EXP 1-4: Difference between revisions
Line 11: | Line 11: | ||
</pre> | </pre> | ||
The dynamics of the normal impact of a single drop onto a thin wall film of the same liquid is characterized using high-speed shadowgraphy. The initial kinetic energy of the drop is chosen to meet two requirement. | The dynamics of the normal impact of a single drop onto a thin wall film of the same liquid is characterized using high-speed shadowgraphy. The initial kinetic energy of the drop is chosen to meet two requirement. It is sufficiently high to give rise to the formation of a notable crown and sufficiently low to avoid any disintegration of the crown. Thus, splashing is avoided and the entire dynamics of the drop-film interaction is laminar and rotational symmetric. This makes the data set especially useful for advancement and validation of interface-resolving numerical methods for two-phase flows. To this end, time-resolved experimental data on three characteristic dimensions of the crown are provided for two different impact velocities. | ||
<br/> | <br/> |
Revision as of 11:11, 12 June 2023
Axisymmetric drop impact dynamics on a wall film of the same liquid
Abstract
Provide a summary of the test-case submission here.
The dynamics of the normal impact of a single drop onto a thin wall film of the same liquid is characterized using high-speed shadowgraphy. The initial kinetic energy of the drop is chosen to meet two requirement. It is sufficiently high to give rise to the formation of a notable crown and sufficiently low to avoid any disintegration of the crown. Thus, splashing is avoided and the entire dynamics of the drop-film interaction is laminar and rotational symmetric. This makes the data set especially useful for advancement and validation of interface-resolving numerical methods for two-phase flows. To this end, time-resolved experimental data on three characteristic dimensions of the crown are provided for two different impact velocities.
Contributed by: Bastian Stumpf, Milad Bagheri, Ilia V. Roisman, Cameron Tropea, Jeanette Hussong, Martin Wörner, Holger Marschall — Technical University of Darmstadt and Karlsruhe Institute of Technology
© copyright ERCOFTAC 2024