Description

Recent research has shown that the shape of a fire, the perimeter and area of the burning region are crucial to the development of firestorms. Using state of the art simulation techniques, this project will build upon previous research by investigating how plume dynamics are affected by different fire configurations that evolve over time. This research will inform operational models of firestorm development and will assist in providing early warnings of catastrophic fire events.
Recent research has shown that the shape of a fire, the perimeter and area of the burning region are crucial to the development of firestorms. Using state of the art simulation techniques, this project will build upon previous research by investigating how plume dynamics are affected by different fire configurations that evolve over time. This research will inform operational models of firestorm development and will assist in providing early warnings of catastrophic fire events.

Desired background

BSc in mathematics, physics, meteorology, BEng (mech), or equivalent preferred. Masters by research or practical experience is an asset. The successful applicant would need to meet the Australian Government H1 or H2A standards and UNSW entry standards.

School

School of Science, UNSW Canberra

Research Area

Bushfire

Program Code

1881 | 2921