I graduated from Heriot-Watt University, Edinburgh, with a BSc (Hons) in Applied Physics with Semiconductor Electronics and did a Ph.D. at the University of Strathclyde, Glasgow, theoretically and computationally modelling nonlinear optical systems. After a career break to raise my children, I worked in the Optics Group at the University of Glasgow investigating microrheology and optical tweezers before returning to Strathclyde to work in quantum optics. I am currently a senior lecturer in the Computational and Nonlinear Optics Group at the University of Strathclyde, Deputy Director of Teaching, and lead the Fully-Structured Light Group (FOAM).
I was delighted and honoured to be awarded the "Best Teacher in Faculty of Science" at Strathclyde Union Teaching Excellence Awards 2019, a Faculty Teaching Excellence Award for Teaching Innovation in 2019, and a Strathclyde Medal in 2020.
I am the Deputy Director of Teaching for the Department of Physics.
I currently teach 1st year mechanics and electromagnetism in PH183: Mechanics & Waves and PH184: Electromagnetism & Quantum Physics, and optical angular momentum as part of PH562 Adv. Topics in Quantum Optics.
My research is based upon the generation and applications of structured light, in particular light carrying orbital angular momentum (OAM). It ranges from understanding the fundamental properties of this light to investigating its behaviour in various nonlinear systems, including demonstrating for the first time the mechanism behind optical rogue waves, to potential applications in quantum communication, ocean optics, nonlinear beam propagation and interaction with chiral molecules.
- Structuring light for controlled propagation of optical and atomic solitons
- Conference for Undergraduate Women in Physics (CUWiP) 2022
- Colloquium on Structuring light for controlled propagation and manipulation
- Light-mediated interaction in single-mirror feedback systems
- Control of spatially rotating solitons in a self-focusing Kerr cavity
- Reviewer in the evaluation of the Doctoral Academy Consortium NanoGraz: Functional Nanostructures in Physics, Chemistry and Life Sciences
More professional activities
- Doctoral Training Partnership 2018-19 University of Strathclyde | Henderson, Grant
- Yao, Alison (Principal Investigator) Oppo, Gian-Luca (Co-investigator) Henderson, Grant (Research Co-investigator)
- 01-Jan-2019 - 01-Jan-2023
- Doctoral Training Partnership (DTP 2016-2017 University of Strathclyde) | Hill, Lewis
- Oppo, Gian-Luca (Principal Investigator) Yao, Alison (Co-investigator) Hill, Lewis (Research Co-investigator)
- 01-Jan-2017 - 06-Jan-2021
- Control and Applications of Structured Light and Chiral Molecules
- Yao, Alison (Principal Investigator)
- 01-Jan-2017 - 31-Jan-2021
- Collective effects and optomechanics in ultra-cold matter (ColOpt) (H2020 MCSA ETN)
- Ackemann, Thorsten (Principal Investigator) Griffin, Paul (Co-investigator) Oppo, Gian-Luca (Co-investigator) Robb, Gordon (Co-investigator) Yao, Alison (Co-investigator)
- 01-Jan-2017 - 31-Jan-2020
- ORANGUTRAN - ORbital ANGUlar momentum TRANsmissometer with zero collection angle error
- McKee, David (Principal Investigator) Griffin, Paul (Co-investigator) Yao, Alison (Co-investigator)
- "Light passing through natural water systems experiences both absorption and scattering leading to important effects such as heating of the water, growth of plants through photosynthesis and generation of reflectance signals for remote sensing systems. One of the most common measures of the optical properties of a water body is the beam attenuation coefficient which is the sum of absorption and scattering. This is usually measured by recording the intensity of a beam of light after it has passed through a known length of water and comparing the signal with that obtained either in air or, more usually, in ultrapure water. It is usually assumed that any photons either absorbed or scattered do not make it to the detector and so the remaining signal is due entirely to directly transmitted photons. However, in reality, light is scattered in water in such a way that standard transmissometers accidentally collect a large and quite variable amount of forward scattered light. This means that the signal they generate has a large error that is actually a feature of the instrument design, and sensors with different optical layouts will provide substantially different values. It has long been thought that this was an inevitable feature of the measurement and most users simply ignore the problem. Indeed, current NASA measurement protocols for this parameter explicitly leave it to the end user of data to work out how to deal with this problem. This is an intolerable position for which we have recently found a new solution.
We are planning to build a new device to measure beam attenuation that exploits a recently developed understanding of a quantum property of photons called orbital angular momentum, OAM. We can control this quantum state of light and generate a beam of light with a defined OAM state. When such a beam of light experiences a scattering event, the OAM state changes by a defined, quantum amount that we can easily identify. We can use this change of quantum state to effectively label scattered photons and discriminate them from directly transmitted photons. This means we can measure the number of photons that make it across a volume of water without being absorbed or scattered, without being affected by the scattering collection error that causes problems for current instruments. Our device will then be significantly more accurate than what is currently available and will help researchers and other end-users make significantly better and consistent measurements of what is an extremely important optical property of natural water systems."
- 30-Jan-2016 - 29-Jan-2017
- Doctoral Training Partnership (DTA - University of Strathclyde) | Gibson, Christopher
- Yao, Alison (Principal Investigator) Oppo, Gian-Luca (Co-investigator) Gibson, Christopher (Research Co-investigator)
- 01-Jan-2014 - 23-Jan-2019