Opus: A Quantitative Framework for Workflow Evaluation
November 06, 2025 Β· Declared Dead Β· π arXiv.org
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Authors
Alan Seroul, Théo Fagnoni, Inès Adnani, Dana O. Mohamed, Phillip Kingston
arXiv ID
2511.04220
Category
cs.AI: Artificial Intelligence
Cross-listed
cs.SE
Citations
0
Venue
arXiv.org
Last Checked
4 months ago
Abstract
This paper introduces the Opus Workflow Evaluation Framework, a probabilistic-normative formulation for quantifying Workflow quality and efficiency. It integrates notions of correctness, reliability, and cost into a coherent mathematical model that enables direct comparison, scoring, and optimization of Workflows. The framework combines the Opus Workflow Reward, a probabilistic function estimating expected performance through success likelihood, resource usage, and output gain, with the Opus Workflow Normative Penalties, a set of measurable functions capturing structural and informational quality across Cohesion, Coupling, Observability, and Information Hygiene. It supports automated Workflow assessment, ranking, and optimization within modern automation systems such as Opus and can be integrated into Reinforcement Learning loops to guide Workflow discovery and refinement. In this paper, we introduce the Opus Workflow Reward model that formalizes Workflow success as a probabilistic expectation over costs and outcomes. We define measurable Opus Workflow Normative Penalties capturing structural, semantic, and signal-related properties of Workflows. Finally, we propose a unified optimization formulation for identifying and ranking optimal Workflows under joint Reward-Penalty trade-offs.
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