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

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 …

Given the importance of organic crystals in a wide range of industrial applications, the
chemistry, biology, materials science, and chemical engineering communities have focused …

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 …

Synthesis of crystalline materials involves the two most important methods: antisolvent and
cooling crystallization. Despite the extensive use of the antisolvent method in the …

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 …

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

Tailor-made additives (TMAs) have found a role in crystal morphology engineering and
control by specific binding to crystal surfaces through stereo-chemical recognition. The utility …

Crystallization starts with nucleation and control of nucleation is crucial for the control of the
number, size, perfection, polymorphism, and other characteristics of crystalline materials …

Since the discovery of polymorphism in 1832, the ability of molecular crystals to adopt
different crystal forms has intrigued and frustrated the scientific community. Control of this …