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Assessment of the Utilization of Quadruped Robots in Pharmaceutical Research and Development Laboratories

Brian Parkinson, Ádám Wolf, Péter Galambos, Károly Széll

TL;DR

The study addresses the need for safer, faster remote oversight in pharmaceutical R&D labs by evaluating Boston Dynamics' Spot as a mobile platform for remote inspection. Using two payload configurations and the Scout interface, the authors conduct PoC experiments in a process-development lab and gather user insights to identify viable use cases such as alarm inspection, data capture, and sample handling, while outlining manipulation capabilities. Key contributions include a practical remote-inspection PoC, a user-derived requirement set for lab workflows, and an outlook on advancing autonomy and manipulation (e.g., Autowalk, SLAM, and higher-level task planning). The findings indicate Spot provides robust mobility and sensing capabilities that can reduce on-site travel and enable faster incident assessment, but manipulation of typical labware and bench-top tasks remains a challenge requiring custom end-effectors and deeper autonomy integration.

Abstract

Drug development is becoming more and more complex and resource-intensive. To reduce the costs and the time-to-market, the pharmaceutical industry employs cutting-edge automation solutions. Supportive robotics technologies, such as stationary and mobile manipulators, exist in various laboratory settings. However, they still lack the mobility and dexterity to navigate and operate in human-centered environments. We evaluate the feasibility of quadruped robots for the specific use case of remote inspection, utilizing the out-of-the-box capabilities of Boston Dynamics' Spot platform. We also provide an outlook on the newest technological advancements and the future applications these are anticipated to enable.

Assessment of the Utilization of Quadruped Robots in Pharmaceutical Research and Development Laboratories

TL;DR

The study addresses the need for safer, faster remote oversight in pharmaceutical R&D labs by evaluating Boston Dynamics' Spot as a mobile platform for remote inspection. Using two payload configurations and the Scout interface, the authors conduct PoC experiments in a process-development lab and gather user insights to identify viable use cases such as alarm inspection, data capture, and sample handling, while outlining manipulation capabilities. Key contributions include a practical remote-inspection PoC, a user-derived requirement set for lab workflows, and an outlook on advancing autonomy and manipulation (e.g., Autowalk, SLAM, and higher-level task planning). The findings indicate Spot provides robust mobility and sensing capabilities that can reduce on-site travel and enable faster incident assessment, but manipulation of typical labware and bench-top tasks remains a challenge requiring custom end-effectors and deeper autonomy integration.

Abstract

Drug development is becoming more and more complex and resource-intensive. To reduce the costs and the time-to-market, the pharmaceutical industry employs cutting-edge automation solutions. Supportive robotics technologies, such as stationary and mobile manipulators, exist in various laboratory settings. However, they still lack the mobility and dexterity to navigate and operate in human-centered environments. We evaluate the feasibility of quadruped robots for the specific use case of remote inspection, utilizing the out-of-the-box capabilities of Boston Dynamics' Spot platform. We also provide an outlook on the newest technological advancements and the future applications these are anticipated to enable.
Paper Structure (14 sections, 4 figures)

This paper contains 14 sections, 4 figures.

Table of Contents

  1. Introduction
  2. Use cases in life science laboratories
  3. Identifying a suitable mobile robotic platform
  4. The Spot quadruped robot
  5. Typical application areas
  6. Considerations
  7. Proof-of-concept studies
  8. Equipment
  9. Remote inspection
  10. Manipulation
  11. User tests
  12. Discussion
  13. Outlook and future work
  14. Conclusion

Figures (4)

  • Figure 1: Visual image of the two Spot units utilized for development. Each Spot unit features a different payload configuration. Here, we see the Spot with the pan-tilt-zoom (PTZ) camera (left) and Spot with the arm (right).
  • Figure 2: Schematic representation illustrating the key body components of the quadruped. SpotAnatomy
  • Figure 3: System architecture of the experimental network setup. Spot units (1) and (2), equipped with a Spot Arm and a PTZ camera, respectively; Local server unit (3) Site Hub, hosting the Scout interface; Local tablet controller (4) for configuration, mission creation, and human-initiated autonomy; Local router (5) and access point; Global Intranet (6); Remote web browser displaying the Scout interface (7)
  • Figure 4: Series of screenshots from the Scout solution control center used to conduct the remote troubleshooting use case.