We study the breakup of a liquid jet a few nanometers in diameter, based on a stochastic differential equation derived recently by Moseler and Landman [Science {\bf 289}, 1165 (2000)]. In agreement with their simulations, we confirm that noise qualitatively changes the characteristics of breakup, leading to symmetric profiles. Using the path integral description, we find a self-similar profile that describes the most probable breakup mode. As illustrated by a simple physical argument, noise is the driving force behind pinching, speeding up the breakup to make surface tension irrelevant
We study the effects of thermally induced capillary waves in the fragmentation of a liquid ligament ...
In this article we review recent results on the breakup of cylindrical jets of a Newtonian fluid. Ca...
International audienceA granular jet falling out of a funnel shaped container, subjected to small ve...
In this work, we use a dissipative-particle-dynamics (DPD)-based two-phase model to study the breaku...
Atomistic molecular dynamics simulations reveal the formation of nanojets with velocities up to 400 ...
In this thesis, issues pertaining to the dynamics of nanoscale liquid systems, such as nanojets and ...
The theoretical framework developed by Rayleigh and Plateau in the 19th century has been remarkably ...
Using a non-equilibrium molecular dynamics, argon nanojet injection was simulated under vacuum condi...
The thinning dynamics of a liquid neck before break-up, as may happen when a drop detaches from a fa...
In this work, we use a dissipative-particle-dynamics-based model for two-phase flows to simulate the...
Whether the end-state of a liquid jet is a uniform-radius cylinder or a chain of droplets is address...
Surface-tension-driven flows and, in particular, their tendency to decay spontaneously into drops ha...
The surface tension of nanoscale droplets of water was studied with molecular dynamics simulations u...
Micro- and nano-scale free surface flows with interface rupture, e.g. drop or bubble breakup, are no...
The spontaneous formation of droplets via dewetting of a thin fluid film from a solid substrate allo...
We study the effects of thermally induced capillary waves in the fragmentation of a liquid ligament ...
In this article we review recent results on the breakup of cylindrical jets of a Newtonian fluid. Ca...
International audienceA granular jet falling out of a funnel shaped container, subjected to small ve...
In this work, we use a dissipative-particle-dynamics (DPD)-based two-phase model to study the breaku...
Atomistic molecular dynamics simulations reveal the formation of nanojets with velocities up to 400 ...
In this thesis, issues pertaining to the dynamics of nanoscale liquid systems, such as nanojets and ...
The theoretical framework developed by Rayleigh and Plateau in the 19th century has been remarkably ...
Using a non-equilibrium molecular dynamics, argon nanojet injection was simulated under vacuum condi...
The thinning dynamics of a liquid neck before break-up, as may happen when a drop detaches from a fa...
In this work, we use a dissipative-particle-dynamics-based model for two-phase flows to simulate the...
Whether the end-state of a liquid jet is a uniform-radius cylinder or a chain of droplets is address...
Surface-tension-driven flows and, in particular, their tendency to decay spontaneously into drops ha...
The surface tension of nanoscale droplets of water was studied with molecular dynamics simulations u...
Micro- and nano-scale free surface flows with interface rupture, e.g. drop or bubble breakup, are no...
The spontaneous formation of droplets via dewetting of a thin fluid film from a solid substrate allo...
We study the effects of thermally induced capillary waves in the fragmentation of a liquid ligament ...
In this article we review recent results on the breakup of cylindrical jets of a Newtonian fluid. Ca...
International audienceA granular jet falling out of a funnel shaped container, subjected to small ve...
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