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arxiv:2610.27148

Who Takes the Lead? Model Ability and Task-Conditioned Collaboration with Humans

Published on Oct 19
· Submitted by
Barry Li
on Oct 23
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Abstract

Researchers use a shared-control maze to show that stronger language-model agents selectively involve humans based on route advantage rather than failing to collaborate.

As language-model agents grow more capable, they can carry more of a task without asking anyone for help. Falling reliance on a human partner is easy to read as a failure of collaboration when it may instead be a correct division of labor, and the rate of human involvement alone cannot tell the two apart. We study this systematically by placing an agent and a person under a shared objective while varying who holds the advantage: the human has a clear advantage, neither does, or the agent does. To obtain this control, we introduce a shared-control maze, in which an agent-controlled and a human-controlled avatar share the objective of reaching a common target in as few team turns as possible. The agent allocates each team turn between acting itself and handing the move to the person, and initial placement sets the human's shortest-path advantage while the task is otherwise unchanged. We evaluate GPT~5.6~Sol, Command~A+, Qwen~3.8~27B, and Command~R, first measuring solo capability with a single avatar and full-map observability, then running co-play with human participants across the three advantage conditions. Across the four models, stronger solo performance is associated with selective, route-conditioned human involvement: the models that solve the maze reliably on their own act for themselves almost without exception when the human holds no advantage, and involve the human on roughly 80% of initial decisions when the human route is shorter. Command R, the model with substantially weaker solo performance, shows no such selectivity.

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Hi everyone, This is Weien Li! When an AI agent asks for less human help, does that mean worse collaboration—or a sensible division of labor?

We study this in a shared-control maze, varying whether the human or AI has the shorter route to a common goal. Across four models, stronger solo performance is associated with more selective human involvement: reliable maze solvers mostly act themselves when the human has no route advantage, but involve the human on roughly 80% of initial decisions when the human’s route is shorter.

The takeaway: how often an agent involves a human tells only part of the story; we also need to examine when it does so. These are findings from a small, controlled study, and we’d love to hear ideas for testing this in other human–AI tasks!

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Checking whether the agent hands the move to the person when the human route is shorter is a much better test than counting how often it asks for help. Involving the person "on roughly 80% of initial decisions" when they hold the advantage reads like judgment, not deference.

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