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Blackburn, TR, Brennan, MH (1971) The Effects of Cylindrical Geometry on Normal Ionizing Shock Waves. Australian Journal of Physics, 24 (4). 925pp. doi:10.1071/ph710925

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Reference TypeJournal (article/letter/editorial)
TitleThe Effects of Cylindrical Geometry on Normal Ionizing Shock Waves
JournalAustralian Journal of Physics
AuthorsBlackburn, TRAuthor
Brennan, MHAuthor
Year1971Volume24
Issue4
PublisherCSIRO Publishing
DOIdoi:10.1071/ph710925Search in ResearchGate
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Mindat Ref. ID10697846Long-form Identifiermindat:1:5:10697846:7
GUID0
Full ReferenceBlackburn, TR, Brennan, MH (1971) The Effects of Cylindrical Geometry on Normal Ionizing Shock Waves. Australian Journal of Physics, 24 (4). 925pp. doi:10.1071/ph710925
Plain TextBlackburn, TR, Brennan, MH (1971) The Effects of Cylindrical Geometry on Normal Ionizing Shock Waves. Australian Journal of Physics, 24 (4). 925pp. doi:10.1071/ph710925
In(1971) Australian Journal of Physics Vol. 24 (4) CSIRO Publishing

See Also

These are possibly similar items as determined by title/reference text matching only.

Brennan, MH, Fletcher, J, Morrow, R, Westwood, WD (1969) Investigation of the Plasma Produced by a Normal Ionizing Shock Wave Using Polychromator Techniques. Australian Journal of Physics, 22 (1). 13pp. doi:10.1071/ph690013
Morrow, R, Brennan, MH (1974) The Propagation of Compressional Alfven Waves in Nonuniform Plasmas. Australian Journal of Physics, 27 (2). 181pp. doi:10.1071/ph740181
Green, B, May, RM (1965) Magnetohydrodynamic Ionizing Shock Waves in a Conducting Medium. Australian Journal of Physics, 18 (4). 363pp. doi:10.1071/ph650363
Nitschke, P.H., Brennan, M.H. (1974) Axial flow velocity behind normal ionizing shock waves. Physics Letters A, 47. 89-90 doi:10.1016/0375-9601(74)90120-0
Silawatshananai, C, Anderson, FSB, Brennan, MH, Durance, G, Jones, IR, Murray, EL, Tendys, J (1980) The Effects of Preionization Level on a ?Stabilized? Z-pinch. Australian Journal of Physics, 33 (6). 1001pp. doi:10.1071/ph801001
Nitschke, P.H, Brennan, M.H, Phillips, M.G.R (1972) Pressure jump across normal ionizing shock waves. Physics Letters A, 40. 367-368 doi:10.1016/0375-9601(72)90534-8
Woods, L. C. (1965) On ionizing shock waves in a cylindrical plasma. Journal of Fluid Mechanics, 22 (4). 689pp. doi:10.1017/s0022112065001076
Manku, GCS (1971) The formation constants of some metal complexes with 3-Acetyl-4-hydroxycoumarin, dehydroacetic acid, and their oximes. Australian Journal of Chemistry, 24 (5). 925pp. doi:10.1071/ch9710925
Cramer, NF, Donnelly, IJ (1983) The Excitation of Ion-acoustic Waves by a Magnetic Pump in Cylindrical Geometry. Australian Journal of Physics, 36 (5). 675pp. doi:10.1071/ph830675
(1971) Index. Australian Journal of Physics, 24 (4). 935pp. doi:10.1071/ph710935
Brennan, MH, Jessup, BL, Jones, IR (1978) An Investigation of the Composition of a Hydrogen Plasma using Magnetoacoustic Oscillations. Australian Journal of Physics, 31 (6). 477pp. doi:10.1071/ph780477
 
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