There is considerable interest, both fundamental and technological, in understanding how
additives and impurities influence crystal nucleation, and in the modulation of nucleation in a …

The formation of crystalline materials typically follows the nucleation and crystal growth
pathway, which enables scientists to engineer crystal properties, and the metastable status …

The outcome of synthetic procedures for crystalline organic materials strongly depends on
the first steps along the molecular self‐assembly pathway, a process we know as crystal …

Secondary nucleation, wherein crystal seeds are used to induce crystallization, is widely
employed in industrial crystallizations. Despite its significance, our understanding of the …

Secondary nucleation is the dominant nucleation mechanism in industrial crystallizers. This
work reviews secondary nucleation as it occurs in solution-based crystallization of small …

It has long been recognized that the presence of even minute amounts of impurities
substantially affects the kinetics of crystal nucleation, growth, and dissolution [1.1-1.4] …

Modifying crystal growth processes using additives is a well established approach to solving
problems in many processes. Nature also makes extensive use of crystalline inorganic …

In this review, the delicate interplay between stereochemical control, monitoring at the
subnanometer level, and an understanding of crystal nucleation is probed. Control of crystal …

The use of growth modifiers in natural, biological, and synthetic crystallization is a ubiquitous
strategy for controlling growth and achieving desired physicochemical properties. For …

Nucleation and growth are critical steps in crystallization, which plays an important role in
determining crystal structure, size, morphology, and purity. Therefore, understanding the …