English

Efficient and long-lived Zeeman-sublevel atomic population storage in an erbium-doped glass fiber

Mesoscale and Nanoscale Physics 2016-01-11 v2 Optics Quantum Physics

Abstract

Long-lived population storage in optically pumped levels of rare-earth ions doped into solids, referred to as persistent spectral hole burning, is of significant fundamental and technological interest. However, the demonstration of deep and persistent holes in rare-earth ion doped amorphous hosts, e.g. glasses, has remained an open challenge since many decades -- a fact that motivates our work towards a better understanding of the interaction between impurities and vibrational modes in glasses. Here we report the first observation and detailed characterization of such holes in an erbium-doped silica glass fiber cooled to below 1 K. We demonstrate population storage in electronic Zeeman-sublevels of the erbium ground state with lifetimes up to 30 seconds and 80\% spin polarization. In addition to its fundamental aspect, our investigation reveals a potential technological application of rare-earth ion doped amorphous materials, including at telecommunication wavelength.

Keywords

Cite

@article{arxiv.1507.03012,
  title  = {Efficient and long-lived Zeeman-sublevel atomic population storage in an erbium-doped glass fiber},
  author = {Erhan Saglamyurek and Thomas Lutz and Lucile Veissier and Morgan P. Hedges and Charles W. Thiel and Rufus L. Cone and Wolfgang Tittel},
  journal= {arXiv preprint arXiv:1507.03012},
  year   = {2016}
}

Comments

5 pages, 5 figures, 1 table