Change in Arsenic Leaching from Silty Soil by Adding Slag Cement

Cementitious materials are commonly used to reinforce the bearing capacity of silty soils. However, there is very little data about how changes in arsenic (As) leaching from silty soils caused by the addition of cementitious materials. Therefore, batch leaching tests were conducted using As-bearing...

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Veröffentlicht in:Water, air, and soil pollution air, and soil pollution, 2020-06, Vol.231 (6), Article 259
Hauptverfasser: Tangviroon, Pawit, Endo, Yuka, Fujinaka, Ryota, Kobayashi, Masato, Igarashi, Toshifumi, Yamamoto, Takahiro
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container_issue 6
container_start_page
container_title Water, air, and soil pollution
container_volume 231
creator Tangviroon, Pawit
Endo, Yuka
Fujinaka, Ryota
Kobayashi, Masato
Igarashi, Toshifumi
Yamamoto, Takahiro
description Cementitious materials are commonly used to reinforce the bearing capacity of silty soils. However, there is very little data about how changes in arsenic (As) leaching from silty soils caused by the addition of cementitious materials. Therefore, batch leaching tests were conducted using As-bearing silty soil under different pH conditions. The pH was adjusted by changing the amount of slag cement added or the concentration of sodium hydroxide. This allows us to evaluate the effects of cement on As leaching. In addition, two different additives were applied to reduce As migration. The results show that high concentration of calcium ion (Ca 2+ ) in leachates of soil-cement mixture has a significant effect in reducing the mobility of As even under hyperalkaline pH conditions. Arsenic immobilized by Ca 2+ was observed in two patterns. The first mechanism was the help of Ca 2+ to reduce the negative electrical potential on the surface of (hydr)oxide minerals under high pH conditions, thereby reducing the mobility of As by adsorption and coagulation of fresh precipitates of Fe and Al hydroxides. The second was the precipitation of calcium carbonate. This precipitate either directly adsorb/co-precipitate As or lower the concentration of strong competing ion, silica, both of which reduced the As mobility. When Ca- or Mg-based additive was added to the silty soil-cement mixture, As concentration in the leachate decreased. These findings are useful in developing sustainable soil-cement reinforcement techniques to avoid contamination.
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However, there is very little data about how changes in arsenic (As) leaching from silty soils caused by the addition of cementitious materials. Therefore, batch leaching tests were conducted using As-bearing silty soil under different pH conditions. The pH was adjusted by changing the amount of slag cement added or the concentration of sodium hydroxide. This allows us to evaluate the effects of cement on As leaching. In addition, two different additives were applied to reduce As migration. The results show that high concentration of calcium ion (Ca 2+ ) in leachates of soil-cement mixture has a significant effect in reducing the mobility of As even under hyperalkaline pH conditions. Arsenic immobilized by Ca 2+ was observed in two patterns. The first mechanism was the help of Ca 2+ to reduce the negative electrical potential on the surface of (hydr)oxide minerals under high pH conditions, thereby reducing the mobility of As by adsorption and coagulation of fresh precipitates of Fe and Al hydroxides. The second was the precipitation of calcium carbonate. This precipitate either directly adsorb/co-precipitate As or lower the concentration of strong competing ion, silica, both of which reduced the As mobility. When Ca- or Mg-based additive was added to the silty soil-cement mixture, As concentration in the leachate decreased. 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subjects Additives
Arsenic
Atmospheric Protection/Air Quality Control/Air Pollution
Bearing capacity
Calcium
Calcium carbonate
Calcium carbonates
Calcium ions
Carbonates
Cement
Cement reinforcements
Climate Change/Climate Change Impacts
Coagulation
Concrete
Contamination
Earth and Environmental Science
Environment
Environmental monitoring
Hydrogeology
Hydroxides
Iron
Leachates
Leaching
Minerals
Mobility
Oxide minerals
pH effects
Precipitates
Silica
Silicon dioxide
Silt
Silty soils
Slag
Slag cements
Sodium
Sodium hydroxide
Soil
Soil bearing capacity
Soil cement
Soil conditions
Soil contamination
Soil mixtures
Soil Science & Conservation
Soils
Water Quality/Water Pollution
title Change in Arsenic Leaching from Silty Soil by Adding Slag Cement
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