Phosphate interactions with iron-titanium oxide composites: Implications for phosphorus removal/recovery from wastewater

•Ti component in Fe-Ti composite leads to less Fe dissolution and FePO4 precipitate.•Ca enhanced P removal at pH 7 by precipitating surface-adsorbed P as hydroxyapatite.•Acetate increased Fe dissolution and favored FePO4 formation.•Fe-Ti composite is effective in P removal and recovery from wastewat...

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Veröffentlicht in:Water research (Oxford) 2023-05, Vol.234, p.119804-119804, Article 119804
Hauptverfasser: Cui, Jinli, Yang, Jinsu, Weber, Mischa, Yan, Jia, Li, Ruohong, Chan, Tingshan, Jiang, Yi, Xiao, Tangfu, Li, Xiaoyan, Li, Xiangdong
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container_title Water research (Oxford)
container_volume 234
creator Cui, Jinli
Yang, Jinsu
Weber, Mischa
Yan, Jia
Li, Ruohong
Chan, Tingshan
Jiang, Yi
Xiao, Tangfu
Li, Xiaoyan
Li, Xiangdong
description •Ti component in Fe-Ti composite leads to less Fe dissolution and FePO4 precipitate.•Ca enhanced P removal at pH 7 by precipitating surface-adsorbed P as hydroxyapatite.•Acetate increased Fe dissolution and favored FePO4 formation.•Fe-Ti composite is effective in P removal and recovery from wastewater. Understanding the interactions between phosphate (P) and mineral adsorbents is critical for removing and recovering P from wastewater, especially in the presence of both cationic and organic components. To this end, we investigated the surface interactions of P with an iron-titanium coprecipitated oxide composite in the presence of Ca (0.5–3.0 mM) and acetate (1–5 mM), and quantified the molecular complexes and tested the possible removal and recovery of P from real wastewater. A quantitative analysis of P K-edge X-ray absorption near edge structure (XANES) confirmed the inner-sphere surface complexation of P with both Fe and Ti, whose contribution to P adsorption relies on their surface charge determined by pH conditions. The effects of Ca and acetate on P removal were highly pH-dependent. At pH 7, Ca (0.5–3.0 mM) in solution significantly increased P removal by 13–30% by precipitating the surface-adsorbed P, forming hydroxyapatite (14–26%). The presence of acetate had no obvious influence on P removal capacity and molecular mechanisms at pH 7. At pH 4, the removal amount of P was not obviously affected by the presence of Ca and acetate. However, acetate and high Ca concentration jointly facilitated the formation of amorphous FePO4 precipitate, complicating the interactions of P with Fe-Ti composite. In comparison with ferrihydrite, the Fe-Ti composite significantly decreased the formation of amorphous FePO4 probably by decreasing Fe dissolution due to the coprecipitated Ti component, facilitating further P recovery. An understanding of these microscopic mechanisms can lead to the successful use and simple regeneration of the adsorbent to recover P from real wastewater.
doi_str_mv 10.1016/j.watres.2023.119804
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Understanding the interactions between phosphate (P) and mineral adsorbents is critical for removing and recovering P from wastewater, especially in the presence of both cationic and organic components. To this end, we investigated the surface interactions of P with an iron-titanium coprecipitated oxide composite in the presence of Ca (0.5–3.0 mM) and acetate (1–5 mM), and quantified the molecular complexes and tested the possible removal and recovery of P from real wastewater. A quantitative analysis of P K-edge X-ray absorption near edge structure (XANES) confirmed the inner-sphere surface complexation of P with both Fe and Ti, whose contribution to P adsorption relies on their surface charge determined by pH conditions. The effects of Ca and acetate on P removal were highly pH-dependent. At pH 7, Ca (0.5–3.0 mM) in solution significantly increased P removal by 13–30% by precipitating the surface-adsorbed P, forming hydroxyapatite (14–26%). The presence of acetate had no obvious influence on P removal capacity and molecular mechanisms at pH 7. At pH 4, the removal amount of P was not obviously affected by the presence of Ca and acetate. However, acetate and high Ca concentration jointly facilitated the formation of amorphous FePO4 precipitate, complicating the interactions of P with Fe-Ti composite. In comparison with ferrihydrite, the Fe-Ti composite significantly decreased the formation of amorphous FePO4 probably by decreasing Fe dissolution due to the coprecipitated Ti component, facilitating further P recovery. 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Understanding the interactions between phosphate (P) and mineral adsorbents is critical for removing and recovering P from wastewater, especially in the presence of both cationic and organic components. To this end, we investigated the surface interactions of P with an iron-titanium coprecipitated oxide composite in the presence of Ca (0.5–3.0 mM) and acetate (1–5 mM), and quantified the molecular complexes and tested the possible removal and recovery of P from real wastewater. A quantitative analysis of P K-edge X-ray absorption near edge structure (XANES) confirmed the inner-sphere surface complexation of P with both Fe and Ti, whose contribution to P adsorption relies on their surface charge determined by pH conditions. The effects of Ca and acetate on P removal were highly pH-dependent. At pH 7, Ca (0.5–3.0 mM) in solution significantly increased P removal by 13–30% by precipitating the surface-adsorbed P, forming hydroxyapatite (14–26%). The presence of acetate had no obvious influence on P removal capacity and molecular mechanisms at pH 7. At pH 4, the removal amount of P was not obviously affected by the presence of Ca and acetate. However, acetate and high Ca concentration jointly facilitated the formation of amorphous FePO4 precipitate, complicating the interactions of P with Fe-Ti composite. In comparison with ferrihydrite, the Fe-Ti composite significantly decreased the formation of amorphous FePO4 probably by decreasing Fe dissolution due to the coprecipitated Ti component, facilitating further P recovery. An understanding of these microscopic mechanisms can lead to the successful use and simple regeneration of the adsorbent to recover P from real wastewater.</abstract><cop>England</cop><pub>Elsevier Ltd</pub><pmid>36889091</pmid><doi>10.1016/j.watres.2023.119804</doi><tpages>1</tpages><orcidid>https://orcid.org/0000-0002-4193-0330</orcidid><orcidid>https://orcid.org/0000-0002-0299-7911</orcidid><orcidid>https://orcid.org/0000-0003-1910-2464</orcidid><orcidid>https://orcid.org/0000-0002-4044-2888</orcidid></addata></record>
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subjects acetates
adsorbents
Adsorption
Bimetal oxide composite
coprecipitation
ferrihydrite
hydroxyapatite
Iron - analysis
Phosphates - chemistry
Phosphorus
Phosphorus - analysis
quantitative analysis
Removal
Surface complexation and precipitation
Ternary complexes
Titanium
Wastewater
water
X-ray absorption spectroscopy
title Phosphate interactions with iron-titanium oxide composites: Implications for phosphorus removal/recovery from wastewater
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