Numerical analysis of amplitude-to-phase noise conversion in a self-referencing scheme using ultrashort white-continuum light generated by microstructure fibers

Montian Tianprateep, Kenichi Hirosawa, Fumihiko Kannari

Research output: Contribution to journalArticle

Abstract

We theoretically analyzed detailed properties of the amplitude-to-phase noise conversion coefficient (CAP) for ultrashort laser pulses in a self-referencing carrier envelope phase measurement scheme using a microstructure fiber (MSF). The nonlinear phase noise, which is determined by fluctuations in phase difference between the self-referencing frequencies of f and 2f in the octave-spanning white-continuum light generated by MSF, depends on the launched laser power and the self-referencing wavelength. A typical CAP ranges from 1 to 3 rad/mW. However, this phase noise does not result in a carrier envelope phase shift of the output pulse from MSFs.

Original languageEnglish
JournalJapanese Journal of Applied Physics, Part 2: Letters
Volume45
Issue number1-3
DOIs
Publication statusPublished - 2006 Jan 31

Fingerprint

Phase noise
numerical analysis
Numerical analysis
continuums
microstructure
Microstructure
fibers
Fibers
envelopes
Phase measurement
octaves
pulses
Ultrashort pulses
Phase shift
lasers
phase shift
Wavelength
Lasers
output
coefficients

Keywords

  • Amplitude-to-phase noise conversion
  • Carrier envelope phase
  • Microstructure fibers
  • Nonlinear optics
  • Ultrashort laser pulses

ASJC Scopus subject areas

  • Physics and Astronomy (miscellaneous)

Cite this

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abstract = "We theoretically analyzed detailed properties of the amplitude-to-phase noise conversion coefficient (CAP) for ultrashort laser pulses in a self-referencing carrier envelope phase measurement scheme using a microstructure fiber (MSF). The nonlinear phase noise, which is determined by fluctuations in phase difference between the self-referencing frequencies of f and 2f in the octave-spanning white-continuum light generated by MSF, depends on the launched laser power and the self-referencing wavelength. A typical CAP ranges from 1 to 3 rad/mW. However, this phase noise does not result in a carrier envelope phase shift of the output pulse from MSFs.",
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N2 - We theoretically analyzed detailed properties of the amplitude-to-phase noise conversion coefficient (CAP) for ultrashort laser pulses in a self-referencing carrier envelope phase measurement scheme using a microstructure fiber (MSF). The nonlinear phase noise, which is determined by fluctuations in phase difference between the self-referencing frequencies of f and 2f in the octave-spanning white-continuum light generated by MSF, depends on the launched laser power and the self-referencing wavelength. A typical CAP ranges from 1 to 3 rad/mW. However, this phase noise does not result in a carrier envelope phase shift of the output pulse from MSFs.

AB - We theoretically analyzed detailed properties of the amplitude-to-phase noise conversion coefficient (CAP) for ultrashort laser pulses in a self-referencing carrier envelope phase measurement scheme using a microstructure fiber (MSF). The nonlinear phase noise, which is determined by fluctuations in phase difference between the self-referencing frequencies of f and 2f in the octave-spanning white-continuum light generated by MSF, depends on the launched laser power and the self-referencing wavelength. A typical CAP ranges from 1 to 3 rad/mW. However, this phase noise does not result in a carrier envelope phase shift of the output pulse from MSFs.

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