We show that a chemical garden can be developed from an alkaline metal precipitate using a flow-driven setup. By injecting sodium phosphate solution into lithium chloride solution from below, a liquid jet appears, on which a precipitate grows forming a structure resembling a hydrothermal vent. The precipitate column continuously builds upward until a maximum height is reached. The vertical growth then significantly slows down while the tube diameter still increases. The analysis of the growth profiles has revealed a linear dependence of volume growth rate on the injection rate, hence yielding a universal growth profile. The expansion in diameter, localized at the tip of the structure, scales with a power law suggesting that the phenomenon i...
“Chemical” or “silicate gardens” are a well known example for the spontaneous formation of a complex...
Far from thermodynamic equilibrium, many precipitation reactions can generate complex membrane struc...
Herein, we show it is possible to produce wholly inorganic chemical gardens from a cationic polyoxom...
Chemical gardens in laboratory chemistries ranging from silicates to polyoxometalates, in applicatio...
Chemical gardens in laboratory chemistries ranging from silicates to polyoxometalates, in applicatio...
Chemical gardens are inorganic, self-organizing precipitates that form when metal salts are added to...
Chemical gardens are inorganic, self-organizing precipitates that form when metal salts are added to...
Chemical gardens are perhaps the best example in chemistry of a self-organizing nonequilibrium proce...
Chemical gardens in laboratory chemistries ranging from silicates to polyoxometalates, in applicatio...
Many inorganic precipitation reactions self-organize macroscopic tubes known as chemical gardens. We...
Many inorganic precipitation reactions self-organize macroscopic tubes known as chemical gardens. We...
Many inorganic precipitation reactions self-organize macroscopic tubes known as chemical gardens. We...
We studied the growth of metal-ion silicate chemical gardens under Earth gravity (1 g) and micrograv...
Herein, we show it is possible to produce wholly inorganic chemical gardens from a cationic polyoxom...
“Chemical” or “silicate gardens” are a well known example for the spontaneous formation of a complex...
“Chemical” or “silicate gardens” are a well known example for the spontaneous formation of a complex...
Far from thermodynamic equilibrium, many precipitation reactions can generate complex membrane struc...
Herein, we show it is possible to produce wholly inorganic chemical gardens from a cationic polyoxom...
Chemical gardens in laboratory chemistries ranging from silicates to polyoxometalates, in applicatio...
Chemical gardens in laboratory chemistries ranging from silicates to polyoxometalates, in applicatio...
Chemical gardens are inorganic, self-organizing precipitates that form when metal salts are added to...
Chemical gardens are inorganic, self-organizing precipitates that form when metal salts are added to...
Chemical gardens are perhaps the best example in chemistry of a self-organizing nonequilibrium proce...
Chemical gardens in laboratory chemistries ranging from silicates to polyoxometalates, in applicatio...
Many inorganic precipitation reactions self-organize macroscopic tubes known as chemical gardens. We...
Many inorganic precipitation reactions self-organize macroscopic tubes known as chemical gardens. We...
Many inorganic precipitation reactions self-organize macroscopic tubes known as chemical gardens. We...
We studied the growth of metal-ion silicate chemical gardens under Earth gravity (1 g) and micrograv...
Herein, we show it is possible to produce wholly inorganic chemical gardens from a cationic polyoxom...
“Chemical” or “silicate gardens” are a well known example for the spontaneous formation of a complex...
“Chemical” or “silicate gardens” are a well known example for the spontaneous formation of a complex...
Far from thermodynamic equilibrium, many precipitation reactions can generate complex membrane struc...
Herein, we show it is possible to produce wholly inorganic chemical gardens from a cationic polyoxom...