Simple and robust aqueous sheet jets in vacuum

Konold, P.E.; Ansari, A.; Westphal, D.; Adams, P.; Letrun, R.; Valerio, J.; Bielecki, J.; Alvarez, R.C.; Bódizs, S.; Dörner, K.; Ducrocq, G.; Grunewald, L.; Kharitonov, K.; Kim, C.; Kloos, M.; Králová, A.; Larkiala, T.; Maihöfer, M.; Manatou, D.; Mehlig, R.; Melo, D.V.M.; Meszaros, P.; Monrroy, L.; Sato, T.; Schubert, R.; Smyth, P.; Sobolev, E.; Trost, F.; de Wijn, R.; Worbs, L.; Yenupuri, T.V.; You, T.; Schulz, J.; Bean, R.; Ayyer, K.; Martin, M.A.D.; Kirst, H.; Grubmüller, H.; Westenhoff, S.; Kirian, R.A.; Maia, F.R.N.C.

doi:10.1107/S2052252526007013

Figure 5
(A) Overlay plot of centerline sheet-thickness profiles for a range of liquid (water) flow rates. The gray shaded area corresponds to the standard deviation of the thickness. For each liquid flow rate, the colored plot sequences with the largest measured thicknesses correspond to gas flow rate of 5 mg min⁻¹, whereas the plots with the smallest thicknesses correspond to 30 mg min⁻¹ of gas flow. (B) Value of c derived from fitting equation (5)

to thickness profiles varying as a function of liquid and gas flow rate.

IUCrJ

Volume 13| Part 5| September 2026| Pages 659-667

ISSN: 2052-2525

https://doi.org/10.1107/S2052252526007013

PHYSICS | FELS

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