
Nonparaxial optical transfer function for arbitrary illumination in partially coherent imaging systems and the oblique source application
Aufsatz

Zusammenfassung
Recent research in quantitative phase and refractive index microscopy showed promising results with methods using a partially coherent imaging setup, such as partially coherent optical diffraction tomography. For these methods, the phase optical transfer function (POTF), which describes the transmission of spatial frequencies by the imaging system, is crucial. Here, a one-dimensional integral representation of the POTF for imaging systems with arbitrary illumination is derived. It generalizes the existing expression, which is limited to axially symmetric setups. From the general integral form, an analytical solution is derived for the case of oblique homogeneous disk-shaped illumination. This demonstrates the potential of the general representation by offering an additional approach for illumination design in quantitative phase and refractive index microscopy.
Schlagworte
Optical diffraction tomography
ODT
Quantitative phase microscopy
Optical transfer function
POTF
Partially coherent illuminaiton
OTF
Refractive index microscopy
Quantitative phase imaging
Oblique illumination
Nonparaxial optical transfer function
ODT
Quantitative phase microscopy
Optical transfer function
POTF
Partially coherent illuminaiton
OTF
Refractive index microscopy
Quantitative phase imaging
Oblique illumination
Nonparaxial optical transfer function
DDC-Klassifikation
621 Angewandte Physik
Erschienen in
Journal of the Optical Society of America A. Optica Publishing Group; Washington, DC (2022). 39, 4, S. 744 - 758. DOI: 10.1364/JOSAA.452462
Projektförderung
DiffraLicht / Bundesminsiterium für Bildung und Forschung / 13FH212PX8
Einrichtung
Fachbereich Ingenieurwesen
Link zur Veröffentlichung
Sammlungen
- Publikationen [134]
BibTeX
@article{Müllers2022,
author={Müllers, David and Kuhl, Jonas and Kontermann, Stefan},
title={Nonparaxial optical transfer function for arbitrary illumination in partially coherent imaging systems and the oblique source application},
journal={Journal of the Optical Society of America A},
volume={39},
number={4},
pages={S. 744 - 758},
month={03},
year={2022},
publisher={Optica Publishing Group; Washington, DC},
school={Hochschule RheinMain, Wiesbaden},
url={https://hlbrm.pur.hebis.de/xmlui/handle/123456789/74},
doi={10.25716/pur-53}
}