Artificial biocrust establishment on materials of potash tailings piles along a salinity gradient

Biocrust communities provide a pallet of ecosystem services, such as soil stabilization, altering of hydrological cycles and primary production, and often are the first colonizers of unvegetated surfaces during succession. Therefore, artificially establishing biocrusts can improve soil properties, f...

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Veröffentlicht in:Journal of applied phycology 2022-02, Vol.34 (1), p.405-421
Hauptverfasser: Sommer, V., Palm, A., Schink, A., Leinweber, P., Gose, N., Karsten, U., Glaser, K.
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container_end_page 421
container_issue 1
container_start_page 405
container_title Journal of applied phycology
container_volume 34
creator Sommer, V.
Palm, A.
Schink, A.
Leinweber, P.
Gose, N.
Karsten, U.
Glaser, K.
description Biocrust communities provide a pallet of ecosystem services, such as soil stabilization, altering of hydrological cycles and primary production, and often are the first colonizers of unvegetated surfaces during succession. Therefore, artificially establishing biocrusts can improve soil properties, for example, by stabilizing bare soil surfaces against erosion or by accumulating nutrients. In this study, the establishment of artificial biocrusts was tested for the restoration of potash tailings piles that result from potash fertilizer production and mostly consist of NaCl. A biocrust cover as primary vegetation could decrease the saline seepage waters by trapping rainwaters, thereby reducing the environmental pollution. In a laboratory experiment, we created a salt gradient by mixing the tailings materials with non-saline dune sand. Surface material of the abandoned potash tailings pile Neuhof-Ellers (NE) and material of the Infiltration Hampering Stratum (IHS) were tested, along with a treatment with bone char plus (BC plus ) and sodium alginate. A mixture of 50% (w/w) IHS and dune sand was most successful for the establishment of green biocrust microalgae, based on increased biomass and photosynthetic performance. The chlorophyll a content was negatively correlated with the electrical conductivity (EC), and was significantly increased in the BC plus and sodium alginate treatment, while biocrusts failed to establish on pure tailings piles substrates. The limit of the substrates EC for biocrust establishment was 35 mS cm −1 . This limit provides a baseline for future studies that should use BC plus and sodium alginate to increase the success of biocrust establishment on potash tailings piles.
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A mixture of 50% (w/w) IHS and dune sand was most successful for the establishment of green biocrust microalgae, based on increased biomass and photosynthetic performance. The chlorophyll a content was negatively correlated with the electrical conductivity (EC), and was significantly increased in the BC plus and sodium alginate treatment, while biocrusts failed to establish on pure tailings piles substrates. The limit of the substrates EC for biocrust establishment was 35 mS cm −1 . 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subjects Alginic acid
Biomedical and Life Sciences
Chlorophyll
Chlorophyll a
Dune sand
Dunes
Ecology
Ecosystem services
Electrical conductivity
Electrical resistivity
Fertilizers
Freshwater & Marine Ecology
Hydrologic cycle
Hydrological cycle
Hydrology
Life Sciences
Mine tailings
Nutrients
Photosynthesis
Phytoplankton
Piles
Plant Physiology
Plant Sciences
Pollution
Potash
Potassium carbonate
Primary production
Restoration
Salinity gradients
Sand
Seaweed meal
Seepage
Sodium
Sodium alginate
Sodium chloride
Soil erosion
Soil improvement
Soil properties
Soil stabilization
Soil surfaces
Stabilizing
Substrates
Tailings
title Artificial biocrust establishment on materials of potash tailings piles along a salinity gradient
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