Open
positions

This project explores how optical microcombs, tiny chip-scale devices that generate highly stable, precisely spaced frequencies of light, can be used to create a new class of high-performance optical gyroscopes, in partnership with Defence Science and Technology Group (DSTG).

This opportunity can be based in Melbourne or Canberra, and is based at the Swinburne University of Technology.

This project explores the idea that the intrinsic periodic oscillation of a microcomb can be used to simplify advanced optical communication systems, and help support precision timing across optical communication networks.

This opportunity is based in Melbourne at our Monash University node.

This project aims to develop a compact sensing platform integrating electro-optic frequency comb technology with photoacoustic detection to enable rapid, broadband, and highly sensitive gas analysis, with practical applications in air quality monitoring, emissions tracking, hydrogen safety, and medical breath analysis.

This opportunity is based in Melbourne at our RMIT University node.

This project aims to study thunderstorms using Distributed Acoustic Sensing (DAS) data recorded during field experiments in New Zealand and Australia.

This opportunity is based in Canberra, at our Australian National University node.

This project will explore integration of lithium niobate integrated photonic chips as an additional modular building block to enhance the external cavity lasers currently being commercialised by industry partner MOGLabs.

This opportunity is based in Melbourne at our RMIT University node.

This project will explore nonlinear photonics chips in lithium niobate for efficiently broadening the light emitted from a microcomb into an octave spanning frequency comb with industry partner Menlo Systems.

This opportunity is based in Melbourne at our RMIT University node.