of Physics at the University of Otago, specializing in sustainable energy research that bridges theoretical physics with practical applications. His work focuses on transforming energy systems through innovative approaches to renewable integration and nanoscale energy conversion.
His academic foundation includes undergraduate studies at the University of Canterbury and postgraduate work at the University of Auckland, followed by postdoctoral positions at Hiroshima University, Tokyo Institute of Technology, NTT Basic Research Laboratories, and Rice University. After serving as Science Leader of Clean Technologies at Scion until 2014, he joined the University of Otago as a Senior Lecturer before advancing to Associate Professor.
Professor Jack's research spans two critical domains: smart energy systems for grid flexibility and nanoscale energy conversion using molecular motors. His team develops mathematical frameworks to optimize renewable integration through technologies like EVs and energy storage, while exploring thermal fluctuations in biological nanomachines to inspire next-generation energy-efficient technologies. This work contributes significantly to Active Matter research and sustainable energy transitions.
His 2024-2025 publications reveal a concentrated effort on New Zealand's energy challenges, employing interdisciplinary methods from statistical physics to machine learning. Key themes include electric vehicle integration, residential energy demand modeling, and hydrogen transportation systems - all addressing the urgent need for low-carbon energy solutions through rigorous quantitative analysis.
Professor Jack leads a collaborative research group working with the Centre for Sustainability (CSAFE), University of Canterbury, and Scion's Dr. Katharine Challis. His teaching portfolio includes EMAN 308 Thermoprocesses 2, EMAN 403 Linear Systems and Control Theory, and EMAN 405 Energy Practice (which he coordinates), preparing students for energy system challenges through hands-on practice.
