Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Lauterborn, Werner
and
Kurz, Thomas
2010.
Physics of bubble oscillations.
Reports on Progress in Physics,
Vol. 73,
Issue. 10,
p.
106501.
Swantek, Andrew
Shukla, Ratnesh
and
Austin, Joanna
2010.
Effect of Loading Wave Profile on Hydrodynamic Void Collapse in Detonation Initiation.
Gryngarten, Leandro
and
Menon, Suresh
2011.
Shock-Bubble Interaction Simulations Using a New Two-Phase Discontinuous Galerkin Method.
Lauer, E.
Hu, X. Y.
Hickel, S.
and
Adams, N. A.
2012.
Numerical investigation of collapsing cavity arrays.
Physics of Fluids,
Vol. 24,
Issue. 5,
Kapahi, A.
and
Udaykumar, H. S.
2013.
Dynamics of void collapse in shocked energetic materials: physics of void–void interactions.
Shock Waves,
Vol. 23,
Issue. 6,
p.
537.
Gryngarten, Leandro D.
and
Menon, Suresh
2013.
A generalized approach for sub- and super-critical flows using the Local Discontinuous Galerkin method.
Computer Methods in Applied Mechanics and Engineering,
Vol. 253,
Issue. ,
p.
169.
Yu Yin
He Hong-Liang
Wang Wen-Qiang
and
Lu Tie-Cheng
2014.
Shock response and evolution mechanism of brittle material containing micro-voids.
Acta Physica Sinica,
Vol. 63,
Issue. 24,
p.
246102.
Eason, Reilly M.
and
Sewell, Thomas D.
2015.
Molecular Dynamics Simulations of the Collapse of a Cylindrical Pore in the Energetic Material α-RDX.
Journal of Dynamic Behavior of Materials,
Vol. 1,
Issue. 4,
p.
423.
Betney, M. R.
Tully, B.
Hawker, N. A.
and
Ventikos, Y.
2015.
Computational modelling of the interaction of shock waves with multiple gas-filled bubbles in a liquid.
Physics of Fluids,
Vol. 27,
Issue. 3,
Kapahi, A.
and
Udaykumar, H. S.
2015.
Three-dimensional simulations of dynamics of void collapse in energetic materials.
Shock Waves,
Vol. 25,
Issue. 2,
p.
177.
Shukla, Ratnesh K.
2015.
Numerical Investigation of Shock-induced Bubble Collapse Near a Rigid Wall.
Procedia IUTAM,
Vol. 15,
Issue. ,
p.
158.
Kapila, A. K.
Schwendeman, D. W.
Gambino, J. R.
and
Henshaw, W. D.
2015.
A numerical study of the dynamics of detonation initiated by cavity collapse.
Shock Waves,
Vol. 25,
Issue. 6,
p.
545.
Akiki, Michel
and
Menon, Suresh
2015.
A model for hot spot formation in shocked energetic materials.
Combustion and Flame,
Vol. 162,
Issue. 5,
p.
1759.
Karakhanov, S. M.
Plastinin, A. V.
Bordzilovskii, D. S.
and
Bordzilovskii, S. A.
2016.
Time of hot-spot formation in shock compression of microballoons in a condensed medium.
Combustion, Explosion, and Shock Waves,
Vol. 52,
Issue. 3,
p.
350.
Zhou, Tingting
Lou, Jianfeng
Zhang, Yangeng
Song, Huajie
and
Huang, Fenglei
2016.
Hot spot formation and chemical reaction initiation in shocked HMX crystals with nanovoids: a large-scale reactive molecular dynamics study.
Phys. Chem. Chem. Phys.,
Vol. 18,
Issue. 26,
p.
17627.
Rai, Nirmal Kumar
Schmidt, Martin J.
and
Udaykumar, H. S.
2017.
High-resolution simulations of cylindrical void collapse in energetic materials: Effect of primary and secondary collapse on initiation thresholds.
Physical Review Fluids,
Vol. 2,
Issue. 4,
Ochiai, N.
and
Ishimoto, J.
2017.
Numerical investigation of multiple-bubble behaviour and induced pressure in a megasonic field.
Journal of Fluid Mechanics,
Vol. 818,
Issue. ,
p.
562.
Rai, Nirmal Kumar
Schmidt, Martin J.
and
Udaykumar, H. S.
2017.
Collapse of elongated voids in porous energetic materials: Effects of void orientation and aspect ratio on initiation.
Physical Review Fluids,
Vol. 2,
Issue. 4,
Sen, O.
Rai, N. K.
Diggs, A. S.
Hardin, D. B.
and
Udaykumar, H. S.
2018.
Multi-scale shock-to-detonation simulation of pressed energetic material: A meso-informed ignition and growth model.
Journal of Applied Physics,
Vol. 124,
Issue. 8,
Rai, Nirmal Kumar
and
Udaykumar, H. S.
2018.
Three-dimensional simulations of void collapse in energetic materials.
Physical Review Fluids,
Vol. 3,
Issue. 3,