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Electrooptical processor performance model.

D D McCrady, J E Spence, W V McCollough

|April 15, 2010

Summary

This summary is machine-generated.

Electrooptical processing (EOP) provides a compact, high-speed alternative to electronic signal processing. This study models EOP systems to analyze error and noise, presenting a dynamic range expression.

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Area of Science:

Optics and Photonics
Signal Processing
Information Technology

Background:

Electrooptical processing (EOP) emerges as a novel technique for compact, high-speed signal processing.
EOP presents a practical alternative to conventional real-time electronic processing across various applications.
The specific EOP approach developed by Monahan and Bromley shows significant promise.

Purpose of the Study:

To investigate the potential of electrooptical processing (EOP) for high-speed signal processing.
To model a promising EOP system, focusing on system error and noise.
To derive a general expression for EOP dynamic range based on system parameters.

Main Methods:

System modeling of electrooptical processing (EOP).
Analysis of system error and noise sources within the EOP model.
Derivation of a dynamic range expression as a function of model parameters.

Main Results:

A model for electrooptical processing (EOP) systems was developed, incorporating error and noise.
The model facilitates the quantitative analysis of EOP performance.
A general expression for EOP dynamic range was derived.

Conclusions:

Electrooptical processing (EOP) is a viable high-speed signal processing technology.
The developed model provides a framework for understanding and optimizing EOP systems.
The derived dynamic range expression is crucial for EOP system design and application.