Using simulations we explore the behaviour of two-dimensional colloidal (poly)crystals doped with active particles. We show that these active dopants can provide an elegant new route to removing grain boundaries in polycrystals. Specifically, we show that active dopants both generate and are attracted to defects, such as vacancies and interstitials, which leads to clustering of dopants at grain boundaries. The active particles both broaden and enhance the mobility of the grain boundaries, causing rapid coarsening of the crystal domains. The remaining defects recrystallize upon turning off the activity of the dopants, resulting in a large-scale single-domain crystal
We investigate the segregation of impurities to grain boundaries in colloidal polycrystalline monola...
Premelting is the localized loss of crystalline order at surfaces and defects at temperatures below ...
In polycrystals, faceted grains may become round and rough at high temperatures. Such a roughening p...
Using simulations we explore the behaviour of two-dimensional colloidal (poly)crystals doped with ac...
Using computer simulations we explore how grain boundaries can be removed from three-dimensional col...
Crystalline solids typically contain large amounts of defects such as dislocations and interstitials...
Colloids are microscopic particles whose size ranges from a nanometer to several micrometers, that a...
The dynamics of grain boundaries in two-dimensional colloidal crystals is studied using optical micr...
The structural and dynamic behaviour of two-dimensional binary colloidal polycrystals and fluids are...
With the aid of 2D computer simulations, the whole colloidal crystallization process for particles i...
Direct visual observations on how grain boundaries are pinned between multiple large spherical impur...
Graphical abstract: Vacancy string in a two-dimensional colloidal crystal. We study the effective in...
Colloids are particles with a size roughly between 1 nm and 1 μm in size. Such particles are small e...
In this paper we use computer simulations to examine point defects in systems of "soft"colloidal par...
We examine the spatial distribution of fluorescent-labeled charged polystyrene (PS) particles (parti...
We investigate the segregation of impurities to grain boundaries in colloidal polycrystalline monola...
Premelting is the localized loss of crystalline order at surfaces and defects at temperatures below ...
In polycrystals, faceted grains may become round and rough at high temperatures. Such a roughening p...
Using simulations we explore the behaviour of two-dimensional colloidal (poly)crystals doped with ac...
Using computer simulations we explore how grain boundaries can be removed from three-dimensional col...
Crystalline solids typically contain large amounts of defects such as dislocations and interstitials...
Colloids are microscopic particles whose size ranges from a nanometer to several micrometers, that a...
The dynamics of grain boundaries in two-dimensional colloidal crystals is studied using optical micr...
The structural and dynamic behaviour of two-dimensional binary colloidal polycrystals and fluids are...
With the aid of 2D computer simulations, the whole colloidal crystallization process for particles i...
Direct visual observations on how grain boundaries are pinned between multiple large spherical impur...
Graphical abstract: Vacancy string in a two-dimensional colloidal crystal. We study the effective in...
Colloids are particles with a size roughly between 1 nm and 1 μm in size. Such particles are small e...
In this paper we use computer simulations to examine point defects in systems of "soft"colloidal par...
We examine the spatial distribution of fluorescent-labeled charged polystyrene (PS) particles (parti...
We investigate the segregation of impurities to grain boundaries in colloidal polycrystalline monola...
Premelting is the localized loss of crystalline order at surfaces and defects at temperatures below ...
In polycrystals, faceted grains may become round and rough at high temperatures. Such a roughening p...