Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy

W.J. Goedheer; G.J. Rooij, van; V.P. Veremiyenko; Z. Ahmad; C.J. Barth; S. Brezinsek; R P Dahiya; H.J.N. Eck, van; R.A.H. Engeln; U. Fantz; B. Groot, de; M.G. Hellermann, von; A.W. Kleyn; G.L. Kruijtzer; N.J. Lopes Cardozo; V. Philipps; A. Pospieszczyk; U. Samm; D.C. Schram; J.C. Wolff

doi:10.1615/HighTempMatProc.v8.i4.120

Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy

W.J. Goedheer
, G.J. Rooij, van
, V.P. Veremiyenko
, Z. Ahmad
, C.J. Barth
, S. Brezinsek
, R P Dahiya
, H.J.N. Eck, van
, R.A.H. Engeln
, U. Fantz
, B. Groot, de
, M.G. Hellermann, von
, A.W. Kleyn
, G.L. Kruijtzer
, N.J. Lopes Cardozo
, V. Philipps
, A. Pospieszczyk
, U. Samm
, D.C. Schram
, J.C. Wolff

Research output: Contribution to journal › Article › Academic › peer-review

5 Citations (Scopus)

3 Downloads (Pure)

Abstract

The FOM-Institute for Plasma Physics - together with its TEC partners - is preparing the construction of Magnum-psi, a magnetized (3 T), steady-state, large area (100 cm²), high-flux (up to 10²4 H+ ions m¿²s¿¹) plasma generator. Magnum-psi is being developed to study plasma-surface interaction in conditions similar to those in the divertor of ITER and fusion reactors beyond ITER. In order to explore and develop the techniques to be applied in Magnum-psi, a pilot experiment (Pilot-psi), with a magnetic field up to 1.6 Tesla, has been constructed. One of the main design questions of Magnum-psi is how to produce the required flux. The results of Thomson Scattering and high-resolution spectroscopy on Pilot-psi plasmas presented in this paper demonstrate that a cascaded arc plasma expanding at low pressure and eventually confined by a strong magnetic field is a very good candidate to produce the required ion flux, in Pilot-psi fluxes well in excess of 10²³ m¿²s¿¹ can be reached over 1 cm².

Original language	English
Pages (from-to)	627-633
Number of pages	7
Journal	High Temperature Material Processes
Volume	8
Issue number	4
DOIs	https://doi.org/10.1615/HighTempMatProc.v8.i4.120
Publication status	Published - 2004

Access to Document

10.1615/HighTempMatProc.v8.i4.120

Cite this

Goedheer, W. J., Rooij, van, G. J., Veremiyenko, V. P., Ahmad, Z., Barth, C. J., Brezinsek, S., Dahiya, R. P., Eck, van, H. J. N., Engeln, R. A. H., Fantz, U., Groot, de, B., Hellermann, von, M. G., Kleyn, A. W., Kruijtzer, G. L., Lopes Cardozo, N. J., Philipps, V., Pospieszczyk, A., Samm, U., Schram, D. C., & Wolff, J. C. (2004). Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy. High Temperature Material Processes, 8(4), 627-633. https://doi.org/10.1615/HighTempMatProc.v8.i4.120

@article{6a47efed3be9435bb1af25954d832fb8,

title = "Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy",

abstract = "The FOM-Institute for Plasma Physics - together with its TEC partners - is preparing the construction of Magnum-psi, a magnetized (3 T), steady-state, large area (100 cm²), high-flux (up to 10²4 H+ ions m¿²s¿¹) plasma generator. Magnum-psi is being developed to study plasma-surface interaction in conditions similar to those in the divertor of ITER and fusion reactors beyond ITER. In order to explore and develop the techniques to be applied in Magnum-psi, a pilot experiment (Pilot-psi), with a magnetic field up to 1.6 Tesla, has been constructed. One of the main design questions of Magnum-psi is how to produce the required flux. The results of Thomson Scattering and high-resolution spectroscopy on Pilot-psi plasmas presented in this paper demonstrate that a cascaded arc plasma expanding at low pressure and eventually confined by a strong magnetic field is a very good candidate to produce the required ion flux, in Pilot-psi fluxes well in excess of 10²³ m¿²s¿¹ can be reached over 1 cm².",

author = "W.J. Goedheer and \{Rooij, van\}, G.J. and V.P. Veremiyenko and Z. Ahmad and C.J. Barth and S. Brezinsek and Dahiya, \{R P\} and \{Eck, van\}, H.J.N. and R.A.H. Engeln and U. Fantz and \{Groot, de\}, B. and \{Hellermann, von\}, M.G. and A.W. Kleyn and G.L. Kruijtzer and \{Lopes Cardozo\}, N.J. and V. Philipps and A. Pospieszczyk and U. Samm and D.C. Schram and J.C. Wolff",

year = "2004",

doi = "10.1615/HighTempMatProc.v8.i4.120",

language = "English",

volume = "8",

pages = "627--633",

journal = "High Temperature Material Processes",

issn = "1093-3611",

publisher = "Begell House Inc.",

number = "4",

}

Goedheer, WJ, Rooij, van, GJ, Veremiyenko, VP, Ahmad, Z, Barth, CJ, Brezinsek, S, Dahiya, RP, Eck, van, HJN, Engeln, RAH, Fantz, U, Groot, de, B, Hellermann, von, MG, Kleyn, AW, Kruijtzer, GL, Lopes Cardozo, NJ, Philipps, V, Pospieszczyk, A, Samm, U, Schram, DC & Wolff, JC 2004, 'Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy', High Temperature Material Processes, vol. 8, no. 4, pp. 627-633. https://doi.org/10.1615/HighTempMatProc.v8.i4.120

TY - JOUR

T1 - Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy

AU - Goedheer, W.J.

AU - Rooij, van, G.J.

AU - Veremiyenko, V.P.

AU - Ahmad, Z.

AU - Barth, C.J.

AU - Brezinsek, S.

AU - Dahiya, R P

AU - Eck, van, H.J.N.

AU - Engeln, R.A.H.

AU - Fantz, U.

AU - Groot, de, B.

AU - Hellermann, von, M.G.

AU - Kleyn, A.W.

AU - Kruijtzer, G.L.

AU - Lopes Cardozo, N.J.

AU - Philipps, V.

AU - Pospieszczyk, A.

AU - Samm, U.

AU - Schram, D.C.

AU - Wolff, J.C.

PY - 2004

Y1 - 2004

N2 - The FOM-Institute for Plasma Physics - together with its TEC partners - is preparing the construction of Magnum-psi, a magnetized (3 T), steady-state, large area (100 cm²), high-flux (up to 10²4 H+ ions m¿²s¿¹) plasma generator. Magnum-psi is being developed to study plasma-surface interaction in conditions similar to those in the divertor of ITER and fusion reactors beyond ITER. In order to explore and develop the techniques to be applied in Magnum-psi, a pilot experiment (Pilot-psi), with a magnetic field up to 1.6 Tesla, has been constructed. One of the main design questions of Magnum-psi is how to produce the required flux. The results of Thomson Scattering and high-resolution spectroscopy on Pilot-psi plasmas presented in this paper demonstrate that a cascaded arc plasma expanding at low pressure and eventually confined by a strong magnetic field is a very good candidate to produce the required ion flux, in Pilot-psi fluxes well in excess of 10²³ m¿²s¿¹ can be reached over 1 cm².

AB - The FOM-Institute for Plasma Physics - together with its TEC partners - is preparing the construction of Magnum-psi, a magnetized (3 T), steady-state, large area (100 cm²), high-flux (up to 10²4 H+ ions m¿²s¿¹) plasma generator. Magnum-psi is being developed to study plasma-surface interaction in conditions similar to those in the divertor of ITER and fusion reactors beyond ITER. In order to explore and develop the techniques to be applied in Magnum-psi, a pilot experiment (Pilot-psi), with a magnetic field up to 1.6 Tesla, has been constructed. One of the main design questions of Magnum-psi is how to produce the required flux. The results of Thomson Scattering and high-resolution spectroscopy on Pilot-psi plasmas presented in this paper demonstrate that a cascaded arc plasma expanding at low pressure and eventually confined by a strong magnetic field is a very good candidate to produce the required ion flux, in Pilot-psi fluxes well in excess of 10²³ m¿²s¿¹ can be reached over 1 cm².

U2 - 10.1615/HighTempMatProc.v8.i4.120

DO - 10.1615/HighTempMatProc.v8.i4.120

M3 - Article

SN - 1093-3611

VL - 8

SP - 627

EP - 633

JO - High Temperature Material Processes

JF - High Temperature Material Processes

IS - 4

ER -

Effect of magnetic field strength on Pilot-psi plasma beam fluxes probed by Thomson Scattering and spectroscopy

Abstract

Access to Document

Fingerprint

Cite this