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arXiv · 2606.02875

Handoff Debt: The Rediscovery Cost When Coding Agents Take Over Interrupted Tasks

Dipesh KC·Anjila Budathoki
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Abstract

Coding-agent benchmarks evaluate whether a single uninterrupted agent can resolve a repository issue. Real software work is messier: tasks are interrupted, reassigned, reviewed, and resumed from partial states left by another agent or engineer. We study this missing dimension through handoff debt: the rediscovery cost imposed when a predecessor's work is opaque or incomplete. Our takeover protocol interrupts a coding agent at deterministic handoff points, freezes the repository, and evaluates successor agents under four handoff views: repository state only, raw trace, summary notes, and structured notes. Across 75 source tasks, the protocol generates 181 handoff-point tasks and 724 takeover runs per successor model. Across three successor models, context-bearing handoffs reduce median agent events by 20-59% and cumulative prompt tokens by 42-63% relative to repository-only takeover. Solved-rate effects are smaller and model-dependent, but efficiency gains are consistent. These findings suggest that coding-agent evaluation should report not only whether a task is solved, but also how costly that work is for another agent to resume.

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Dipesh KC, Anjila Budathoki. 2026-06-01. Handoff Debt: The Rediscovery Cost When Coding Agents Take Over Interrupted Tasks. https://arxiv.org/abs/2606.02875

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