APS April Meeting 2012
Volume 57, Number 3
Saturday–Tuesday, March 31–April 3 2012;
Atlanta, Georgia
Session D6: Invited Session: Accelerator Driven Systems
3:30 PM–5:18 PM,
Saturday, March 31, 2012
Room: Embassy C
Sponsoring
Unit:
DPB
Chair: William Barletta, Massachusetts Institute of Technology
Abstract ID: BAPS.2012.APR.D6.2
Abstract: D6.00002 : High Power Cyclotrons for Accelerator Driven System (ADS)
4:06 PM–4:42 PM
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Abstract
Author:
Luciano Calabretta
(INFN-LNS)
We present an accelerator module based on a injector cyclotron and a
Superconducting Ring Cyclotron (SRC) able to accelerate H2+ molecules. H2+
molecules are extracted from the SRC stripping the binding electron by a
thin carbon foil. The SRC will be able to deliver proton beam with maximum
energy of 800 MeV and a maximum power of 8 MW. This module is forecasted for
the DAEdALUS (Decay At rest Experiment for $\delta _{cp}$ At Laboratory
for Underground Science) experiment, which is a neutrino experiment proposed
by groups of MIT and Columbia University. Extensive beam dynamics studies
have been carrying out in the last two years and proved the feasibility of
the design.
The use of H2+ molecules beam has three main advantages: 1) it reduces the
space charge effects, 2) because of stripping extraction, it simplifies the
extraction process w.r.t. single turn extraction and 3) we can extract more
than one beam out of one SRC.
A suitable upgraded version of the cyclotron module able to deliver up to
10MW beam is proposed to drive ADS. The accelerator system which is
presented, consists of having three accelerators modules. Each SRC is
equipped with two extraction systems delivering two beams each one with a
power up to 5 MW. Each accelerator module, feeds both the two reactors at
the same time. The three accelerators modules assure to maintain continuity
in functioning of the two reactors. In normal operation, all the three
accelerators module will deliver 6.6 MW each one, just in case one of the
three accelerator module will be off, due to a fault or maintenance, the
other two modules are pushed at maximum power of 10 MW. The superconducting
magnetic sector of the SRC, as well as the normal conducting sector of the
injector cyclotron, is calculated with the TOSCA module of OPERA3D. Here the
main features of the injector cyclotron, of the SRC and the beam dynamic
along the cyclotrons are presented.
To cite this abstract, use the following reference: http://meetings.aps.org/link/BAPS.2012.APR.D6.2