Solidification/stabilisation behaviours of Zn2+ in magnesium potassium phosphate cement: Experiments and density functional theory study

The solidification/stabilisation behaviours of Zn2+ in magnesium potassium phosphate cement (MKPC) have not been thoroughly investigated. Herein, a series of experiments and a detailed density functional theory (DFT) study were conducted to investigate the solidification/stabilisation behaviours of...

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Veröffentlicht in:Environmental research 2023-08, Vol.231, p.116247-116247, Article 116247
Hauptverfasser: Mi, Renjie, Zhang, Zhibin, Ji, Weiming, Liu, Shichang, Kai, M.F., lin, Kui, Tan, Yongshan
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container_start_page 116247
container_title Environmental research
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creator Mi, Renjie
Zhang, Zhibin
Ji, Weiming
Liu, Shichang
Kai, M.F.
lin, Kui
Tan, Yongshan
description The solidification/stabilisation behaviours of Zn2+ in magnesium potassium phosphate cement (MKPC) have not been thoroughly investigated. Herein, a series of experiments and a detailed density functional theory (DFT) study were conducted to investigate the solidification/stabilisation behaviours of Zn2+ in MKPC. The results showed that the compressive strength of MKPC reduced with the addition of Zn2+ because the formation of MgKPO4·6H2O (the main hydration product in MKPC) was delayed with the addition of Zn2+, as discovered by the crystal characteristics, and because Zn2+ exhibited a lower binding energy in MgKPO4·6H2O compared to Mg2+, as revealed by DFT results. Additonally, Zn2+ had little influence on the structure of MgKPO4·6H2O, and Zn2+ existed in MKPC as the formation of Zn2(OH)PO4, which was decomposed in the range of around 190–350 °C. Moreover, there were a lot of well-crystallised tabular hydration products before the addition of Zn2+, but the matrix was comprised of irregular prism crystals after adding Zn2+. Furthermore, the leaching toxicity of Zn2+ of MKPC was much smaller than the requirements of Chinese and European standards. •Zn2+ exhibited a lower binding energy in MgKPO4·6H2O compared to Mg2+.•Zn2+ had little influence on the structure of MgKPO4·6H2O.•Zn2+ existed in MKPC as the formation of Zn2(OH)PO4.•The matrix was comprised of irregular prism crystal after adding Zn2+.
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Herein, a series of experiments and a detailed density functional theory (DFT) study were conducted to investigate the solidification/stabilisation behaviours of Zn2+ in MKPC. The results showed that the compressive strength of MKPC reduced with the addition of Zn2+ because the formation of MgKPO4·6H2O (the main hydration product in MKPC) was delayed with the addition of Zn2+, as discovered by the crystal characteristics, and because Zn2+ exhibited a lower binding energy in MgKPO4·6H2O compared to Mg2+, as revealed by DFT results. Additonally, Zn2+ had little influence on the structure of MgKPO4·6H2O, and Zn2+ existed in MKPC as the formation of Zn2(OH)PO4, which was decomposed in the range of around 190–350 °C. Moreover, there were a lot of well-crystallised tabular hydration products before the addition of Zn2+, but the matrix was comprised of irregular prism crystals after adding Zn2+. 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Herein, a series of experiments and a detailed density functional theory (DFT) study were conducted to investigate the solidification/stabilisation behaviours of Zn2+ in MKPC. The results showed that the compressive strength of MKPC reduced with the addition of Zn2+ because the formation of MgKPO4·6H2O (the main hydration product in MKPC) was delayed with the addition of Zn2+, as discovered by the crystal characteristics, and because Zn2+ exhibited a lower binding energy in MgKPO4·6H2O compared to Mg2+, as revealed by DFT results. Additonally, Zn2+ had little influence on the structure of MgKPO4·6H2O, and Zn2+ existed in MKPC as the formation of Zn2(OH)PO4, which was decomposed in the range of around 190–350 °C. Moreover, there were a lot of well-crystallised tabular hydration products before the addition of Zn2+, but the matrix was comprised of irregular prism crystals after adding Zn2+. Furthermore, the leaching toxicity of Zn2+ of MKPC was much smaller than the requirements of Chinese and European standards. •Zn2+ exhibited a lower binding energy in MgKPO4·6H2O compared to Mg2+.•Zn2+ had little influence on the structure of MgKPO4·6H2O.•Zn2+ existed in MKPC as the formation of Zn2(OH)PO4.•The matrix was comprised of irregular prism crystal after adding Zn2+.</abstract><pub>Elsevier Inc</pub><doi>10.1016/j.envres.2023.116247</doi><tpages>1</tpages><orcidid>https://orcid.org/0000-0002-5207-8753</orcidid></addata></record>
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subjects cement
compression strength
density functional theory
energy
Heavy metals
Leaching toxicity
magnesium
Magnesium potassium phosphate cement
potassium phosphates
solidification
Solidification/stabilisation behaviours
toxicity
title Solidification/stabilisation behaviours of Zn2+ in magnesium potassium phosphate cement: Experiments and density functional theory study
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