Hollow structures with unique morphologies form due to particle agglomeration in acoustically levitated nanofluid functional droplets when subjected to external heating. The final diameter of the structure depends only on the ratio of agglomeration to evaporation time scales for various nanoparticle laden droplets, and not on the type of the suspended particles. These time scales depend only on nanoparticle concentration. This valuable information may be exploited to form microstructures with desired properties from ceramic compounds. Phase diagrams for alumina and silica droplets indicate the transition from a bowl to ring structure depending on concentration
An experimental setup using radiative heating has been used to understand the thermo-physical phenom...
Understanding the transients of buckling in drying colloidal suspensions is pivotal for producing ne...
An experimental setup using radiative heating has been used to understand the thermo-physical phenom...
Hollow structures with unique morphologies form due to particle agglomeration in acoustically levita...
Acoustic levitation permits the study of droplet dynamics without the effects of surface interaction...
Radiatively heated levitated functional droplets with nanosilica suspensions exhibit three distinct ...
We study the vaporization and precipitation dynamics of a nanosilica encapsulated water droplet by l...
This short communication reports results of particle agglomeration details of an acoustically levita...
This short communication reports results of particle agglomeration details of an acoustically levita...
The complex multiscale physics of nanoparticle laden functional droplets in a reacting environment i...
Dynamics of contact free (levitated) drying of nanofluid droplets is ubiquitous in many application ...
Evaporation of pure and binary liquid droplets is of interest in thermal sprays and spray drying of ...
The presence of nanometer size particles within an evaporating water droplet, affects the heat trans...
We demonstrate that acoustic trapping can be used to levitate and manipulate droplets of soft matter...
We study the effect of acoustic streaming on nanoparticle motion and morphological evolution inside ...
An experimental setup using radiative heating has been used to understand the thermo-physical phenom...
Understanding the transients of buckling in drying colloidal suspensions is pivotal for producing ne...
An experimental setup using radiative heating has been used to understand the thermo-physical phenom...
Hollow structures with unique morphologies form due to particle agglomeration in acoustically levita...
Acoustic levitation permits the study of droplet dynamics without the effects of surface interaction...
Radiatively heated levitated functional droplets with nanosilica suspensions exhibit three distinct ...
We study the vaporization and precipitation dynamics of a nanosilica encapsulated water droplet by l...
This short communication reports results of particle agglomeration details of an acoustically levita...
This short communication reports results of particle agglomeration details of an acoustically levita...
The complex multiscale physics of nanoparticle laden functional droplets in a reacting environment i...
Dynamics of contact free (levitated) drying of nanofluid droplets is ubiquitous in many application ...
Evaporation of pure and binary liquid droplets is of interest in thermal sprays and spray drying of ...
The presence of nanometer size particles within an evaporating water droplet, affects the heat trans...
We demonstrate that acoustic trapping can be used to levitate and manipulate droplets of soft matter...
We study the effect of acoustic streaming on nanoparticle motion and morphological evolution inside ...
An experimental setup using radiative heating has been used to understand the thermo-physical phenom...
Understanding the transients of buckling in drying colloidal suspensions is pivotal for producing ne...
An experimental setup using radiative heating has been used to understand the thermo-physical phenom...