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Towards Outcome-Oriented, Task-Agnostic Evaluation of AI Agents

Waseem AlShikh, Muayad Sayed Ali, Brian Kennedy, Dmytro Mozolevskyi

TL;DR

This work addresses the gap between traditional infrastructural AI metrics and the real-world utility of AI agents by proposing an outcome-based, task-agnostic evaluation framework comprising eleven metrics across three categories: Performance & Quality, Resilience & Adaptability, and Economic Impact. The framework is validated through a large-scale simulated study of four agent architectures across five domains, demonstrating robust, domain-sensitive insights and clear trade-offs between designs. Key findings show that Hybrid agents deliver the most balanced performance and economic value across metrics, while other architectures excel in specific areas (e.g., CoT in quality, Tool-Augmented in speed and cost). The proposed standardized evaluation approach offers practical guidance for development, deployment, and governance, enabling more meaningful comparisons and ROI-focused Decision-Making for AI agents.

Abstract

As AI agents proliferate across industries and applications, evaluating their performance based solely on infrastructural metrics such as latency, time-to-first-token, or token throughput is proving insufficient. These metrics fail to capture the quality of an agent's decisions, its operational autonomy, or its ultimate business value. This white paper proposes a novel, comprehensive framework of eleven outcome-based, task-agnostic performance metrics for AI agents that transcend domain boundaries. These metrics are designed to enable organizations to evaluate agents based on the quality of their decisions, their degree of autonomy, their adaptability to new challenges, and the tangible business value they deliver, regardless of the underlying model architecture or specific use case. We introduce metrics such as Goal Completion Rate (GCR), Autonomy Index (AIx), Multi-Step Task Resilience (MTR), and Business Impact Efficiency (BIE). Through a large-scale simulated experiment involving four distinct agent architectures (ReAct, Chain-of-Thought, Tool-Augmented, Hybrid) across five diverse domains (Healthcare, Finance, Marketing, Legal, and Customer Service), we demonstrate the framework's efficacy. Our results reveal significant performance trade-offs between different agent designs, highlighting the Hybrid Agent as the most consistently high-performing model across the majority of our proposed metrics, achieving an average Goal Completion Rate of 88.8\% and the highest Return on Investment (ROI). This work provides a robust, standardized methodology for the holistic evaluation of AI agents, paving the way for more effective development, deployment, and governance.

Towards Outcome-Oriented, Task-Agnostic Evaluation of AI Agents

TL;DR

This work addresses the gap between traditional infrastructural AI metrics and the real-world utility of AI agents by proposing an outcome-based, task-agnostic evaluation framework comprising eleven metrics across three categories: Performance & Quality, Resilience & Adaptability, and Economic Impact. The framework is validated through a large-scale simulated study of four agent architectures across five domains, demonstrating robust, domain-sensitive insights and clear trade-offs between designs. Key findings show that Hybrid agents deliver the most balanced performance and economic value across metrics, while other architectures excel in specific areas (e.g., CoT in quality, Tool-Augmented in speed and cost). The proposed standardized evaluation approach offers practical guidance for development, deployment, and governance, enabling more meaningful comparisons and ROI-focused Decision-Making for AI agents.

Abstract

As AI agents proliferate across industries and applications, evaluating their performance based solely on infrastructural metrics such as latency, time-to-first-token, or token throughput is proving insufficient. These metrics fail to capture the quality of an agent's decisions, its operational autonomy, or its ultimate business value. This white paper proposes a novel, comprehensive framework of eleven outcome-based, task-agnostic performance metrics for AI agents that transcend domain boundaries. These metrics are designed to enable organizations to evaluate agents based on the quality of their decisions, their degree of autonomy, their adaptability to new challenges, and the tangible business value they deliver, regardless of the underlying model architecture or specific use case. We introduce metrics such as Goal Completion Rate (GCR), Autonomy Index (AIx), Multi-Step Task Resilience (MTR), and Business Impact Efficiency (BIE). Through a large-scale simulated experiment involving four distinct agent architectures (ReAct, Chain-of-Thought, Tool-Augmented, Hybrid) across five diverse domains (Healthcare, Finance, Marketing, Legal, and Customer Service), we demonstrate the framework's efficacy. Our results reveal significant performance trade-offs between different agent designs, highlighting the Hybrid Agent as the most consistently high-performing model across the majority of our proposed metrics, achieving an average Goal Completion Rate of 88.8\% and the highest Return on Investment (ROI). This work provides a robust, standardized methodology for the holistic evaluation of AI agents, paving the way for more effective development, deployment, and governance.

Paper Structure

This paper contains 64 sections, 21 equations, 9 figures, 6 tables.

Figures (9)

  • Figure 1: Radar chart illustrating the normalized overall performance of the four agent architectures across key metrics. The Hybrid Agent demonstrates the most well-rounded and superior performance profile.
  • Figure 2: Goal Completion Rate (GCR) across the five domains for each agent. The Hybrid Agent shows consistently high performance, particularly in the complex Legal and Finance domains.
  • Figure 3: A scatter plot showing the trade-off between Autonomy Index (AIx) and Decision Turnaround Time (DTT). The ideal agent would be in the top-left quadrant (high autonomy, low DTT). The Hybrid Agent demonstrates a strong balance.
  • Figure 4: Cognitive Efficiency Score (CES) distribution across agents. Lower scores indicate better efficiency. The Tool-Augmented Agent is most efficient, while the CoT Agent consumes the most resources.
  • Figure 5: A comparison of Multi-Step Task Resilience (MTR) and Chain Robustness Score (CRS). The Hybrid Agent shows a clear advantage in both metrics, indicating superior error recovery and logical consistency.
  • ...and 4 more figures