Physics design of the National Spherical Torus Experiment

Stanley M. Kaye; Masayuki Ono; Yueng Kay Martin Peng; Donald B. Batchelor; Mark D. Carter; Wonho Choe; Robert James Goldston; Yong Seok Hwang; E. Fred Jaeger; Thomas R. Jarboe; Stephen Jardin; David Johnson; Robert Kaita; Charles Kessel; Henry Kugel; Rajesh Maingi; Richard Majeski; Janhardan Manickam; Jonathan Menard; David R. Mikkelsen; David J. Orvis; Brian A. Nelson; Franco Paoletti; Neil Pomphrey; Gregory Rewoldt; Steven Sabbagh; Dennis J. Strickler; Edmund Synakowski; James R. Wilson

doi:10.13182/FST99-A88

Physics design of the National Spherical Torus Experiment

Stanley M. Kaye, Masayuki Ono, Yueng Kay Martin Peng, Donald B. Batchelor, Mark D. Carter, Wonho Choe, Robert James Goldston, Yong Seok Hwang, E. Fred Jaeger, Thomas R. Jarboe, Stephen Jardin, David Johnson, Robert Kaita, Charles Kessel, Henry Kugel, Rajesh Maingi, Richard Majeski, Janhardan Manickam, Jonathan Menard, David R. MikkelsenDavid J. Orvis, Brian A. Nelson, Franco Paoletti, Neil Pomphrey, Gregory Rewoldt, Steven Sabbagh, Dennis J. Strickler, Edmund Synakowski, James R. Wilson

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Abstract

The mission of the National Spherical Torus Experiment (NSTX) is to prove the principles of spherical torus physics by producing high-β_t plasmas that are noninductively sustained and whose current profiles are in steady state. The NSTX will be one of the first ultralow-aspect-ratio tori (R/a ≤1.3) to operate at high power (P_input up to 11 MW) to produce high-β_t (25 to 40%), low-collisionality, high-bootstrap-fraction (≤70%) discharges. Both radio-frequency and neutral beam heating and current drive will be employed. Built into the NSTX is sufficient configurational flexibility to study a range of operating space and the resulting dependences of the confinement, micro- and magnetohydrodynamic stability, and particle- and power-handling properties. NSTX research will be carried out by a nationally based science team.

Original language	English (US)
Pages (from-to)	16-37
Number of pages	22
Journal	Fusion Technology
Volume	36
Issue number	1
DOIs	https://doi.org/10.13182/FST99-A88
State	Published - Jul 1999

All Science Journal Classification (ASJC) codes

General Engineering

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Kaye, S. M., Ono, M., Peng, Y. K. M., Batchelor, D. B., Carter, M. D., Choe, W., Goldston, R. J., Hwang, Y. S., Jaeger, E. F., Jarboe, T. R., Jardin, S., Johnson, D., Kaita, R., Kessel, C., Kugel, H., Maingi, R., Majeski, R., Manickam, J., Menard, J., ... Wilson, J. R. (1999). Physics design of the National Spherical Torus Experiment. Fusion Technology, 36(1), 16-37. https://doi.org/10.13182/FST99-A88

@article{8d54f88793294effaf2641c45b83d9bc,

title = "Physics design of the National Spherical Torus Experiment",

abstract = "The mission of the National Spherical Torus Experiment (NSTX) is to prove the principles of spherical torus physics by producing high-βt plasmas that are noninductively sustained and whose current profiles are in steady state. The NSTX will be one of the first ultralow-aspect-ratio tori (R/a ≤1.3) to operate at high power (Pinput up to 11 MW) to produce high-βt (25 to 40%), low-collisionality, high-bootstrap-fraction (≤70%) discharges. Both radio-frequency and neutral beam heating and current drive will be employed. Built into the NSTX is sufficient configurational flexibility to study a range of operating space and the resulting dependences of the confinement, micro- and magnetohydrodynamic stability, and particle- and power-handling properties. NSTX research will be carried out by a nationally based science team.",

author = "Kaye, {Stanley M.} and Masayuki Ono and Peng, {Yueng Kay Martin} and Batchelor, {Donald B.} and Carter, {Mark D.} and Wonho Choe and Goldston, {Robert James} and Hwang, {Yong Seok} and Jaeger, {E. Fred} and Jarboe, {Thomas R.} and Stephen Jardin and David Johnson and Robert Kaita and Charles Kessel and Henry Kugel and Rajesh Maingi and Richard Majeski and Janhardan Manickam and Jonathan Menard and Mikkelsen, {David R.} and Orvis, {David J.} and Nelson, {Brian A.} and Franco Paoletti and Neil Pomphrey and Gregory Rewoldt and Steven Sabbagh and Strickler, {Dennis J.} and Edmund Synakowski and Wilson, {James R.}",

year = "1999",

month = jul,

doi = "10.13182/FST99-A88",

language = "English (US)",

volume = "36",

pages = "16--37",

journal = "Fusion Technology",

issn = "0748-1896",

publisher = "American Nuclear Society",

number = "1",

}

Kaye, SM, Ono, M, Peng, YKM, Batchelor, DB, Carter, MD, Choe, W, Goldston, RJ, Hwang, YS, Jaeger, EF, Jarboe, TR, Jardin, S, Johnson, D, Kaita, R, Kessel, C, Kugel, H, Maingi, R, Majeski, R, Manickam, J, Menard, J, Mikkelsen, DR, Orvis, DJ, Nelson, BA, Paoletti, F, Pomphrey, N, Rewoldt, G, Sabbagh, S, Strickler, DJ, Synakowski, E & Wilson, JR 1999, 'Physics design of the National Spherical Torus Experiment', Fusion Technology, vol. 36, no. 1, pp. 16-37. https://doi.org/10.13182/FST99-A88

TY - JOUR

T1 - Physics design of the National Spherical Torus Experiment

AU - Kaye, Stanley M.

AU - Ono, Masayuki

AU - Peng, Yueng Kay Martin

AU - Batchelor, Donald B.

AU - Carter, Mark D.

AU - Choe, Wonho

AU - Goldston, Robert James

AU - Hwang, Yong Seok

AU - Jaeger, E. Fred

AU - Jarboe, Thomas R.

AU - Jardin, Stephen

AU - Johnson, David

AU - Kaita, Robert

AU - Kessel, Charles

AU - Kugel, Henry

AU - Maingi, Rajesh

AU - Majeski, Richard

AU - Manickam, Janhardan

AU - Menard, Jonathan

AU - Mikkelsen, David R.

AU - Orvis, David J.

AU - Nelson, Brian A.

AU - Paoletti, Franco

AU - Pomphrey, Neil

AU - Rewoldt, Gregory

AU - Sabbagh, Steven

AU - Strickler, Dennis J.

AU - Synakowski, Edmund

AU - Wilson, James R.

PY - 1999/7

Y1 - 1999/7

N2 - The mission of the National Spherical Torus Experiment (NSTX) is to prove the principles of spherical torus physics by producing high-βt plasmas that are noninductively sustained and whose current profiles are in steady state. The NSTX will be one of the first ultralow-aspect-ratio tori (R/a ≤1.3) to operate at high power (Pinput up to 11 MW) to produce high-βt (25 to 40%), low-collisionality, high-bootstrap-fraction (≤70%) discharges. Both radio-frequency and neutral beam heating and current drive will be employed. Built into the NSTX is sufficient configurational flexibility to study a range of operating space and the resulting dependences of the confinement, micro- and magnetohydrodynamic stability, and particle- and power-handling properties. NSTX research will be carried out by a nationally based science team.

AB - The mission of the National Spherical Torus Experiment (NSTX) is to prove the principles of spherical torus physics by producing high-βt plasmas that are noninductively sustained and whose current profiles are in steady state. The NSTX will be one of the first ultralow-aspect-ratio tori (R/a ≤1.3) to operate at high power (Pinput up to 11 MW) to produce high-βt (25 to 40%), low-collisionality, high-bootstrap-fraction (≤70%) discharges. Both radio-frequency and neutral beam heating and current drive will be employed. Built into the NSTX is sufficient configurational flexibility to study a range of operating space and the resulting dependences of the confinement, micro- and magnetohydrodynamic stability, and particle- and power-handling properties. NSTX research will be carried out by a nationally based science team.

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U2 - 10.13182/FST99-A88

DO - 10.13182/FST99-A88

M3 - Article

AN - SCOPUS:0345009050

SN - 0748-1896

VL - 36

SP - 16

EP - 37

JO - Fusion Technology

JF - Fusion Technology

IS - 1

ER -

Physics design of the National Spherical Torus Experiment

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