Topic : Advanced control system with unified classical, modern, and AI-based approaches
Scope
Particle accelerators are machines used for increasing the energy of charged particles for use in various applications in many fields. The operation of these machines generally requires the monitoring and control of many system parameters. This is achieved with the distributed control system comprising different interconnected hardware and software control system layers covering different subsystems of accelerators like injector, transport lines, storage ring, and beam lines. The main requirement is that all the sub-system operations are to be performed in a synchronized and/or sequential manner. Classical and modern multivariable control algorithms have been constantly implemented in the closed-loop control schemes to control the machines. With the time-and-frequency domain designs and trade-off between disturbance rejection and noise attenuation, these control algorithms have been successfully applied to the machines. Nowadays, machine stability and timing in modern accelerators have become increasingly stringent, the signal processing and control algorithms must meet these demanding requirements. With the advancement of the computing hardware and modern software architecture, it is possible and challenging to apply complex Artificial Intelligence algorithms together with the control and signal processing algorithms to the closed-loop control of the machines. The PhD candidates will be working by designing an AI-based controller together with the new and/or existing feedback control algorithms for subsystem(s) of the accelerator machine. Both simulation and real-world implementation (hardware and software designs) are performed for practical purposes during their study.
Tools to be used: High-performance computer, FPGA controller boards, microcontrollers, single-board computers.
Skill required: Programming/coding skill. Knowledge of signals and systems/control system engineering/machine learning is preferable.
Supervisor
Dr. Roengrut Rujanakraikarn
and SLRI researchers
Topic for Ph.D. Thesis by SLRI
1.Development of synchrotron-based advanced measurement techniques
2.Development of AI for atomic and molecular structural analyses with X-Ray Diffraction and X-ray Scattering
3.Development of X-ray lenses for nano-beam
4.Studies of collective bunch instabilities in electron storage rings
5.Studies of longitudinal dynamics of Landau cavity in electron storage ring
6.Studies of low-emittance beam injection efficiency of 4th generation synchrotron light source
7.Development of advanced photon detectors
8.Development of pulse magnets for high energy electron synchrotron
9.Development of ultra-high stability power supply
10.Advanced control system with unified classical, modern, and AI-based approaches
11.Development of Radio Frequency amplifier system
12.Development of Low Level Radio Frequency system
13.Autonomous control for Radio Frequency control system
14.Design and fabrication of Radio Frequency harmonic cavity for electron storage ring
15.Development of RF-shield bellow for low impedance electron storage ring
16.Development of high field gradient accelerating structure for industrial applications
17.Development of sub-micron resolution Synchrotron X-ray Tomography system
18.Development of Synchrotron X-ray Fluorescence system for quantitative measurements of trace elements in solid and liquid
19.Development of high field in-vacuum permanent magnet wiggler for high intensity hard x-ray generation