Silicon (Si) is the second most abundant element of the earth crust. The Si cycle strongly depends on the bio-cycling of Si by plants. Plants roots absorb the dissolved silicon (DSi) present in the soil solution and accumulate it into amorphous silica bodies called phytoliths (PhSi). Once plant debris return to soil, PhSi may constitute an important silica pool in soil. PhSi strongly contributes to the DSi pool; especially in desilicated weathered soils. To understand the soil-plant Si cycle it is thus primordial to quantify the PhSi pool in the soil. However, quantification methods are still not very well defined especially in soils in which pedogenic amorphous silica pools are abundan
In soils, mineral weathering and phytolith dissolution release aqueous monosilicic acid that can be ...
In soils, mineral weathering and phytolith dissolution release aqueous monosilicic acid that can be ...
The significance of biogenic silicon (BSi) pools as a key factor for the control of Si fluxes from t...
Silicon (Si) is the second most abundant element of the earth crust. The Si cycle strongly depends o...
The continental cycle of silicon (Si) chiefly relies on the Si soil-to-plant cycle where the primary...
1.biological cycling. Soil processes control the stock of Si-bearing minerals and the release of dis...
Plants take up silicon (Si) from soil solution, and form biogenic silica bodies (phytoliths) that re...
The field of silicon research in plants and the critical zone is fast -growing, in part through nove...
The importance of silicon (Si) in the global biogeochemical cycles is of the utmost importance. Henc...
International audienceThe contribution of plants to the biogeochemical cycle of Si and related weath...
International audienceIt is well documented that the global cycle of Si is strongly intertwined with...
Although the biogenic pool of Si in soils is known to be of central importance to plant uptake and S...
Plants take up silicon (Si) from soil solution, and form biogenic silica bodies (phytoliths) that re...
International audienceQuantification of silicon recycling by plants is hampered by the lack of physi...
Silicon (Si) released as H4SiO4 by weathering of Si-containing solid phases is partly recycled throu...
In soils, mineral weathering and phytolith dissolution release aqueous monosilicic acid that can be ...
In soils, mineral weathering and phytolith dissolution release aqueous monosilicic acid that can be ...
The significance of biogenic silicon (BSi) pools as a key factor for the control of Si fluxes from t...
Silicon (Si) is the second most abundant element of the earth crust. The Si cycle strongly depends o...
The continental cycle of silicon (Si) chiefly relies on the Si soil-to-plant cycle where the primary...
1.biological cycling. Soil processes control the stock of Si-bearing minerals and the release of dis...
Plants take up silicon (Si) from soil solution, and form biogenic silica bodies (phytoliths) that re...
The field of silicon research in plants and the critical zone is fast -growing, in part through nove...
The importance of silicon (Si) in the global biogeochemical cycles is of the utmost importance. Henc...
International audienceThe contribution of plants to the biogeochemical cycle of Si and related weath...
International audienceIt is well documented that the global cycle of Si is strongly intertwined with...
Although the biogenic pool of Si in soils is known to be of central importance to plant uptake and S...
Plants take up silicon (Si) from soil solution, and form biogenic silica bodies (phytoliths) that re...
International audienceQuantification of silicon recycling by plants is hampered by the lack of physi...
Silicon (Si) released as H4SiO4 by weathering of Si-containing solid phases is partly recycled throu...
In soils, mineral weathering and phytolith dissolution release aqueous monosilicic acid that can be ...
In soils, mineral weathering and phytolith dissolution release aqueous monosilicic acid that can be ...
The significance of biogenic silicon (BSi) pools as a key factor for the control of Si fluxes from t...