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Title: The light ion pulsed power induction accelerator for ETF
Author (s): Mazarakis, M.G.
Olson, Ronald E.
Olson, C.L.
Smith, D.L.
Bennett, L.F.
Department/Lab Affiliations: Physics
Keywords: 2 MJ
250 TW
3 MA
300 kA
36 MV
8 ns
Engineering Test Facility
RHEPP accelerator
accelerating modules
fusion chamber
inductive energy storage
ion accelerators
light ion pulsed power induction accelerator
linear inductive voltage addition
power inductors
power pulse shape optimisation
power supplies to apparatus
preconceptual design
pulse generators
pulsed power supplies
pulsed power technology
repetition rate
self-magnetically insulated transmission line
Issue Date: 1995
Publisher: Institute of Electrical and Electronics Engineers
Citation: Mazarakis, M.G.; Olson, R.E.; Olson, C.L.; Smith, D.L.; Bennett, L.F. "The light ion pulsed power induction accelerator for ETF" Digest of Technical Papers. Tenth IEEE International Pulsed Power Conference, 1995. 3-6 Jul 1995 Pages:1476-1481 vol.2
Abstract: The light ion Engineering Test Facility (ETF) driver concept, based on Hermes III and RHEPP technologies, is a scaled-down version of the LMF design incorporating repetition rate capabilities of up to 10 Hz. The preconceptual design presented here provides 250 TW peak power to the ETF target during 8 ns, equal to 2 MJ total ion beam energy. Linear inductive voltage addition driving a self-magnetically insulated transmission line (MITL) is utilized to generate the 36 MV peak voltage needed for lithium ion beams. The ~3 MA ion current is achieved by utilizing many accelerating modules in parallel. Since the current per module is relatively modest (~300 kA), two-stage or one-stage extraction diodes can be utilized for the generation of singly charged lithium ions. The accelerating modules are arranged symmetrically around the fusion chamber in order to provide uniform irradiation onto the ETF target. In addition, the modules are fired in a programmed sequence in order to generate the optimum power pulse shape onto the target. This design utilizes RHEPP accelerator modules as the principal power source
Type: Article - Conference proceedings
text
In Title: Digest of Technical Papers
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titleThe light ion pulsed power induction accelerator for ETF
contributor.authorMazarakis, M.G.
contributor.authorOlson, Ronald E.
contributor.authorOlson, C.L.
contributor.authorSmith, D.L.
contributor.authorBennett, L.F.
contributor.deptlabPhysics
subject2 MJ
subject250 TW
subject3 MA
subject300 kA
subject36 MV
subject8 ns
subjectEngineering Test Facility
subjectRHEPP accelerator
subjectaccelerating modules
subjectfusion chamber
subjectinductive energy storage
subjection accelerators
subjectlight ion pulsed power induction accelerator
subjectlinear inductive voltage addition
subjectpower inductors
subjectpower pulse shape optimisation
subjectpower supplies to apparatus
subjectpreconceptual design
subjectpulse generators
subjectpulsed power supplies
subjectpulsed power technology
subjectrepetition rate
subjectself-magnetically insulated transmission line
date.issued1995
date.submitted2007
publisherInstitute of Electrical and Electronics Engineers
identifier.citationMazarakis, M.G.; Olson, R.E.; Olson, C.L.; Smith, D.L.; Bennett, L.F. "The light ion pulsed power induction accelerator for ETF" Digest of Technical Papers. Tenth IEEE International Pulsed Power Conference, 1995. 3-6 Jul 1995 Pages:1476-1481 vol.2
identifier.pub.URI
http://ieeexplore.ieee.org/iel3/4656/13226/00599826.pdf?arnumber=59982
description.abstractThe light ion Engineering Test Facility (ETF) driver concept, based on Hermes III and RHEPP technologies, is a scaled-down version of the LMF design incorporating repetition rate capabilities of up to 10 Hz. The preconceptual design presented here provides 250 TW peak power to the ETF target during 8 ns, equal to 2 MJ total ion beam energy. Linear inductive voltage addition driving a self-magnetically insulated transmission line (MITL) is utilized to generate the 36 MV peak voltage needed for lithium ion beams. The ~3 MA ion current is achieved by utilizing many accelerating modules in parallel. Since the current per module is relatively modest (~300 kA), two-stage or one-stage extraction diodes can be utilized for the generation of singly charged lithium ions. The accelerating modules are arranged symmetrically around the fusion chamber in order to provide uniform irradiation onto the ETF target. In addition, the modules are fired in a programmed sequence in order to generate the optimum power pulse shape onto the target. This design utilizes RHEPP accelerator modules as the principal power source
typeArticle - Conference proceedings
type.DCMITypetext
type.statusFinal version
rightsThis material is presented to ensure timely dissemination of scholarly and technical work. Copyright and all rights therein are retained by authors or by other copyright holders. All persons copying this information are expected to adhere to the terms and constraints invoked by each author's copyright. In most cases, these works may not be reposted without the explicit permission of the copyright holder.
rights.URI
http://www.ieee.org/web/publications/rights/policies.html
relation.isPartOfDigest of Technical Papers
date.accessioned2007-04-05T14:02:17Z
date.available2007-12-17T20:27:16Z
identifier.persist.URI
http://scholarsmine.mst.edu/post_prints/00599826_09007dcc8030c021.html
Full Text
00599826_09007dcc8030c026.pdf