Author: Solhju, R.
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TUPMR012 Investigation of Central Region Design of 10MeV AVF Cyclotron 1253
 
  • M. Afkhami Karaei, H. Afarideh, S. Azizpourian, R. Solhju
    AUT, Tehran, Iran
  • J.-S. Chai, M. Ghergherehchi
    SKKU, Suwon, Republic of Korea
 
  Recently, studies on the central region of 10 MeV AVF Cyclotron have been done at AmirKabir University of Technology. In this study, the aim of the cyclotron design is to accelerate the ions up to 10MeV energy. The cyclotron, consist of four sector magnets and 2 RF cavities which will be operated at 71 MHz. The internal PIG ion source is used in this cyclotron. The purpose of this work is to investigate the behavior of trajectories of ions in the magnetic and electric fields at the center of the cyclotron. The electric and magnetic field distribution was designed by OPERA-3DTOSCA. In order to solve the equation of motion, numerical code was written in C++ program that used the conventional Rung-Kutta method. The obtained results of simulation were the horizontal and vertical motion of an ion in the center of cyclotron, and motion of the center of the orbits.  
DOI • reference for this paper ※ DOI:10.18429/JACoW-IPAC2016-TUPMR012  
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TUPMR060 Improvement of 18 MeV Cyclotron Magnet Design by TOSCA Code 1397
 
  • N. Rahimpour Kalkhoran, H. Afarideh, R. Solhju
    AUT, Tehran, Iran
  • J.-S. Chai, M. Ghergherehchi
    SKKU, Suwon, Republic of Korea
 
  According to increasing need to cyclotrons in the world, designing and manufacturing of these machines are considered. Therefore designing of 18 MeV cyclotron magnet has begun at Amirkabir University Of Technology. Magnet is one of the most important parts of the cyclotron, so in designing of magnet, all other components of cyclotron which influence on magnet, should be considered. Since the achievable energy for particle is determined 18MeV, designed magnet has AVF structure. TOSCA (Opera-3D) code was selected for simulation and analysis. First of all, theoretical calculations and estimations were done and magnetic field data according to radius were achieved, after that, simulation with initial estimations and a simple model of magnet was begun and optimization process continued until magnetic field results from the simulation coincided with the theoretical one. Different shimmings were used for better coincidence. Some results contains magnetic field on middle plane and betatron oscillations were checked. Also working points of the cyclotron with resonance regions were checked. According to use reliable mesh, the accuracy of simulation results is sufficient high.  
DOI • reference for this paper ※ DOI:10.18429/JACoW-IPAC2016-TUPMR060  
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