EVALUATION OF OPTICAL METHODS IN BIOMEDICAL RESEARCH
Raymond Jonnard · 1959
The paper evaluates optical methods for biomedical research using frequency analysis and information theory.
Plain English Summary
The author presents optical systems as diffraction-limited, noisy, linear-communication channels with spatial-frequency response limited by a generalized interaction principle. The theory uses frequency analysis to evaluate optical system performance, predicting that filtration methods improve performance in relative frequency applications. A sampling theorem similar to communication theory is applied, where N = 2RT with time replacing length. Total optical noise reduces the effective aperture, and the analysis leads to a relation similar to Shannon's theorem for maximum information transmission rate in a noisy channel. The paper introduces a generalized principle of optical indeterminacy and discusses how observation interacts with biological objects, limiting complete predictability.
Why This Matters
The author argues that a generalized interaction principle applied to optical observations could be more fruitful than classic experimental methods and Cartesian philosophy. At the limits of resolution where statistical indeterminacy enters, causality yields to probability, and results become intellectual concepts beyond strict causality. The new concepts remain scientifically valid because they are statistically provable within a properly scaled indeterminacy principle using causal experimental procedures.
Finding
The theory predicts that filtration methods should improve the performance in relative frequency applications, **
In their words
“The theory predicts that filtration methods should improve the performance in relative frequency applications, **”
Show BibTeX
@article{evaluation_of_optical_methods_in_biomedical_research_g5628,
author = {Raymond Jonnard},
title = {EVALUATION OF OPTICAL METHODS IN BIOMEDICAL RESEARCH},
year = {1959},
}