The theoretical framework developed by Rayleigh and Plateau in the 19th century has been remarkably accurate in describing macroscale experiments of liquid cylinder instability. Here we re-evaluate and revise the Rayleigh-Plateau instability for the nanoscale, where molecular dynamics experiments demonstrate its inadequacy. A new framework based on the stochastic lubrication equation is developed that captures nanoscale flow features and highlights the critical role of thermal fluctuations at small scales. Remarkably, the model indicates that classically stable (i.e. ‘fat’) liquid cylinders can be broken at the nanoscale, and this is confirmed by molecular dynamics
Using a microfluidic multi-inlet coflow system, we show the Rayleigh-Plateau instability of adjacent...
The classical notion of the coalescence of two droplets of the same radius R is that surface tension...
Liquid nanofilms exposed to a large transverse thermal gradient undergo an instability featuring an ...
The instability of a thin liquid film on a solid surface is studied both by molecular dynamics simul...
The effects of thermal fluctuations on nanoscale flows are captured by a numerical scheme that is un...
In this work, we use a dissipative-particle-dynamics-based model for two-phase flows to simulate the...
Liquid breakup at the macroscale has been studied extensively for over a hundred years, but breakup ...
We study the breakup of a liquid jet a few nanometers in diameter, based on a stochastic differentia...
The Rayleigh-Taylor (RT) interfacial instability has been attributed to physical phenomenon in a wid...
The combined effects of thermal fluctuations and liquid-solid slip on nanoscale thin-film flows are ...
We study the effects of thermally induced capillary waves in the fragmentation of a liquid ligament ...
Whether the end-state of a liquid jet is a uniform-radius cylinder or a chain of droplets is address...
In this thesis, issues pertaining to the dynamics of nanoscale liquid systems, such as nanojets and ...
The spontaneous formation of droplets via dewetting of a thin fluid film from a solid substrate allo...
Using a microfluidic multi-inlet coflow system, we show the Rayleigh-Plateau instability of adjacent...
Using a microfluidic multi-inlet coflow system, we show the Rayleigh-Plateau instability of adjacent...
The classical notion of the coalescence of two droplets of the same radius R is that surface tension...
Liquid nanofilms exposed to a large transverse thermal gradient undergo an instability featuring an ...
The instability of a thin liquid film on a solid surface is studied both by molecular dynamics simul...
The effects of thermal fluctuations on nanoscale flows are captured by a numerical scheme that is un...
In this work, we use a dissipative-particle-dynamics-based model for two-phase flows to simulate the...
Liquid breakup at the macroscale has been studied extensively for over a hundred years, but breakup ...
We study the breakup of a liquid jet a few nanometers in diameter, based on a stochastic differentia...
The Rayleigh-Taylor (RT) interfacial instability has been attributed to physical phenomenon in a wid...
The combined effects of thermal fluctuations and liquid-solid slip on nanoscale thin-film flows are ...
We study the effects of thermally induced capillary waves in the fragmentation of a liquid ligament ...
Whether the end-state of a liquid jet is a uniform-radius cylinder or a chain of droplets is address...
In this thesis, issues pertaining to the dynamics of nanoscale liquid systems, such as nanojets and ...
The spontaneous formation of droplets via dewetting of a thin fluid film from a solid substrate allo...
Using a microfluidic multi-inlet coflow system, we show the Rayleigh-Plateau instability of adjacent...
Using a microfluidic multi-inlet coflow system, we show the Rayleigh-Plateau instability of adjacent...
The classical notion of the coalescence of two droplets of the same radius R is that surface tension...
Liquid nanofilms exposed to a large transverse thermal gradient undergo an instability featuring an ...