Diffraction image formation in optical systems with polarization aberrations I: Formulation and example

James P. McGuire, Russell A. Chipman

Journal of the Optical Society of America A · 1990 · 80 citations · 18 references

Concepts

TL;DR

Image formation in optical systems with polarization aberrations is examined, noting that the resulting point‑spread and transfer matrices depend on illumination coherence but not on the incident polarization state. The study derives the point‑spread function and optical transfer function for such systems and investigates how image formation varies with source coherence and polarization. The authors formulate these functions analytically and illustrate the approach with example calculations for a circularly retarding lens. They show that the scalar PSF and OTF generalize to 4 × 4 point‑spread and transfer matrices in Mueller matrix form, which act as filters that vary with the incident polarization state.

Abstract

This paper is the first in a series that will examine image formation in optical systems with polarization aberrations. The present paper derives the point-spread function (PSF) and the optical transfer function for optical systems with polarization aberration and explores how image formation depends on the coherence and polarization state of the source. It is shown that the scalar PSF of Fourier optics can be generalized in the presence of polarization aberration to a 4 × 4 point-spread matrix (PSM) in Mueller matrix notation. A similar 4 × 4 optical transfer matrix (OTM) is shown to be an appropriate generalization of the optical transfer function. The PSM and the OTM are associated with the optical system and are independent of the incident polarization state but dependent on the coherence of the illumination. Since an optical system with polarization aberrations will have a different PSF and optical transfer function for different incident polarization states, the PSM and the OTM act as filters with regard to the incident polarization state. Example calculations are performed for a circularly retarding lens.

References

18