Quantifying the Epistemic Value of Verification: An Information‐Theoretic Approach

ABSTRACT System verification is a critical process that ensures components and systems meet their requirements at each integration level. Although verification significantly impacts project costs and schedules, its formal theoretical foundations have received relatively limited research attention compared to other systems engineering processes. Previous researchers have explored various metrics to optimize verification strategies, but these metrics often rely on programmatic factors like cost and utility rather than capturing verification's epistemic value—the fundamental ability to reduce uncertainty about requirement satisfaction. This paper introduces a novel theoretical framework that applies concepts from information theory to quantify the epistemic value of verification activities. By treating verification as an uncertainty reduction process, we leverage information‐theoretic measures such as entropy and information gain to evaluate how effectively different verification strategies illuminate whether requirements are truly satisfied. This framework provides a mathematical foundation for optimizing verification strategies based on their core function of generating knowledge about system performance, independent of external programmatic factors.

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Publication Details

Journal
Systems Engineering
Published
2025-12-19
DOI
https://doi.org/10.1002/sys.70028
Primary Topic
Systems Engineering Methodologies and Applications
Type
article
Field-Weighted Citation Impact
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article

Quantifying the Epistemic Value of Verification: An Information‐Theoretic Approach

Hanumanthrao Kannan, J FITZPATRICK
Systems Engineering
Systems Engineering Methodologies and Applications
article

Quantifying the Epistemic Value of Verification: An Information‐Theoretic Approach

Hanumanthrao Kannan, J FITZPATRICK
article en

Abstract

ABSTRACT System verification is a critical process that ensures components and systems meet their requirements at each integration level. Although verification significantly impacts project costs and schedules, its formal theoretical foundations have received relatively limited research attention compared to other systems engineering processes. Previous researchers have explored various metrics to optimize verification strategies, but these metrics often rely on programmatic factors like cost and utility rather than capturing verification's epistemic value—the fundamental ability to reduce uncertainty about requirement satisfaction. This paper introduces a novel theoretical framework that applies concepts from information theory to quantify the epistemic value of verification activities. By treating verification as an uncertainty reduction process, we leverage information‐theoretic measures such as entropy and information gain to evaluate how effectively different verification strategies illuminate whether requirements are truly satisfied. This framework provides a mathematical foundation for optimizing verification strategies based on their core function of generating knowledge about system performance, independent of external programmatic factors.

Systems Engineering
University of Alabama in Huntsville (US)
Openalex Percentile: Top 49%
Systems Engineering Methodologies and Applications
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Quantifying the Epistemic Value of Verification: An Information‐Theoretic Approach — Hanumanthrao Kannan, J FITZPATRICK · Systems Engineering (2025) | TGRS Research Map | TGRS