Professor Damien Hicks
PhD, Massachusetts Institute of Technology, United States; MS, Stanford University, United States; BS, Stanford University, United States
- Faculty of Science, Engineering & Technology
- School of Science
- Centre for Micro-Photonics
- Department of Physics and Astronomy
- AMDC 821 Hawthorn campus
- ORCID profile
I received my BS (1993) and MS (1993) from Stanford University in Mechanical Engineering and my PhD (1999) from the Massachusetts Institute of Technology in Applied Plasma Physics. From 2000-2014 I was a post-doc then staff physicist at Lawrence Livermore National Laboratory, working in high energy density physics. From 2010-2012 I led an experimental team in the nuclear fusion program at the National Ignition Facility. After returning to Australia, I was an Australian Research Council Future Fellow from 2015-2019 when I redirected my research towards the study of living systems. I currently lead the Complex Systems group which focuses on modelling and inference of cellular decision-making and brain dynamics. A key theme in our work is how symmetry can be used to identify the quantities of interest in a complex system. We have used representation theory to develop a new quantitative framework, called the lineage variability map, that identifies the stages of cellular decision-making in noisy lineage trees. Another theme is the role of identifiability in dynamical systems, which we have shown can both obscure and reveal physiological drivers of brain dynamics. Through a dialogue between biological questions, physical models, and statistical methods we aim to improve how to extract mechanistic insights from noisy, high-dimensional data.
Computational Biology; Applied Statistics; Complex Systems
PhD candidate and honours supervision
Higher degrees by research
Accredited to supervise Masters & Doctoral students as Principal Supervisor.
Available to supervise honours students.
Honours topics and outlines
Molecular networks: Molecular networks underpin all living systems, bringing robustness and reliability to life. Yet when studied at the level of a single cell, these biological circuts are noisy and unpredictable. It is an enduring mystery how stable life forms can be built on such turbulent foundations. Projects are available to study the interplay of noise and function in cancer and cell death.
Fields of Research
- Atomic, Molecular, Nuclear, Particle And Plasma Physics - 020200
- Biological Physics - 029901
Statistical Mechanics;Classical Mechanics
Also published as: Hicks, Damien; Hicks, D.; Hicks, D. G.; Hicks, Damien G.
This publication listing is provided by Swinburne Research Bank. If you are the owner of this profile, you can update your publications using our online form.
Recent research grants awarded
- 2020: 3D Nanofabrication and Nanocharacterisation facility *; ARC Linkage Infrastructure and Equipment Scheme
- 2014: Ultrafast Photonic Electron Microscopy: Visualising dynamics at the nanoscale *; ARC Future Fellowships
* Chief Investigator
There are no media items to display