Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Jost, A.
Olschewski, H. A.
and
Wolfrum, J.
1966.
Das Stoßwellenrohr — einige Anwendungen in Chemie und Physik.
Chemie Ingenieur Technik,
Vol. 38,
Issue. 12,
p.
1241.
Dyner, Harry B.
1966.
Density Variation due to Reflected Shock-Boundary-Layer Interaction.
The Physics of Fluids,
Vol. 9,
Issue. 5,
p.
879.
Russell, David A.
1967.
Shock-wave strengthening by area convergence.
Journal of Fluid Mechanics,
Vol. 27,
Issue. 2,
p.
305.
Christiansen, Walter H.
1968.
Measurements of Flow Uniformity in Shock Tubes Operating at Low Initial Pressure.
The Physics of Fluids,
Vol. 11,
Issue. 10,
p.
2279.
Dadone, Andrea
and
Pandolfi, Maurizio
1971.
Interaction of travelling shock waves with orifices inside ducts.
International Journal of Mechanical Sciences,
Vol. 13,
Issue. 1,
p.
1.
Duntsova, Zh. S.
Ershov, I. V.
Kireev, V. T.
and
Ruzavin, E. I.
1972.
Calculation of shock wave motion and flow parameters for a noninstantaneous shock tube diaphragm opening.
Fluid Dynamics,
Vol. 4,
Issue. 2,
p.
81.
GLASS, I. I.
CHAN, S. K.
and
BRODE, H. L.
1974.
Strong Planar Shock Waves Generated by Explosively-Driven Spherical Implosions.
AIAA Journal,
Vol. 12,
Issue. 3,
p.
367.
Tong, Kwok-On
and
Russell, David A.
1977.
Viscous effects in tube flow initiated by an expansion wave.
AIAA Journal,
Vol. 15,
Issue. 12,
p.
1763.
Zeitoun, D.
and
Imbert, M.
1979.
Interaction between the Unsteady Boundary Layer and Inviscid Hot Flow in a Shock Tube.
AIAA Journal,
Vol. 17,
Issue. 8,
p.
821.
Peterson, Eric
and
Hanson, Ronald
2001.
An improved turbulent boundary-layer model for shock tubes.
Petersen, Eric L.
and
Hanson, Ronald K.
2003.
Improved Turbulent Boundary-Layer Model for Shock Tubes.
AIAA Journal,
Vol. 41,
Issue. 7,
p.
1314.
Knauss, Helmut
Roediger, Tim
Gaisbauer, Uwe
Kraemer, Ewald
Bountin, Dimitry
Smorodsky, Boris
Maslov, Anatoli
Srulijes, J
and
Seiler, Friedrich
2006.
A Novel Sensor for Fast Heat Flux Measurements.
Wen, J.X.
Xu, B.P.
and
Tam, V.H.Y.
2009.
Numerical study on spontaneous ignition of pressurized hydrogen release through a length of tube.
Combustion and Flame,
Vol. 156,
Issue. 11,
p.
2173.
Knauss, Helmut
Roediger, Tim
Bountin, Dimitry A.
Smorodsky, Boris V.
Maslov, Anatoly A.
and
Srulijes, Julio
2009.
Novel Sensor for Fast Heat Flux Measurements.
Journal of Spacecraft and Rockets,
Vol. 46,
Issue. 2,
p.
255.
Houas, L.
Biamino, L.
Mariani, C.
Igra, O.
Jourdan, G.
and
Massol, A.
2012.
The effects that changes in the diaphragm aperture have on the resulting shock tube flow.
Shock Waves,
Vol. 22,
Issue. 4,
p.
287.
Bragin, M.V.
Makarov, D.V.
and
Molkov, V.V.
2013.
Pressure limit of hydrogen spontaneous ignition in a T-shaped channel.
International Journal of Hydrogen Energy,
Vol. 38,
Issue. 19,
p.
8039.
Mével, R.
2019.
Optical regime diagram of the shock tube/pulsed laser-induced fluorescence imaging technique.
Chemical Physics Letters,
Vol. 730,
Issue. ,
p.
283.
Duan, Qiangling
Xiao, Huahua
Gong, Liang
Li, Ping
Zeng, Qian
Gao, Wei
and
Sun, Jinhua
2019.
Experimental study of shock wave propagation and its influence on the spontaneous ignition during high-pressure hydrogen release through a tube.
International Journal of Hydrogen Energy,
Vol. 44,
Issue. 40,
p.
22598.
Gong, Liang
Li, Zhisheng
Jin, Kaiyan
Gao, Yunji
Duan, Qiangling
Zhang, Yuchun
and
Sun, Jinhua
2020.
Numerical study on the mechanism of spontaneous ignition of high-pressure hydrogen during its sudden release into a tube.
Safety Science,
Vol. 129,
Issue. ,
p.
104807.
Gong, Liang
Jin, Kaiyan
Yang, Shengnan
Yang, Zeyu
Li, Zhisheng
Gao, Yunji
and
Zhang, Yuchun
2020.
Numerical study on the mechanism of spontaneous ignition of high-pressure hydrogen in the L-shaped tube.
International Journal of Hydrogen Energy,
Vol. 45,
Issue. 56,
p.
32730.