NTH

Self-Building Labs

AuthorsJiaru Bai, Yuchi Zhao, Han Hao, Miroslav Bogdanovic, Yang Cao, Varinia Bernales, Alán Aspuru-Guzik

Affiliations[

October 27, 2026 2 min read
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The one-line take

An AI system turns scientific goals into working lab setups, robots, and experiments.

Key results

236
Protocol commands

Commands in the Opentrons protocol for the quantum-dot experiment.

19
Robotic stages

Coordinated stages for plate transfer, sealing, re-grasping, and reader loading.

96
Plate format

Wells in the microplate used for the synthesis experiment.

60
Reaction temperature

Temperature used to monitor the quantum-dot synthesis.

8
Monitoring duration

Hours of reaction monitoring.

What the paper found

Self-Building Labs presents a system that turns a scientific goal and a description of available equipment into a working laboratory capability. Rather than requiring specialists to manually reconfigure each self-driving lab, its agents identify missing capabilities, construct a digital twin, develop robot skills and experimental workflows, then validate them in simulation and through physical feedback. The implementation combines OpenAI’s GPT-6-Astra with NVIDIA Isaac Sim and cuRobo; successful exploratory actions are distilled into reusable scripts, while safety agents test hazards in simulation and runtime guardrails constrain physical commands. In a real quantum-dot experiment, the system used an Opentrons OT-2 to prepare a 96-well plate, then coordinated robotic transfers for sealing and optical measurement: the protocol issued 236 commands, followed by 19 robotic stages. The plate was monitored at 60 °C for 8 h, and the measurements showed stronger quantum-dot emission under high-pH conditions, with ligand loading affecting formation. The paper also demonstrates coordination across different robot types and workstations in simulation, suggesting a route from fixed, task-specific automation toward laboratories that can build and reuse capabilities as research needs change.

Original abstract

Self-driving laboratories (SDLs) accelerate scientific discovery by automating experimental execution and optimization. AI agents can increasingly propose new experiments, but existing SDLs can only run the procedures they were built for. Adapting them to a new experiment still takes extensive manual engineering, which makes laboratory flexibility the bottleneck for scaling discovery. We introduce the self-building laboratory (SBL), which designs, configures, and operates its own laboratory setup given a high-level scientific goal. SBL starts from whatever already exists, from an empty room to a working SDL, and builds the missing capabilities: the lab layout, its digital twin, robot skills, and experimental workflows. We demonstrate the system working across different robots and setups, scaling from a single workstation to laboratories with several robots working together. We validate SBL's end-to-end capabilities through a real-world quantum-dot synthesis experiment. By shifting the role of human researchers from manually configuring and programming device automation to specifying scientific objectives, SBL makes scientific automation more accessible, flexible, and scalable. Project website: https://self-building-labs.github.io/

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