• DocumentCode
    1295641
  • Title

    Radial birefringence in optical resonators

  • Author

    Ferguson, Thomas R.

  • Author_Institution
    Phillips Lab., Kirtland AFB, NM, USA
  • Volume
    33
  • Issue
    1
  • fYear
    1997
  • fDate
    1/1/1997 12:00:00 AM
  • Firstpage
    18
  • Lastpage
    25
  • Abstract
    Paraxial fields polarized in the transverse plane and represented in the polar coordinate system are expanded in an azimuthal Fourier series. For series terms with spiraling phases, the radial and azimuthal components are shown to mix during propagation. For simple rod lasers with thermally induced birefringence, this property may cause the dominant mode to be of mixed polarization rather than purely radial polarization. An explanation is given in terms of the properties of scalar field propagators and the way in which they combine to propagate the vector field components. Comparisons to other recent predictions show that the theory is correct, and the method provides a basis for understanding the complex results
  • Keywords
    Fourier series; birefringence; laser cavity resonators; laser modes; laser theory; light polarisation; solid lasers; thermo-optical effects; azimuthal Fourier series; azimuthal components; dominant mode; mixed polarization; paraxial fields polarisation; polar coordinate system; purely radial polarization; radial birefringence; radial components; rod lasers; scalar field propagators; series terms; spiraling phases; thermally induced birefringence; transverse plane; vector field components; Azimuthal component; Birefringence; Equations; Laser modes; Laser theory; Lenses; Mirrors; Optical polarization; Optical propagation; Optical resonators;
  • fLanguage
    English
  • Journal_Title
    Quantum Electronics, IEEE Journal of
  • Publisher
    ieee
  • ISSN
    0018-9197
  • Type

    jour

  • DOI
    10.1109/3.554869
  • Filename
    554869