Sergei Gavrilov (Russian Academy of Sciences, Institute for Nuclear Research of the Russian Academy of Sciences, Moscow, Russia)
TUP67
First results of INR RAS linac timing system upgrade
203
INR RAS linac was developed in late 1970s and build during 1980s. Its timing system is based on the fifty years old technologies and requires full upgrade due to system stability decrease, lack of spare parts, progressing hardware degradation and increase in RF jamming. Moreover, the timing system upgrade should be done without additional accelerator complex shutdowns. In this paper a project of a new timing system that fulfills all requirements is presented. Various features and production peculiarities of the new timing system hardware and software are described. Results of the implementation of new system first parts and its commissioning and plans for future upgrade are discussed.
  • A. Titov, S. Gavrilov
    Institute for Nuclear Research of the Russian Academy of Sciences, Moscow, Russia
  • D. Donets, I. Shirikov, I. Zhabin, I. Spiridonova, L. Dmitry
    LLC DIALTEK
Paper: TUP67
DOI: reference for this paper: 10.18429/JACoW-IBIC2024-TUP67
About:  Received: 05 Sep 2024 — Revised: 09 Sep 2024 — Accepted: 09 Sep 2024 — Issue date: 11 Dec 2024
Cite: reference for this paper using: BibTeX, LaTeX, Text/Word, RIS, EndNote
TUP73
Features of non-destructive beam instrumentation at the INR RAS high-intensity hydrogen ions linac
215
The linac of INR RAS is а high-intensity accelerator of protons and H-minus ions, which is used for a complex of neutron sources, isotope production, proton irradiation and investigations in proton flash therapy. A non-destructive beam instrumentation plays a key role in the linac tuning. The general peculiarity of this multi-component system is that all detectors are home-made devices with a wide operation range and can be used at different ion linacs with a minimum adaptation to beam parameters. Beam current transformers for standard and in-air measurements, resonance and capacitive position and phase monitors, BIF-monitor for 1D and beam cross-section monitor for 2D non-destructive profile diagnostics. Different operation features and manufacturing peculiarities are presented in this paper. Results of implementation, operation and continuous upgrade are described. Also easily scalable typical designs of some detectors are discussed.
  • S. Gavrilov, A. Titov, I. Polonik
    Russian Academy of Sciences
Paper: TUP73
DOI: reference for this paper: 10.18429/JACoW-IBIC2024-TUP73
About:  Received: 05 Sep 2024 — Revised: 09 Sep 2024 — Accepted: 10 Sep 2024 — Issue date: 11 Dec 2024
Cite: reference for this paper using: BibTeX, LaTeX, Text/Word, RIS, EndNote