A novel solution for controlling hardware components of accelerators and beamlines.

Area of Science:

• Spectroscopy
• Materials Science
• Analytical Chemistry

Background:

• Existing remote-control systems for spectrometers often lack flexibility and integration capabilities.
• Compact multi-crystal energy-dispersive spectrometers require sophisticated control for advanced X-ray emission spectroscopy (XES) applications.
• Integration with Supervisory Control and Data Acquisition (SCADA) systems is crucial for industrial and research automation.

Purpose of the Study:

• To develop a novel, holistic communication protocol for remote spectrometer control.
• To enhance the operational flexibility and integration of compact multi-crystal energy-dispersive spectrometers.
• To enable independent hardware component operation and seamless SCADA system integration.

Main Methods:

• Implementation of asynchronous software component communication.
• Adoption of reactive design principles for system architecture.
• Development of a new, unified communication protocol.

Main Results:

• A functional remote-control system for compact multi-crystal energy-dispersive spectrometers was successfully developed.
• The system demonstrates independent operation of hardware components.
• Successful integration pathways into different SCADA systems were identified.

Conclusions:

• The developed approach provides a flexible and integrated solution for spectrometer remote control.
• Asynchronous communication and reactive design principles are effective for complex spectroscopic systems.
• The new protocol facilitates broader application of X-ray emission spectroscopy in automated environments.