Nautilus: From One Prompt to Plug-and-Play Robot Learning

TL;DR

NAUTILUS is an open-source framework that simplifies robot learning workflows by transforming a single prompt into comprehensive, plug-and-play evaluation, fine-tuning, and deployment pipelines, reducing engineering complexity.

Contribution

It introduces a scalable, unified system that automates adapter generation and onboarding of policies, simulators, and robots for robot learning research workflows.

Findings

Automates adapter and container generation for existing implementations.

Supports onboarding of new policies, simulators, and robots with a unified interface.

Reduces engineering effort in cross-family robot learning evaluations.

Abstract

Robot learning research is fragmented across policy families, benchmark suites, and real robots; each implementation is entangled with the others in a complex combination matrix, making it an engineering nightmare to port any single element. General-purpose coding agents may occasionally bridge specific setups, but cannot close this gap at scale because they lack the procedural priors and validation practices that characterize robotics research workflows. We propose NAUTILUS, an open-source harness that turns a single user prompt -- for example, "Evaluate policy A with benchmark B" -- into ready-to-use reproduction, evaluation, fine-tuning, and deployment workflows. NAUTILUS provides: plug-and-play agent skill sets with distilled priors from robotics research; typed contracts among policies, simulators/benchmarks, and real-world robots; unified interfaces and execution environments; and a trustworthy agentic coding workflow with explicit, automated validation, and testing at each milestone. NAUTILUS can not only automatically generate the required adapters and containers for existing implementations, but also wrap and onboard new or user-provided policies, simulators/benchmarks, and robots, all connected via a uniform interface. This expands cross-validation coverage without hand-written glue code. Like a nautilus shell that grows by adding chambers, NAUTILUS scales by extending its execution in chambered units, making it a research harness for scalability rather than a hand-curated framework, and aiming to reduce the engineering burden of cross-family reproduction and evaluation in the ever-growing robot learning ecosystem.