The discovery of self‐organization principles that enable scalable routes toward complex
functional materials has proven to be a persistent challenge. Here, reaction‐diffusion driven …

The development of new technologies for chemical separations is urgently needed to meet
the surging demand for critical materials that has strained resources and caused …

Pattern formation is a ubiquitous phenomenon in animate and inanimate systems generated
by mass transport and reaction of chemical species. The Liesegang phenomenon is a self …

Liesegang patterns that develop as a result of reaction‐diffusion can simultaneously form
products with slightly different sizes spatially separated in a single medium. We show here a …

Hydroxides of cobalt (II) exist predominantly in two polymorphic forms, namely, the blue-
green α-form [α-Co (OH) 2] and reddish β-form [β-Co (OH) 2]. These hydroxides have a …

Pattern formation is a frequent phenomenon occurring in animate and inanimate systems.
The interplay between the mass transport of the chemical species and the underlying …

Pattern formation is one of the examples of self-organization. In the generation of patterns,
the coupling between the mass transport of the chemical species and their chemical …

Recently focus of studies on the periodic precipitation in gels is shifting from evaluation of its
spatio-temporal characteristics of the self-organized patterns to that of as a novel and viable …

The combination of chemocatalysts and biocatalysts enables access to synthetic routes that
would otherwise be elusive when using either catalyst type in isolation. However, most …

Crystallization in living organisms is highly regulated by both passive diffusion and active
transport across the cellular membrane or plasm. There have been studies that mimic slow …