Preprint
Reinforcement Learning

DocOps: A Verifiable Benchmark for Autonomous Agents in Complex Document Operations

Jiazhen Jiang, Boxi Cao, Lingyong Yan, Yaojie Lu, Hongyu Lin, Shuaiqiang Wang, Dawei Yin, Xianpei Han, Le Sun
July 22, 2026

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2026

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Abstract

As autonomous agents rapidly evolve, their ability to reliably manipulate ubiquitous digital documents has become critical for enabling general-purpose AI assistants and automating complex workspace workflows. In this paper, we introduce DocOps, a deterministically verifiable evaluation framework underpinned by a hierarchical taxonomy that deconstructs document operations inspired by real-world practices into atomic dimensions and escalating workflow complexities. Based on DocOps, we systematically evaluate representative closed- and open-source models across various agentic harnesses, revealing that even the most advanced frontier configurations still exhibit profound limitations when handling highly coupled, long-range tasks. Furthermore, a fine-grained analysis of existing agents' manipulation behaviors uncovers 3 key failure modes: long-term state tracking collapse, shallow semantic verification, and destructive editing of structural metadata. Ultimately, our work exposes the capability boundaries of agents in maintaining global document consistency, shedding light on the future design of robust, non-destructive agents for complex digital ecosystems.

Analysis

Why This Paper Matters

As autonomous agents become increasingly integrated into digital workspaces, their ability to reliably manipulate documents—a ubiquitous form of digital content—is critical. Current benchmarks often focus on isolated tasks or simple interactions, failing to capture the complexity of real-world document workflows that require long-range state tracking, semantic understanding, and structural integrity. DocOps addresses this gap by providing a verifiable, hierarchical evaluation framework grounded in real-world practices. This matters because without rigorous benchmarks, progress in agent capabilities may be overstated, and critical failure modes—such as destroying metadata or losing track of document state—could go undetected until deployment.

Technical Contributions

  • Hierarchical Taxonomy: Decomposes document operations into atomic dimensions (e.g., formatting, content editing, metadata manipulation) and escalating workflow complexities (e.g., single-step vs. multi-step, coupled vs. independent).
  • Deterministic Verifiability: Unlike subjective or LLM-as-judge evaluations, DocOps provides ground-truth verification, ensuring reproducibility and objective assessment.
  • Failure Mode Analysis: Identifies three key failure modes: long-term state tracking collapse (agents lose track of document state over multiple steps), shallow semantic verification (agents fail to verify content meaning beyond surface patterns), and destructive editing of structural metadata (agents inadvertently corrupt document structure).
  • Cross-Model Evaluation: Tests both closed-source (e.g., GPT-4) and open-source models across different agentic harnesses, revealing that even the most advanced configurations struggle with highly coupled, long-range tasks.

Results

The paper reports that even frontier models exhibit profound limitations in handling complex document operations. Fine-grained analysis uncovers three failure modes that are consistent across model types. However, the abstract does not provide specific numerical metrics (e.g., success rates, error counts) or comparative tables, limiting the ability to quantify the gap between current agents and human-level performance. The key finding is qualitative: agents fail to maintain global document consistency, particularly in tasks requiring long-range dependencies and structural awareness.

Significance

DocOps sets a new standard for evaluating autonomous agents in document-centric workflows, an area critical for AI assistants and automation. By exposing systematic failure modes, it provides clear targets for improvement: better state tracking mechanisms, deeper semantic understanding, and non-destructive editing protocols. This work will likely influence the design of future agent architectures, training data, and evaluation protocols, pushing the field toward more robust and reliable digital assistants. The framework's verifiability also makes it suitable for safety-critical applications where document integrity is paramount.