Jamison Sloan

I am a first year Ph.D. student at MIT, and I work with Prof. Marin Soljačić in the Photonics and Modern Electromagnetics Group. I am currently working at the interface between theory and experiment. Generally, I am most interested in predicting new and exciting ways in which light can interact with matter in the context of nanophotonic structures and materials platforms. More information about my research interests and projects can be found below.

Research Interests
Research Interests


Strong interactions between polaritons and matter

It is well known that spontaneous emission is one of the most fundamental processes of light matter interaction. The rate of spontaneous emission of a level system is determined both by the electronic structure of the emitter, as well as its photonic environment. Through what is commonly known as the Purcell effect, it is possible to engineer the photonic environment of an emitter so that the rate of spontaneous emission is enhanced by many orders of magnitude. In my most recent work, I showed that excitations called surface magnon polaritons on negative permeability materials may enable interactions with spin transitions to occur more than 10 orders of magnitude faster than in free space.


Quantum electrodynamics in time-dependent media

One of the most profound insights of quantum electrodynamics (QED) is that the vacuum is not a void; rather, it teems with activity – a sea of quantum fluctuations which can interact with matter and even be converted into light. These vacuum fluctuations have fascinated physicists for decades, leading to the study of many vacuum-induced phenomena. Perhaps most well known is the Casimir effect, which famously predicts how two uncharged conducting plates, when placed close together, experience mutual attraction due to the fluctuating electromagnetic fields between the plates. Less well-known is the “dynamical” Casimir effect (DCE), in which two rapidly oscillating conducting plates produce entangled pairs of real photons at half the frequency of oscillation. This effect was predicted in 1970, but escaped observation until 2011 when it was realized in a system using microwave transmission lines and a SQUID modulator to quickly control the optical path length.

I am interested in exploring the potential intersection between the dynamical casimir effect and nanophotonic structures and materials, with the suspicion that modern materials platforms and nanoscale manufacturing capabilities may provide untapped opportunities to observe the dynamical casimir effect in a richer variety of systems. As a first step toward this goal, I am developing a more general framework for analyzing time-dependent systems through macroscopic QED.


Published/ In Press


Tunable UV-emitters through graphene plasmonics

J Sloan, N Rivera, M Soljačić, I Kaminer
Nano letters 18 (1), 308-313



Extreme enhancement of spin relaxation mediated by surface magnon polaritons

J Sloan, N Rivera, JD Joannopoulos, I Kaminer, M Soljačić
arXiv preprint arXiv:1810.06761



Exploiting Polaritons on Antiferromagnetic Materials to Enable Fast Spin Dynamics

J Sloan, N Rivera, J Joannopoulos, M Soljačić, I Kaminer
Materials Research Society (MRS) Fall Meeting 2018.

Planar-lens Enabled Beam Steering for Chip-scale LIDAR

JJ López, SA Skirlo, D Kharas, J Sloan, J Herd, P Juodawlkis, M Soljačić, Cheryl Sorace-Agaskar
CLEO: Science and Innovations, SM3I. 1 3 2018

Surface Magnon Polaritonics for Strong Magnetic Interactions with Light

J Sloan, N Rivera, J Joannopoulos, M Soljačić, I Kaminer
CLEO: Science and Innovations, SM2O. 6

Shaping UV emission through graphene plasmons

J Sloan, N Rivera, I Kaminer, M Soljačić
Lasers and Electro-Optics (CLEO), 2017 Conference on, 1-2 2017