Optical fibre innovation via trans-disciplinary approach!

10 September 2018:

CNBP researchers have published a new  trans-disciplinary review that reports on the Centre’s development of advanced optical fibre probes for use in biomedical sensing and imaging. The paper examines CNBP innovation through convergence of multiple science disciplines to generate opportunities for the fibre probes to address key challenges in real-time in vivo diagnostics. The lead author on the paper is Dr Jiawen Li (pictured).

Journal: APL Photonics.

Publication title: Perspective: Biomedical sensing and imaging with optical fibers—Innovation through convergence of science disciplines.

Authors: Jiawen Li, Heike Ebendorff-Heidepriem, Brant C. Gibson,  Andrew D. Greentree, Mark R. Hutchinson, Peipei Jia, Roman Kostecki, Guozhen Liu, Antony Orth, Martin Ploschner, Erik P. Schartner,   Stephen C. Warren-Smith, Kaixin Zhang, Georgios Tsiminis, and Ewa M. Goldys.

Abstract: The probing of physiological processes in living organisms is a grand challenge that requires bespoke analytical tools. Optical fiber probes offer a minimally invasive approach to report physiological signals from specific locations inside the body. This perspective article discusses a wide range of such fiber probes developed at the Australian Research Council Centre of Excellence for Nanoscale BioPhotonics. Our fiber platforms use a range of sensing modalities, including embedded nanodiamonds for magnetometry, interferometric fiber cavities for refractive index sensing, and tailored metal coatings for surface plasmon resonance sensing. Other fiber probes exploit molecularly sensitive Raman scattering or fluorescence where optical fibers have been combined with chemical and immunosensors. Fiber imaging probes based on interferometry and computational imaging are also discussed as emerging in vivo diagnostic devices. We provide examples to illustrate how the convergence of multiple scientific disciplines generates opportunities for the fiber probes to address key challenges in real-time in vivo diagnostics. These future fiber probes will enable the asking and answering of scientific questions that were never possible before.