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Towards high-power on-chip GHz frequency combs

Towards high-power on-chip GHz frequency combs
Towards high-power on-chip GHz frequency combs
In this paper we present on-chip mode-locked waveguide lasers fabricated in Yb-doped phosphate glass and Er, Yb doped phosphate glass. At 1 micron wavelength, pulse repetition rates of up to 15 GHz with pulses ~800 fs were demonstrated and at 1.5 micron, picosecond pulses with a repetition rate up to 7 GHz were demonstrated. Dispersion was controlled in the cavity by varying the spacing between the waveguide and the SESAM, while the repetition rate could be controlled by varying the optical power. The average power can also be scaled using an integrated optical amplifier and on-chip gain of up to 10 dB was demonstrated. All these individual components can be integrated in a single platform to achieve a high-power on-chip multi-GHz optical frequency comb. Furthermore, we discuss an application of such laser sources in high-capacity telecommunications applications.
Choudhary, A.
a5540b54-f153-43e4-a59a-e3ed9360904b
Lagatsky, A.
3e1a946c-4fde-4840-bc41-7774ffb1601f
Kannan, P.
d264c1f5-cbaf-42ac-a939-10fce00fa5cb
Brown, C.T.A.
23a6762c-3ca6-4a01-ac2b-255510b4debc
Shepherd, D.P.
9fdd51c4-39d6-41b3-9021-4c033c2f4ead
Choudhary, A.
a5540b54-f153-43e4-a59a-e3ed9360904b
Lagatsky, A.
3e1a946c-4fde-4840-bc41-7774ffb1601f
Kannan, P.
d264c1f5-cbaf-42ac-a939-10fce00fa5cb
Brown, C.T.A.
23a6762c-3ca6-4a01-ac2b-255510b4debc
Shepherd, D.P.
9fdd51c4-39d6-41b3-9021-4c033c2f4ead

Choudhary, A., Lagatsky, A., Kannan, P., Brown, C.T.A. and Shepherd, D.P. (2018) Towards high-power on-chip GHz frequency combs. Conference on Fiber Lasers and Glass Photonics - Materials through Applications, , Strasbourg, France. 22 - 26 Apr 2018. 6 pp . (doi:10.1117/12.2306711).

Record type: Conference or Workshop Item (Paper)

Abstract

In this paper we present on-chip mode-locked waveguide lasers fabricated in Yb-doped phosphate glass and Er, Yb doped phosphate glass. At 1 micron wavelength, pulse repetition rates of up to 15 GHz with pulses ~800 fs were demonstrated and at 1.5 micron, picosecond pulses with a repetition rate up to 7 GHz were demonstrated. Dispersion was controlled in the cavity by varying the spacing between the waveguide and the SESAM, while the repetition rate could be controlled by varying the optical power. The average power can also be scaled using an integrated optical amplifier and on-chip gain of up to 10 dB was demonstrated. All these individual components can be integrated in a single platform to achieve a high-power on-chip multi-GHz optical frequency comb. Furthermore, we discuss an application of such laser sources in high-capacity telecommunications applications.

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More information

Published date: 17 May 2018
Venue - Dates: Conference on Fiber Lasers and Glass Photonics - Materials through Applications, , Strasbourg, France, 2018-04-22 - 2018-04-26

Identifiers

Local EPrints ID: 442137
URI: http://eprints.soton.ac.uk/id/eprint/442137
PURE UUID: 310f1ce1-28b1-4957-806a-3bb8a7a5fd36
ORCID for D.P. Shepherd: ORCID iD orcid.org/0000-0002-4561-8184

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Date deposited: 07 Jul 2020 16:54
Last modified: 17 Mar 2024 02:36

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Contributors

Author: A. Choudhary
Author: A. Lagatsky
Author: P. Kannan
Author: C.T.A. Brown
Author: D.P. Shepherd ORCID iD

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