STAFF PROFILE
Dr. Jean-Philippe Tetienne
Position:
Senior Research Fellow
College / Portfolio:
STEM College
School / Department:
STEM|School of Science
Campus:
City Campus
Contact me about:
Research supervision
Dr Jean-Philippe Tetienne is an experimental physicist and leader of the Quantum Sensing research group.
The Quantum Sensing group led by Dr Jean-Philippe Tetienne specialises in the physics and applications of quantum sensing technologies based on optically addressed spin defects in solids, particularly diamond and boron nitride. These crystalline defects form robust quantum systems that can be used to provide quantitative measurements of magnetic and electric fields as well as pressure and temperature, with an accuracy, sensitivity and spatial resolution exceeding what is possible with existing classical technologies. Our group researches the fundamental physics of these quantum defects and the engineering of the materials, and develop and test sensing devices and instruments that exploit these quantum defects for specific applications. For example, we develop quantum microscopes for the advanced characterisation of magnetic materials and electronic devices, high-accuracy temperature sensors for medical and industrial applications, high-sensitivity compact magnetometers for defence and space applications, and portable nuclear magnetic resonance spectrometers for chemical analysis.
- PhD in Physics, 2014, Ecole Normale Superieure de Cachan, France
- Master in Physics, 2011, University of Paris-Diderot, France
- Licence in Electrical Engineering, 2009, University of Paris-Sud, France
- Healey, A.,Scholten, S.,Yang, T.,Abrahams, G.,Robertson, I.,Tetienne, J., et al., . (2023). Quantum microscopy with van der Waals heterostructures In: Nature Physics, 19, 87 - 91
- de Gille, R.,Healey, A.,Robertson, I.,Tetienne, J. P., et al, . (2023). Temperature and angle dependent magnetic imaging of biological iron nanoparticles using quantum diamond microscopy In: Applied Physics Letters, 122, 1 - 7
- Robertson, I.,Tan, C.,Scholten, S.,Healey, A.,Abrahams, G.,Zheng, G.,Manchon, A.,Wang, L.,Tetienne, J. (2023). Imaging current control of magnetization in Fe3GeTe2 with a widefield nitrogen-vacancy microscope In: 2D Materials, 10, 1 - 9
- Abrahams, G.,Ellul, E.,Robertson, I.,Khalid, A.,Greentree, A.,Gibson, B.,Tetienne, J. (2023). Handheld Device for Noncontact Thermometry via Optically Detected Magnetic Resonance of Proximate Diamond Sensors In: Physical Review Applied, 19, 1 - 17
- Robertson, I.,Scholten, S.,Singh, P.,Healey, A.,Meneses, F.,Reineck, P.,Tetienne, J.P., et al, . (2023). Detection of Paramagnetic Spins with an Ultrathin van der Waals Quantum Sensor In: ACS Nano, 17, 13408 - 13417
- Whitefield, B.,Toth, M.,Aharonovich, I.,Tetienne, J.,Kianinia, M. (2023). Magnetic Field Sensitivity Optimization of Negatively Charged Boron Vacancy Defects in hBN. In: Advanced Quantum Technologies, 24, 1214 - 1230
- Healey, A.,Scholten, S.,Nadarajah, A.,Singh, P.,Dontschuk, N.,Hollenberg, L.,Simpson, D.,Tetienne, J. (2023). On the creation of near-surface nitrogen-vacancy centre ensembles by implantation of type Ib diamond In: Journal of Materials Research, 38, 4848 - 4857
- Guo, X.,Nguyen, C.,Syed, N.,Ravindran, A.,Cao, K.,Mazumder, A.,Xu, C.,Walia, S.,Scholten, S.,Robertson, I.,Healey, A.,Tetienne, J.,Elbourne, A.,Daeneke, T.,Holland, A.,Russo, S.,Li, Y.,Zavabeti, A., et al, . (2023). Multi-Functional Atomically Thin Oxides from Bismuth Liquid Metal In: Advanced Functional Materials, , 1 - 13
- Styles, R.,Candini, A.,Guarino, V.,Robertson, I.,Singh, P.,Abraham, A.,Broadway, D.,Greentree, A.,Gibson, B.,Tetienne, J.,Reineck, P., et al, . (2023). Quantum Sensing and Light Guiding with Fluorescent Nanodiamond-Doped PVA Fibers In: Advanced Optical Materials, , 1 - 9
- Dubois, A.,Broadway, D.,Stark, A.,Tschudin, M.,Healey, A.,Huber, S.,Tetienne, J.,Greplova, E.,Maletinsky, P. (2022). Untrained Physically Informed Neural Network for Image Reconstruction of Magnetic Field Sources In: Physical Review Applied, 18, 1 - 11
- Quantum microscopy facility for ultrasensitive nanoscale magnetic imaging (administered by UNSW). Funded by: ARC Linkage Infrastructure Equipment and Facilities (LIEF) Grant from (2024 to 2025)
- Quantum microscopy meets photovoltaics: new tools for solar cell research. Funded by: ARC Discovery Projects commencing in 2022 from (2022 to 2025)
- Unlocking the potential of magnetic 2D materials with quantum microscopy. Funded by: ARC Future Fellowships 2018 onwards from (2021 to 2025)
1 Masters by Research Completions4 PhD Current Supervisions