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📄 Abstract
Abstract: Agentic workflows have become the dominant paradigm for building complex AI
systems, orchestrating specialized components, such as planning, reasoning,
action execution, and reflection, to tackle sophisticated real-world tasks.
However, systematically analyzing and optimizing these workflows remains
challenging due to intricate component interdependencies and the lack of
principled attribution methods. In this work, we introduce ShapleyFlow, the
first framework that employs cooperative game theory to analyze and optimize
agentic workflows. By applying the Shapley value to evaluate all possible
component configurations, ShapleyFlow enables fine-grained attribution of each
component's contribution and facilitates the identification of task-specific
optimal configurations. Through a constructed dataset evaluated across 7
scenarios, such as navigation, math and OS, we demonstrate 3 key contributions:
(1) Theoretical Framework: a principled game-theoretic approach for the
attribution of contributions in agentic workflows. (2) Optimal Workflow
Discovery: ShapleyFlow identifies task-specific component configurations that
consistently outperform workflows relying on a single LLM across all tested
tasks. (3) Comprehensive Analysis: we construct and analyze over 1,500 tasks,
providing actionable insights and design guidelines for optimizing workflows
across multiple domains.
Key Contributions
Introduces ShapleyFlow, the first framework using cooperative game theory (Shapley value) to analyze and optimize agentic workflows. It enables fine-grained attribution of each component's contribution and identifies task-specific optimal configurations for complex AI systems.
Business Value
Improves the efficiency, reliability, and understandability of complex AI systems (like LLM agents), leading to better performance and easier debugging in applications ranging from autonomous driving to sophisticated software agents.