The collision efficiency of dioctyl phthalate nanoparticles in Brownian coagulation has been studied. A set of collision equations is solved numerically to find the relationship between the collision efficiency and the particle radius varying in the range of 50 nm to 500 nm in the presence of Stokes resistance, lubrication force, van der Waals force, and elastic deformation force. The calculated results are in agreement with the experimental data qualitatively. The results show that the collision efficiency decreases with the increase of the particle radii from 50 nm to 500 nm. Based on the numerical data, a new expression for collision efficiency is presented.Zhong-li Chen and Zhen-jiang Yo
Abstract: In this paper we analyze plastic collisions between spherical nano-scaled particles and a ...
The agglomeration and self-assembly of gas-phase 1D materials in anthropogenic and natural systems d...
Understanding and quantification of the interactions between gold nanoparticles (AuNPs) allows us to...
The collision efficiency of dioctyl phthalate nanoparticles in Brownian coagulation has been studied...
AbstractThe oblique collision efficiency of nanoparticles at different colliding angles in Brownian ...
The process of Brownian coagulation, whereby particles are brought together by thermal motion and gr...
Transport of nanoparticles and coagulation is simulated with the combination of CFD in a circular be...
The collision efficiency functions, α(i,j), of two colliding particles for the three operative trans...
The ability of the Langevin equation to predict coagulation kernels in the transition regime (rangin...
Molecular dynamics calculations have been undertaken to simulate the collision of a solid, rotating ...
Aggregation always occurs in industrial processes with fractal-like particles, especially in dense s...
A Monte Carlo model for the coagulation of nanoparticles has been developed to predict the terminal ...
During the head-on particle collision, the adhesion plays a more important role as theparticle size ...
The smaller bubble whose diameter is below 1 micrometer is called nanobubble or ultra-fine bubble. Th...
The agglomeration and self-assembly of gas-phase 1D materials in anthropogenic and natural systems d...
Abstract: In this paper we analyze plastic collisions between spherical nano-scaled particles and a ...
The agglomeration and self-assembly of gas-phase 1D materials in anthropogenic and natural systems d...
Understanding and quantification of the interactions between gold nanoparticles (AuNPs) allows us to...
The collision efficiency of dioctyl phthalate nanoparticles in Brownian coagulation has been studied...
AbstractThe oblique collision efficiency of nanoparticles at different colliding angles in Brownian ...
The process of Brownian coagulation, whereby particles are brought together by thermal motion and gr...
Transport of nanoparticles and coagulation is simulated with the combination of CFD in a circular be...
The collision efficiency functions, α(i,j), of two colliding particles for the three operative trans...
The ability of the Langevin equation to predict coagulation kernels in the transition regime (rangin...
Molecular dynamics calculations have been undertaken to simulate the collision of a solid, rotating ...
Aggregation always occurs in industrial processes with fractal-like particles, especially in dense s...
A Monte Carlo model for the coagulation of nanoparticles has been developed to predict the terminal ...
During the head-on particle collision, the adhesion plays a more important role as theparticle size ...
The smaller bubble whose diameter is below 1 micrometer is called nanobubble or ultra-fine bubble. Th...
The agglomeration and self-assembly of gas-phase 1D materials in anthropogenic and natural systems d...
Abstract: In this paper we analyze plastic collisions between spherical nano-scaled particles and a ...
The agglomeration and self-assembly of gas-phase 1D materials in anthropogenic and natural systems d...
Understanding and quantification of the interactions between gold nanoparticles (AuNPs) allows us to...