Extraction of morphological features from biological models and cells by fourier analysis of static light scatter measurements
Open Access
- 1 March 1982
- Vol. 2 (5) , 327-336
- https://doi.org/10.1002/cyto.990020510
Abstract
Models of biological cells of varying geometric complexity were used to generate data to test a method of extracting geometric features from light scatter distributions. Measurements of the dynamic range and angular distribution of intensity and light scatter from these models was compared to the distributions predicted by a complete theory of light scatter (Mie) and by diffraction theory (Fraunhofer). An approximation to the Fraunhofer theory provides a means of obtaining size and shape features from the data by a spectrum analysis. Experimental verification using nucleated erythrocytes as the biological material show the potential application of this method for the extraction of important size and shape parameters from light scatter data.Keywords
This publication has 17 references indexed in Scilit:
- Laser flow cytometric light scatter and fluorescence pulse width and pulse rise-time sizing of mammalian cells.Journal of Histochemistry & Cytochemistry, 1979
- Fourier optical approach to the extraction of morphological parameters from the diffraction pattern of biological cellsApplied Optics, 1978
- Screening of cervical cytological samples using coherent optical processing Part 2Applied Optics, 1978
- Quantitative extraction of morphologic cell parameters from the diffraction pattern.Journal of Histochemistry & Cytochemistry, 1977
- Fluorescence-Activated Cell SortingScientific American, 1976
- Flow microfluorometric and light-scatter measurement of nuclear and cytoplasmic size in mammalian cells.Journal of Histochemistry & Cytochemistry, 1976
- Fluorescence and light-scattering measurements on hog cholera-infected PK-15 cellsExperimental Cell Research, 1973
- Light Scattering from Coated Spheres: Model for Biological CellsApplied Optics, 1972
- Comparison of the diffraction theory of image formation with the three-dimensional, first Born scattering approximation in lens systemsOptics Communications, 1970
- Cell Sizing: a Small-Angle Light-Scattering Method for Sizing Particles of Low Relative Refractive IndexApplied Optics, 1969