Concepedia

TLDR

Robots are widely used in life science automation for reducing manpower, ensuring uniformity, and eliminating contamination; single‑arm robots transport labware, while dual‑arm robots offer greater flexibility but remain underutilized in life sciences. The study aims to automate the initiation of LC‑MS analysis immediately after sample preparation. The platform employs a Yaskawa CSDA10F dual‑arm robot to prepare samples and integrates an LC‑MS instrument by simulating user interface events and using XML for detailed control. The platform was realized at the Center for Life Science Automation, and integrating the LC‑MS software with the SAMI Workstation EX enabled automated, user‑friendly sample analysis.

Abstract

Robots are widely used in life science automation due to their advantages, such as reducing manpower, ensuring uniformity and eliminating contaminations. Single-arm robots, with multiple degrees of freedom, have been used to transport labware, e.g. transporting microplates. Nowadays dual-arm robots draw much attraction due to their flexibility, but their applications in life sciences are still limited. In this case, a platform based on a Yaskawa CSDA10F dual-arm robot has been realized in the Center for Life Science Automation (celisca), Germany. In this platform, the robot is not only used to prepare samples by using labware, including pipettes, glass vials, microplates, thermoshaker and so on, in a human-like way, but also employed to integrate a liquid chromatography-mass spectrometry instrument (LC-MS) to the platform for sample analysis purposes. In order to enhance the degree of automation, the analysis process needs to be started automatically after the prepared samples are fed to the LC-MS. This was achieved by integrating the software system of the LC-MS to the SAMI Workstation EX Software system (SAMI EX, Beckman Coulter Inc.), which is user friendly and used for process scheduling. The integration was realized based on the user interface and eXtensible Markup Language (XML). The LC-MS can be controlled by imitating the signals of mouse events and keystrokes to the user interface (such as starting or stopping analysis process); XML data is used for detailed control information.

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