Dr. Kali Wilson Department of Physics University of Strathclyde 107 Rottenrow East Glasgow G4 0NG United Kingdom kali.wilson@strath.ac.uk Office: John Anderson 607Phone: (+44) 141 548 3363 Fax: (+44) 141 552 2891 
Research:
Superfluid dynamics 
Bio
My experimental background spans ultracold atoms and molecules, nonlinear optics, and quantum imaging technologies. Following my undergraduate at Wellesley College, I taught highschool physics for 4years, developing an inquirybased curriculum with an emphasis on light and optics.I then did my PhD in Optical Sciences in Brian Anderson’s group at the University of Arizona College of Optical Sciences, studying vortex dynamics and quantum turbulence in BoseEinstein condensates (BECs). I developed techniques for vortex imaging, and for generating vortex distributions with signatures of quantum turbulence.
In 2015, I moved to Edinburgh to join Daniele Faccio’s group at Heriot–Watt University (the group has since moved to Glasgow University) to investigate photon fluids, i.e., superfluids of light, with applications to superfluidity, analogue gravity, and photon droplets. A complementary atomic physics / quantum imaging research direction involved using single photon avalanche diode cameraarrays for realtime imaging of slow light propagating through rubidium vapour. In 2018, I joined Simon Cornish’s group at Durham University, working on the CsYb ultracold atom experiment. During my time in Durham, we demonstrated the first CsYb dualBECs which facilitate studies of beyond meanfield physics in ultracold atoms.
I joined the EQOP group at Strathclyde in January 2021 with a Royal Society University Research Fellowship.
Research
My research uses superfluids of light and superfluids formed of ultracold atoms to address fundamental physics questions such as the mechanisms underlying turbulence, and cooperative behaviour in manybody quantum systems, and relies on bridging experimental techniques from the atomic physics, nonlinear optics and imaging communities.
What are the mechanisms underlying turbulent fluid flow? How do these flows facilitate transport of energy and materials?
Turbulent flows, such as the disordered, chaotic tangle of eddies and whirlpools generated as water rushes past a boulder, are ubiquitous in nature. Turbulent mixing, e.g. in ocean flows, plays an important role in the transfer of energy, materials, and organisms. Despite their familiarity, turbulent flows are among the most challenging scientific subjects to understand theoretically, and the underlying mechanisms that generate turbulence and dictate its properties remain largely unknown. The unique properties of superfluid mixtures can be used to reduce turbulent flow to its component parts, allowing us to studying how quantum eddies and whirlpools interact to transfer energy throughout the turbulent fluid.
What are the mechanisms underlying the emergence of cooperative behaviour from a system of many interacting quantum particles, and how does this cooperative behaviour change when the system is driven out of equilibrium?
Society relies on manmade materials, from the electronic components in our phones to the synthetic fibres we use to keep warm. A new class of quantum materials promises to harness the bizarre properties of quantum mechanics to radically change the way we process information and transmit power. In these quantum materials, properties such as superfluidity (fluid flow without viscosity) or superconductivity (conduction of electricity without resistance), emerge as a result of cooperative behaviour of the microscopic particles that make up the materials. The mechanisms behind this cooperative behaviour are elusive, and difficult to understand from first principles. Novel quantum materials, such as quantum droplets formed in a mixture of twospecies of ultracold atoms, can help us to study experimentally how quantum particles interact cooperatively to produce macroscopic properties. This allows us to isolate the role of quantum effects such as fluctuations and entanglement in macroscopic emergent phenomena.
I have a funded PhD position available so please contact me if you are interested.
Publications (see also: GoogleScholar, Orcid, ResearcherID)

 K.E. Wilson, E. Carlo Samson, Z.L. Newman, and B.P. Anderson, Generation of high windingnumber superfluid circulation in BoseEinstein condensates, arXiv:2109.12945 (2021).
 K.E. Wilson*, A. Guttridge*, IK. Liu, J. Segal, T.P. Billam, N.G. Parker, N.P. Proukakis, and S.L. Cornish, Dynamics of a degenerate CsYb mixture with attractive interspecies interactions, Phys. Rev. Research 3, 033096 (2021). *K.W. and A.G. contributed equally. [open access]
 K.E. Wilson*, A. Guttridge*, J. Segal, and S.L. Cornish, Quantum degenerate mixtures of Cs and Yb, Phys. Rev. A 103, 033306 (2021). *K.W. and A.G. contributed equally. [arXiv]
 K.E. Wilson, N. Westerberg, M. Valiente, C. W. Duncan, E.M. Wright, P. Öhberg, and D. Faccio, Observation of photon droplets and their dynamics, Phys. Rev. Lett. 121, 133903 (2018). [arXiv]
 N. Westerberg, K.E. Wilson, C. W. Duncan, D. Faccio, E.M. Wright, P. Öhberg, and M. Valiente, Selfbound droplets of light with orbital angular momentum, Phys. Rev. A 98, 053835 (2018). [arXiv]
 G. Musarra, K.E. Wilson, D. Faccio, E.M. Wright, Rotationdependent nonlinear absorption of orbital angular momentum beams in ruby, Opt. Lett. 43, 3073 (2018). [pdf]
 P. Caramazza, K. Wilson, G. Gariepy, J. Leach, S. McLaughlin, D. Faccio, Y. Altmann, Enhancing the recovery of a temporal sequence of images using joint deconvolution, Sci. Rep. 8, 5257 (2018). [open access]
 D.Vocke, C. Maitland, A. Prain, K.E. Wilson, F. Biancalana, E.M. Wright, F. Marino, and D. Faccio, Rotating black hole geometries in a twodimensional photon superfluid, Optica 5, 1099 (2018). [open access]
 K. Wilson, B. Little, G. Gariepy, R. Henderson, J. Howell, D. Faccio, Slow light in flight imaging, Phys. Rev. A 95, 023830 (2017). [arXiv]
 D. Vocke*, K. Wilson*, F. Marino, I. Carusotto, B.P. Anderson, P. Öhberg, and D. Faccio, Role of geometry in the superfluid flow of nonlocal photon fluids, Phys. Rev. A 94, 013849 (2016). *D.V. and K.W. contributed equally. [arXiv]
 E.C. Samson, K.E. Wilson, Z.L. Newman, and B.P. Anderson, Deterministic creation, pinning, and manipulation of quantized vortices in a BoseEinstein condensate, Phys. Rev. A 93, 023603 (2016). [arXiv]
 T. Roger, C. Maitland, K. Wilson, N. Westerberg, D. Vocke, E.M. Wright, and D. Faccio, Optical analogues of the NewtonSchrödinger equation and boson star evolution, Nat. Comms. 7, 13492 (2016). [open access]
 N. Westerberg, C. Maitland, D. Faccio, K. Wilson, P. Öhberg, and E.M. Wright, Synthetic magnetism for photon fluids, Phys. Rev. A 94, 023805 (2016). [arXiv]
 K.E. Wilson, Z.L. Newman, J.D. Lowney and B.P. Anderson, In situ imaging of vortices in BoseEinstein condensates, Phys. Rev. A 91, 023621 (2015). [arXiv]
 K.E. Wilson, E.C. Samson, Z.L. Newman, T.W. Neely and B.P. Anderson, Experimental methods for generating twodimensional quantum turbulence in BoseEinstein condensates, Annual Review of Cold Atoms and Molecules, Vol. 1, Chpt. 7, Pgs. 261298 (2013). Eds: Kirk Madison, Yiqiu Wang, Ana Maria Rey and Kai Bongs. [arXiv]