Chemical gardens are perhaps the best example in chemistry of a self-organizing
nonequilibrium process that creates complex structures. Many different chemical systems …

Chemical gardens form when ferrous chloride hydrate seed crystals are added or
concentrated solutions are injected into solutions of sodium silicate and potassium …

Iron‐silica self‐organized membranes, so‐called chemical gardens, behave as fuel cells
and catalyze the formation of amino/carboxylic acids and RNA nucleobases from organics …

Here we report experimental simulations of hydrothermal chimney growth using injection
chemical garden methods. The versatility of this type of experiment allows for testing of …

Chemical gardens formed from two metal salts (MCl2 or MSO4) have been investigated to
understand the effects of mixing on the growth of precipitate tubes. The growth of tubes can …

Reverse chemical gardens consist of hollow tubular structures that form in a downward
direction from a mechanically held silicate crystal immersed in a metal salt solution. As a …

Cu (II) adsorption on cobalt silicate precipitation tube (CSPT) in aqueous medium has been
reported. These tubes are porous with negative surface sites having isoelectric point (IEP) at …

Calcium silicate precipitation tube (CaSPT) produced through 'silica garden'route has been
physico-chemically characterized as a multi-cation adsorbent in aqueous medium …

Lanthanum silicate synthesis through “silica garden” route has been reported as an
alternative to energy intensive milling procedure. Under optimum conditions lanthanum …

A variety of effectual, non-polluting, and economical nanomaterials have been developed,
having special capabilities for the potential purification of industrial effluents. Improper …