smartBench

Closing the laboratory automation education gap – an open, modular, BSL-2 compatible robotic workbench for teaching reproducible lab automation.

The laboratory automation education gap

Life-science students rarely train with automated equipment, and the systems that do exist are hard to transfer between labs.

Hands-on training gap

Life-science students rarely train with automated laboratory equipment or robotic workcells. Engineering students lack exposure to open automation standards and reproducible digital workflows.

Transferability gap

Academic automation setups remain expert-built prototypes tied to tacit knowledge, custom interfaces, and site-specific calibration – hard for anyone else to adopt.

TRL gap

Bespoke systems often stall at TRL 3–4, while education needs transferable TRL 5–7 platforms that are validated and usable by non-experts.

smartBench response

An open, modular reference architecture supporting the transition from manual sterile work to validated robotic execution – cost-effective for both engineering and life-science training.

Reference architecture

A modular robotic workbench combining a laminar flow hood, dual robotic arms, and interchangeable sterile end-effectors.

Fig. 1 – Concept diagram: laminar flow hood (1), dual robotic arms (2), eye-in-room cameras (3), eye-in-hand camera (4), CrocoGrip end-effector (5), incubator interface (6), microscope interface (7).

  • Standardized tool-changing flange: Tool-free, magnetically locked, 5/24V power and serial comms – swap grippers or pipettes in seconds, not minutes.
  • CrocoGrip end-effector: Compliant-mechanism gripper for low-particle handling of microplates, Falcon tubes, and Petri dishes.
  • Four eye-in-room cameras: Passive, multi-view recording of human demonstrations for offline imitation learning – no teleoperation needed.
  • Safety-by-architecture: Manual teaching and autonomous execution are separated in time and space, so standard industrial arms can be used safely.
  • Open interfaces: ROS2 for robot control and SiLA2 for lab device interoperability – no vendor-specific drivers.

Recognition

The smartBench white paper was accepted to the ICRA 2026 workshop “Accelerating Discovery in Natural Science Laboratories with AI and Robotics,” held in Vienna on June 1, 2026. The team was recognized as Pioneers of Natural Sciences Laboratory Robotics and presented an invited talk and poster.

Cost

Early estimates for a full replication, and the consortium developing the platform.

Cost elementEstimate
Sterile workbench8–20 k€
2× robotic arms16–40 k€
2× standardized flange1 k€
4× eye-in-room cameras2–4 k€
AI-enabled compute4–8 k€
Total range34–94 k€

Partners

University Medical Center Göttingen
web: UMG
Leibniz University Hannover
web: LUH
EU Robotics
DZHK – Deutsches Zentrum für Herz-Kreislauf-Forschung
web: DZHK
SiLA – Standardisierung in Laborautomatisierung
web: SiLA
Contact: Tim Meyer
ADIRO Automatisierungstechnik
web: ADIRO
Contact: Nico Kronberger
smartlab.network – Society for Laboratory Automation and Digitization
Contact: Tim Meyer

Materials

White paperPDF · smartBench for Life Sciences TrainingOpen
ICRA 2026 workshop posterPDFOpen
GitHub repositoryLinkOpen