A Waveguide Platform for Collective Light-Atom Interaction

Publikation: Bog/antologi/afhandling/rapportPh.d.-afhandlingForskning

Standard

A Waveguide Platform for Collective Light-Atom Interaction. / Sørensen, Heidi Lundgaard.

The Niels Bohr Institute, Faculty of Science, University of Copenhagen, 2015. 287 s.

Publikation: Bog/antologi/afhandling/rapportPh.d.-afhandlingForskning

Harvard

Sørensen, HL 2015, A Waveguide Platform for Collective Light-Atom Interaction. The Niels Bohr Institute, Faculty of Science, University of Copenhagen. <https://soeg.kb.dk/permalink/45KBDK_KGL/fbp0ps/alma99122859010105763>

APA

Sørensen, H. L. (2015). A Waveguide Platform for Collective Light-Atom Interaction. The Niels Bohr Institute, Faculty of Science, University of Copenhagen. https://soeg.kb.dk/permalink/45KBDK_KGL/fbp0ps/alma99122859010105763

Vancouver

Sørensen HL. A Waveguide Platform for Collective Light-Atom Interaction. The Niels Bohr Institute, Faculty of Science, University of Copenhagen, 2015. 287 s.

Author

Sørensen, Heidi Lundgaard. / A Waveguide Platform for Collective Light-Atom Interaction. The Niels Bohr Institute, Faculty of Science, University of Copenhagen, 2015. 287 s.

Bibtex

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title = "A Waveguide Platform for Collective Light-Atom Interaction",
abstract = "In this work a tapered optical fiber is studied as a waveguide platform for efficient collective light-atom interaction. We present an allcomputer controlled heat-and-pull setup with which a standard optical fiber can reproducible be tapered down to sub-micron waist size.The resulting fiber shape is compared against a prediction derived from a numerical model build upon an easy experimental calibration of the viscosity profile within the heater. Very good agreement between the modeled and measured fiber shape is found.We next study the coherent back-scattering off atoms confined as two one-dimensional strings in the evanescent field of a tapered optical fiber. By applying a near-resonant standing wave field, the atoms are arranged into a periodic Bragg structure in close analogy to a photo-refractive medium with a refractive index grating. We observe more than 10% power reflection off about 1000 structured atoms, corresponding to an enhancement of two orders of magnitude when compared to reflections off an unstructured atomic ensemble",
author = "S{\o}rensen, {Heidi Lundgaard}",
year = "2015",
language = "English",
publisher = "The Niels Bohr Institute, Faculty of Science, University of Copenhagen",

}

RIS

TY - BOOK

T1 - A Waveguide Platform for Collective Light-Atom Interaction

AU - Sørensen, Heidi Lundgaard

PY - 2015

Y1 - 2015

N2 - In this work a tapered optical fiber is studied as a waveguide platform for efficient collective light-atom interaction. We present an allcomputer controlled heat-and-pull setup with which a standard optical fiber can reproducible be tapered down to sub-micron waist size.The resulting fiber shape is compared against a prediction derived from a numerical model build upon an easy experimental calibration of the viscosity profile within the heater. Very good agreement between the modeled and measured fiber shape is found.We next study the coherent back-scattering off atoms confined as two one-dimensional strings in the evanescent field of a tapered optical fiber. By applying a near-resonant standing wave field, the atoms are arranged into a periodic Bragg structure in close analogy to a photo-refractive medium with a refractive index grating. We observe more than 10% power reflection off about 1000 structured atoms, corresponding to an enhancement of two orders of magnitude when compared to reflections off an unstructured atomic ensemble

AB - In this work a tapered optical fiber is studied as a waveguide platform for efficient collective light-atom interaction. We present an allcomputer controlled heat-and-pull setup with which a standard optical fiber can reproducible be tapered down to sub-micron waist size.The resulting fiber shape is compared against a prediction derived from a numerical model build upon an easy experimental calibration of the viscosity profile within the heater. Very good agreement between the modeled and measured fiber shape is found.We next study the coherent back-scattering off atoms confined as two one-dimensional strings in the evanescent field of a tapered optical fiber. By applying a near-resonant standing wave field, the atoms are arranged into a periodic Bragg structure in close analogy to a photo-refractive medium with a refractive index grating. We observe more than 10% power reflection off about 1000 structured atoms, corresponding to an enhancement of two orders of magnitude when compared to reflections off an unstructured atomic ensemble

UR - https://soeg.kb.dk/permalink/45KBDK_KGL/fbp0ps/alma99122859010105763

M3 - Ph.D. thesis

BT - A Waveguide Platform for Collective Light-Atom Interaction

PB - The Niels Bohr Institute, Faculty of Science, University of Copenhagen

ER -

ID: 154528305