1. Ahmadi, M.., Alves, B. X. R.., Baker, C. J.., Bertsche, W.., Capra, A.., Carruth, C.., Cesar, C. L.., Charlton, M.., Cohen, S.., Collister, R.., Eriksson, S.., Evans, A.., Evetts, N.., Fajans, J.., Friesen, T.., Fujiwara, M. C.., Gill, D. R.., Hangst, J. S.., Hardy, W. N.., et. al. (2018). Characterization of the 1S–2S transition in antihydrogen. Nature

   https://cronfa.swan.ac.uk/Record/cronfa39331 doi:10.1038/s41586-018-0017-2
2. Eriksson, S.. (2018). Precision measurements on trapped antihydrogen in the ALPHA experiment. Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences 376(2116), 20170268

   https://cronfa.swan.ac.uk/Record/cronfa39238 doi:10.1098/rsta.2017.0268
3. Ahmadi, M.., Alves, B. X. R.., Baker, C. J.., Bertsche, W.., Capra, A.., Carruth, C.., Cesar, C. L.., Charlton, M.., Cohen, S.., Collister, R.., Eriksson, S.., Evans, A.., Evetts, N.., Fajans, J.., Friesen, T.., Fujiwara, M. C.., Gill, D. R.., Hangst, J. S.., Hardy, W. N.., et. al. (2018). Enhanced Control and Reproducibility of Non-Neutral Plasmas. Physical Review Letters 120(2), 025001

   https://cronfa.swan.ac.uk/Record/cronfa39236 doi:10.1103/PhysRevLett.120.025001
4. Ahmadi, M., Alves, B., Baker, C., Bertsche, W., Butler, E., Capra, A., Carruth, C., Cesar, C., Charlton, M., Cohen, S., Collister, R., Eriksson, S., Evans, A., Evetts, N., Fajans, J., Friesen, T., Fujiwara, M., Gill, D., Gutierrez, A., et. al. (2017). Antihydrogen accumulation for fundamental symmetry tests. Nature Communications 8(1)

   https://cronfa.swan.ac.uk/Record/cronfa35636 doi:10.1038/s41467-017-00760-9
5. Ahmadi, M., Alves, B., Baker, C., Bertsche, W., Butler, E., Capra, A., Carruth, C., Cesar, C., Charlton, M., Cohen, S., Collister, R., Eriksson, S., Evans, A., Evetts, N., Fajans, J., Friesen, T., Fujiwara, M., Gill, D., Gutierrez, A., et. al. (2017). Observation of the hyperfine spectrum of antihydrogen. Nature 548(7665), 66-69.

   https://cronfa.swan.ac.uk/Record/cronfa34895 doi:10.1038/nature23446

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• PH-306 Atomic Physics I

  This course describes the application of quantum mechanics to atomic structure, together with the implications for spectroscopy. The electronic structure of hydrogen (including spin, fine structure and hyperfine structure), helium and alkali metals will be discussed from first principles in quantum mechanics. The effect on energy levels of applied magnetic fields (Zeeman effect) is calculated in perturbation theory. Practical examples of spectroscopy are briefly described.

• PH-M10 Atomic and Quantum Optics III

  This module deepens the student's understanding of atomic physics and quantum optics to a level which enables the student to participate under guidance in a research group involved in cutting edge research in the field.

• A light-matter quantum interface using cold atoms near tapered optical nanofibres (current)

  Student name: Alexander Alampounti

  PhD

  Other supervisor: Prof Michael Charlton

• A Study of Cold Atoms and Positronium (current)

  Student name: Rob Clayton

  PhD

  Other supervisor: Prof Michael Charlton

  Other supervisor: Dr Aled Isaac

• Using sympathetically laser cooled positrons for improved antihydrogen trapping in the ALPHA-2 apparatus.«br /» (current)

  Student name: Jack Jones

  PhD

  Other supervisor: Prof Niels Madsen

• A precision study of antimatter properties (current)

  Student name: Patrick Mullan

  PhD

  Other supervisor: Prof Niels Madsen

• ''Observation of the 1s-2s Transition in Trapped Antihydrogen'' (awarded 2018)

  Student name: Steven Jones

  PhD

  Other supervisor: Prof Michael Charlton