Gao, Xuan Kong, Lingjian Li, Ri and Han, Jitian 2017. Heat transfer of single drop impact on a film flow cooling a hot surface. International Journal of Heat and Mass Transfer, Vol. 108, p. 1068.
Bouwhuis, Wilco Huang, Xin Chan, Chon U Frommhold, Philipp E. Ohl, Claus-Dieter Lohse, Detlef Snoeijer, Jacco H. and van der Meer, Devaraj 2016. Impact of a high-speed train of microdrops on a liquid pool. Journal of Fluid Mechanics, Vol. 792, p. 850.
Davanlou, Ashkan 2016. The Role of Liquid Properties on Lifetime of Levitated Droplets. Langmuir, Vol. 32, Issue. 38, p. 9736.
Doak, William J. Laiacona, Danielle M. German, Guy K. and Chiarot, Paul R. 2016. Rebound of continuous droplet streams from an immiscible liquid pool. Physics of Fluids, Vol. 28, Issue. 5, p. 057104.
Hale, Jacob and Akers, Caleb 2016. Deceleration of droplets that glide along the free surface of a bath. Journal of Fluid Mechanics, Vol. 803, p. 313.
Hendrix, Maurice H. W. Bouwhuis, Wilco van der Meer, Devaraj Lohse, Detlef and Snoeijer, Jacco H. 2016. Universal mechanism for air entrainment during liquid impact. Journal of Fluid Mechanics, Vol. 789, p. 708.
Josserand, Christophe Ray, Pascal and Zaleski, Stéphane 2016. Droplet impact on a thin liquid film: anatomy of the splash. Journal of Fluid Mechanics, Vol. 802, p. 775.
Kawashima, Hisanobu Fujishima, Shun Ogawa, Soichiro and Ishima, Tsuneaki 2016. Visualization of a bubble entrainment by a drop impingement onto liquid surface. Transactions of the Visualization Society of Japan, Vol. 36, Issue. 5, p. 24.
Majumder, Subrata Kumar 2016. Hydrodynamics and Transport Processes of Inverse Bubbly Flow.
Tang, Xiaoyu Saha, Abhishek Law, Chung K. and Sun, Chao 2016. Nonmonotonic response of drop impacting on liquid film: mechanism and scaling. Soft Matter, Vol. 12, Issue. 20, p. 4521.
Thoraval, Marie-Jean Li, Yangfan and Thoroddsen, Sigurdur T. 2016. Vortex-ring-induced large bubble entrainment during drop impact. Physical Review E, Vol. 93, Issue. 3,
Balcázar, Néstor Lehmkuhl, Oriol Rigola, Joaquim and Oliva, Assensi 2015. A multiple marker level-set method for simulation of deformable fluid particles. International Journal of Multiphase Flow, Vol. 74, p. 125.
Beesabathuni, Shilpa N. Lindberg, Seth E. Caggioni, Marco Wesner, Chris and Shen, Amy Q. 2015. Getting in shape: Molten wax drop deformation and solidification at an immiscible liquid interface. Journal of Colloid and Interface Science, Vol. 445, p. 231.
Beilharz, D. Guyon, A. Li, E. Q. Thoraval, M.-J. and Thoroddsen, S. T. 2015. Antibubbles and fine cylindrical sheets of air. Journal of Fluid Mechanics, Vol. 779, p. 87.
Bouwhuis, Wilco Hendrix, Maurice H. W. van der Meer, Devaraj and Snoeijer, Jacco H. 2015. Initial surface deformations during impact on a liquid pool. Journal of Fluid Mechanics, Vol. 771, p. 503.
Castillo-Orozco, Eduardo Davanlou, Ashkan Choudhury, Pretam K. and Kumar, Ranganathan 2015. Droplet impact on deep liquid pools: Rayleigh jet to formation of secondary droplets. Physical Review E, Vol. 92, Issue. 5,
Che, Zhizhao Deygas, Amandine and Matar, Omar K. 2015. Impact of droplets on inclined flowing liquid films. Physical Review E, Vol. 92, Issue. 2,
Davanlou, Ashkan and Kumar, Ranganathan 2015. Thermally induced collision of droplets in an immiscible outer fluid. Scientific Reports, Vol. 5, p. 9531.
Hao, Chonglei Li, Jing Liu, Yuan Zhou, Xiaofeng Liu, Yahua Liu, Rong Che, Lufeng Zhou, Wenzhong Sun, Dong Li, Lawrence Xu, Lei and Wang, Zuankai 2015. Superhydrophobic-like tunable droplet bouncing on slippery liquid interfaces. Nature Communications, Vol. 6, p. 7986.
Hendriks, Jan Willem Visser, Claas Henke, Sieger Leijten, Jeroen Saris, Daniël B.F. Sun, Chao Lohse, Detlef and Karperien, Marcel 2015. Optimizing cell viability in droplet-based cell deposition. Scientific Reports, Vol. 5, p. 11304.
We study drop impact on a deep pool of the same fluid, with an emphasis on the air layer trapped under the droplets from its formation to its rupture. The penetration velocity of the air layer at a very short time scale prior to its rupture is shown, using an energy argument and experimental verification, to be one-half of the impact velocity. We then deduce the dependence of the rupture position on the liquid viscosity and the impact velocity. We show that the volume of the resulting air bubbles can be related to both those resulting from droplets impacting on solid surfaces and those resulting from rigid spheres impacting on liquid surfaces.
This list contains references from the content that can be linked to their source. For a full set of references and notes please see the PDF or HTML where available.
Email your librarian or administrator to recommend adding this journal to your organisation's collection.
Full text views reflects the number of PDF downloads, PDFs sent to Google Drive, Dropbox and Kindle and HTML full text views.
Abstract views reflect the number of visits to the article landing page.
* Views captured on Cambridge Core between September 2016 - 27th March 2017. This data will be updated every 24 hours.