AIAny
Icon for item

DynaFlow: Learning Free-Form Multi-Agent Orchestration

Lets a main agent synthesize executable workflows to coordinate and verify sub-agents as a task unfolds. The paper reports 88.08% overall accuracy in Forced mode across six benchmarks.

Introduction

A multi-agent system can fail not because its agents lack capability, but because their handoffs are fixed before the task is understood. DynaFlow makes those handoffs part of the main agent’s reasoning: it writes task-specific workflows, then uses execution traces to decide what to do next.

Key Findings
  • The main agent can coordinate fixed sub-agents through sequential or parallel calls, structured information exchange, and verification. This makes orchestration—not executor retraining—the central learned capability.
  • Training uses distilled trajectories and filters examples for unsupported premises, biased verification, and information-flow defects. The emphasis on information flow matters because a later agent must actually use and check upstream work, not merely receive it.
  • Across six benchmarks in mathematical reasoning, scientific question answering, and multi-hop retrieval, the paper reports 88.08% overall accuracy in Forced mode, 10.90 percentage points above the strongest evaluated baseline using the same Qwen3.5-27B backbone.
Who It’s For

Great fit for researchers studying adaptive agent coordination, workflow synthesis, and how intermediate results affect multi-stage reasoning. Look elsewhere if you need evidence of production latency, cost, or autonomous real-world deployment: the reported results focus on benchmark accuracy, and the design assumes a fixed set of sub-agents.

Method in Context

Rather than selecting from a predefined collaboration template, the main agent generates executable coordination logic and can adapt after seeing results. Keeping sub-agents fixed helps isolate the value of orchestration learning, though it also means the reported gains do not show that the framework improves the agents doing the underlying work.

Information

  • Websitearxiv.org
  • OrganizationsNational University of Singapore
  • AuthorsRuhao Liu, Qi Li, Shizun Wang, Xinchao Wang
  • Published date2026/10/25

More Items

Coordinates world creation, trajectory exploration, and Harness evolution to improve multimodal agents. It organizes tasks by shared capabilities rather than surface categories, reporting mean gains of 34 points on training benchmarks and 26 on unseen benchmarks.

Simulates closed-loop interactions between people and wearable AI assistants to test whether multimodal models can guide real-world tasks. Its 120 multi-turn benchmark tasks are scored against verifiable simulator states.

Evaluates AI agent harness reliability and failure attribution using inspectable execution traces and evidence from multiple sources. Its 95 tasks cover seven dimensions and score task performance separately from harness reliability.