IBIC2014 - List of Keywords (ion-source)

Paper	Title	Other Keywords	Page
TUPD01	Distinct Transverse Emittance Measurements of the PXIE LEBT	emittance, solenoid, ion, dipole	393
	R.T.P. D'Arcy, B.M. Hanna, L.R. Prost, V.E. Scarpine, A.V. Shemyakin, J. Steimel Fermilab, Batavia, Illinois, USA
	Funding: This work was supported by the U.S. Department of Energy under contract No. DE-AC02-07CH11359. PXIE is the front-end test stand of the proposed PIP-II initiative i.e. the first step towards a CW-compatible, pulsed H⁻ superconducting RF linac upgrade to Fermilab’s injection complex. The test stand for this machine will be built step-wise; the Ion Source and Low-Energy Beam Transport (LEBT) are currently in place, with the RFQ and MEBT due for installation 2015. The initial LEBT configuration under investigation in this paper is comprised of a D-Pace Filament-driven H⁻ source and a single downstream solenoid, accompanied by a number of beam-diagnostic tools. The emittance studies expounded are performed via two methods: a position-angle phase-space sweep using an Allison-type emittance scanner; a solenoid corrector-induced transverse beam shift, impinging the bunch on an isolated, biased diaphragm. A detailed comparison of the two results is outlined.
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WEPF12	A Diagnostics of Ion Beam from 28 GHz Electron Cyclotron Resonance Ion Source	ion, diagnostics, ECR, emittance	561
	J.W. Ok, S. Choi, J.G. Hong, S.J. Kim, B.S. Lee, J.Y. Park, C.S. Shin, M. Won, J.H. Yoon Korea Basic Science Institute, Busan, Republic of Korea J. Bahng Kyungpook National University, Daegu, Republic of Korea
	A neutron radiography facility utilizing a 28 GHz superconducting electron cyclotron resonance (ECR) ion source and a heavy ion accelerator is now under construction at Korea Basic Science Institute (KSBI). In order to generate a proper energy distribution of neutron, a lithium ion beam is considered. It will be accelerated up to the energy of 2.7 MeV/u by using a radio frequency quadrupole (RFQ) and drift tube linear (DTL) accelerator. The 28 GHz superconducting ECR ion source, which is the state of the art of an ion injector, has been built to produce the lithium ion beam. The ion beam of 12 keV/u would be extracted to low energy beam transport (LEBT) system, which is comprised of several types of electromagnets to focus and deliver the beam, effectively. After transporting an ion beam through LEBT, RFQ once accelerates the ion beam from 12 to 500 keV/u. Finally, we can achieve the final beam energy at the DTL. Before the ion beam is delivered to accelerator, the requirements should be satisfied to confirm the status of beam. For this, we developed the instruments in the diagnostic chamber in the middle of LEBT system to observe the beam dynamics. An analyzing electromagnet, slits, wire scanners and faraday cup will be used to perform a diagnosis of ion beam characteristics. We will present and discuss the experimental results of ion beam profile and the current after selecting a required charge state.
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Paper

Title

Other Keywords

Page

TUPD01

Distinct Transverse Emittance Measurements of the PXIE LEBT

emittance, solenoid, ion, dipole

393

R.T.P. D'Arcy, B.M. Hanna, L.R. Prost, V.E. Scarpine, A.V. Shemyakin, J. Steimel
Fermilab, Batavia, Illinois, USA

Funding: This work was supported by the U.S. Department of Energy under contract No. DE-AC02-07CH11359.
PXIE is the front-end test stand of the proposed PIP-II initiative i.e. the first step towards a CW-compatible, pulsed H⁻ superconducting RF linac upgrade to Fermilab’s injection complex. The test stand for this machine will be built step-wise; the Ion Source and Low-Energy Beam Transport (LEBT) are currently in place, with the RFQ and MEBT due for installation 2015. The initial LEBT configuration under investigation in this paper is comprised of a D-Pace Filament-driven H⁻ source and a single downstream solenoid, accompanied by a number of beam-diagnostic tools. The emittance studies expounded are performed via two methods: a position-angle phase-space sweep using an Allison-type emittance scanner; a solenoid corrector-induced transverse beam shift, impinging the bunch on an isolated, biased diaphragm. A detailed comparison of the two results is outlined.

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WEPF12

A Diagnostics of Ion Beam from 28 GHz Electron Cyclotron Resonance Ion Source

ion, diagnostics, ECR, emittance

561

J.W. Ok, S. Choi, J.G. Hong, S.J. Kim, B.S. Lee, J.Y. Park, C.S. Shin, M. Won, J.H. Yoon
Korea Basic Science Institute, Busan, Republic of Korea
J. Bahng
Kyungpook National University, Daegu, Republic of Korea

A neutron radiography facility utilizing a 28 GHz superconducting electron cyclotron resonance (ECR) ion source and a heavy ion accelerator is now under construction at Korea Basic Science Institute (KSBI). In order to generate a proper energy distribution of neutron, a lithium ion beam is considered. It will be accelerated up to the energy of 2.7 MeV/u by using a radio frequency quadrupole (RFQ) and drift tube linear (DTL) accelerator. The 28 GHz superconducting ECR ion source, which is the state of the art of an ion injector, has been built to produce the lithium ion beam. The ion beam of 12 keV/u would be extracted to low energy beam transport (LEBT) system, which is comprised of several types of electromagnets to focus and deliver the beam, effectively. After transporting an ion beam through LEBT, RFQ once accelerates the ion beam from 12 to 500 keV/u. Finally, we can achieve the final beam energy at the DTL. Before the ion beam is delivered to accelerator, the requirements should be satisfied to confirm the status of beam. For this, we developed the instruments in the diagnostic chamber in the middle of LEBT system to observe the beam dynamics. An analyzing electromagnet, slits, wire scanners and faraday cup will be used to perform a diagnosis of ion beam characteristics. We will present and discuss the experimental results of ion beam profile and the current after selecting a required charge state.

Export •

reference for this paper to ※ LaTeX, ※ Text, ※ IS/RefMan, ※ EndNote (xml)