Beam Dynamics Studies for a Compact Carbon Ion Linac for Therapy
Alexander Plastun, L. Faillace, Sergey Kutsaev, B. Mustapha, Ali Nassiri, Peter N. Ostroumov, Evgeny A. Savin
Abstract
Alexander Plastun, L. Faillace, Sergey Kutsaev, B. Mustapha, Ali Nassiri, Peter N. Ostroumov, Evgeny A. Savin
Abstract
Feasibility of an Advanced Compact Carbon Ion Linac (ACCIL) for hadron therapy is being studied at Argonne National Laboratory in collaboration with RadiaBeam Technologies. The 45-meter long linac is designed to deliver 10⁹ carbon ions per second with variable energy from 45 MeV/u to 450 MeV/u. S-band structure provides the acceleration in this range. The carbon beam energy can be adjusted from pulse to pulse, making 3D tumor scanning straightforward and fast. Front end accelerating structures such as RFQ, DTL and coupled DTL are designed to operate at lower frequencies. The design of the linac was accompanied with extensive end-to-end beam dynamics studies which are presented in this paper.
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Feasibility of an Advanced Compact Carbon Ion Linac (ACCIL) for hadron therapy is being studied at Argonne National Laboratory in collaboration with RadiaBeam Technologies. The 45-meter long linac is designed to deliver 10⁹ carbon ions per second with variable energy from 45 MeV/u to 450 MeV/u. S-band structure provides the acceleration in this range. The carbon beam energy can be adjusted from pulse to pulse, making 3D tumor scanning straightforward and fast. Front end accelerating structures such as RFQ, DTL and coupled DTL are designed to operate at lower frequencies. The design of the linac was accompanied with extensive end-to-end beam dynamics studies which are presented in this paper.
Key concepts: Linear particle accelerator, Beam (structure), Dynamics (music), Ion beam, Ion, Carbon fibers, Nuclear engineering, Physics