A review of struvite crystallization for nutrient source recovery from wastewater

Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems, which is a solution to achieve a sustainable society. Besides, struvite crystallization technology is considered a potential nutrient recovery...

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Vydáno v:Journal of environmental management Ročník 344; s. 118383
Hlavní autoři: Guan, Qian, Li, Yingpeng, Zhong, Yun, Liu, Wei, Zhang, Jiajie, Yu, Xin, Ou, Ranwen, Zeng, Guisheng
Médium: Journal Article
Jazyk:angličtina
Vydáno: England Elsevier Ltd 15.10.2023
Témata:
Assistive technology
crystallization
environmental management
magnesium ammonium phosphate
Nutrient recovery
pollution load
Process parameters
Slow-release fertilizer
slow-release fertilizers
Struvite crystallization
sustainable communities
wastewater
Struvite crystallization
Assistive technology
Slow-release fertilizer
Nutrient recovery
Process parameters
ISSN:0301-4797, 1095-8630, 1095-8630
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Abstract Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems, which is a solution to achieve a sustainable society. Besides, struvite crystallization technology is considered a potential nutrient recovery technology because the precipitate obtained can be reused as a slow-release fertilizer. This review presents the basic properties of struvite and the theory of the basic crystallization process. In addition, the possible influencing variables of the struvite crystallization process on the recovery efficiency and product purity are also examined in detail. Then, the advanced auxiliary technologies for facilitating the struvite crystallization process are systematically discussed. Moreover, the economic and environmental benefits of the struvite crystallization process for nutrient recovery are introduced. Finally, the shortcomings and inadequacies of struvite crystallization technology are presented, and future research prospects are provided. This work serves as the foundation for the future use of struvite crystallization technology to recover nutrients in response to the increasingly serious environmental problems and resource depletion. [Display omitted] •Struvite crystallization processes for nutrient recovery from wastewater are overviewed.•Assessment of performance of novel technologies assisted with struvite crystallization process.•Analysis of economic feasibility and environmental impacts in struvite recovery process.•Current challenges and future prospects directions are identified.
AbstractList Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems, which is a solution to achieve a sustainable society. Besides, struvite crystallization technology is considered a potential nutrient recovery technology because the precipitate obtained can be reused as a slow-release fertilizer. This review presents the basic properties of struvite and the theory of the basic crystallization process. In addition, the possible influencing variables of the struvite crystallization process on the recovery efficiency and product purity are also examined in detail. Then, the advanced auxiliary technologies for facilitating the struvite crystallization process are systematically discussed. Moreover, the economic and environmental benefits of the struvite crystallization process for nutrient recovery are introduced. Finally, the shortcomings and inadequacies of struvite crystallization technology are presented, and future research prospects are provided. This work serves as the foundation for the future use of struvite crystallization technology to recover nutrients in response to the increasingly serious environmental problems and resource depletion. [Display omitted] •Struvite crystallization processes for nutrient recovery from wastewater are overviewed.•Assessment of performance of novel technologies assisted with struvite crystallization process.•Analysis of economic feasibility and environmental impacts in struvite recovery process.•Current challenges and future prospects directions are identified.
Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems, which is a solution to achieve a sustainable society. Besides, struvite crystallization technology is considered a potential nutrient recovery technology because the precipitate obtained can be reused as a slow-release fertilizer. This review presents the basic properties of struvite and the theory of the basic crystallization process. In addition, the possible influencing variables of the struvite crystallization process on the recovery efficiency and product purity are also examined in detail. Then, the advanced auxiliary technologies for facilitating the struvite crystallization process are systematically discussed. Moreover, the economic and environmental benefits of the struvite crystallization process for nutrient recovery are introduced. Finally, the shortcomings and inadequacies of struvite crystallization technology are presented, and future research prospects are provided. This work serves as the foundation for the future use of struvite crystallization technology to recover nutrients in response to the increasingly serious environmental problems and resource depletion.
Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems, which is a solution to achieve a sustainable society. Besides, struvite crystallization technology is considered a potential nutrient recovery technology because the precipitate obtained can be reused as a slow-release fertilizer. This review presents the basic properties of struvite and the theory of the basic crystallization process. In addition, the possible influencing variables of the struvite crystallization process on the recovery efficiency and product purity are also examined in detail. Then, the advanced auxiliary technologies for facilitating the struvite crystallization process are systematically discussed. Moreover, the economic and environmental benefits of the struvite crystallization process for nutrient recovery are introduced. Finally, the shortcomings and inadequacies of struvite crystallization technology are presented, and future research prospects are provided. This work serves as the foundation for the future use of struvite crystallization technology to recover nutrients in response to the increasingly serious environmental problems and resource depletion.Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems, which is a solution to achieve a sustainable society. Besides, struvite crystallization technology is considered a potential nutrient recovery technology because the precipitate obtained can be reused as a slow-release fertilizer. This review presents the basic properties of struvite and the theory of the basic crystallization process. In addition, the possible influencing variables of the struvite crystallization process on the recovery efficiency and product purity are also examined in detail. Then, the advanced auxiliary technologies for facilitating the struvite crystallization process are systematically discussed. Moreover, the economic and environmental benefits of the struvite crystallization process for nutrient recovery are introduced. Finally, the shortcomings and inadequacies of struvite crystallization technology are presented, and future research prospects are provided. This work serves as the foundation for the future use of struvite crystallization technology to recover nutrients in response to the increasingly serious environmental problems and resource depletion.
ArticleNumber 118383
Author Yu, Xin
Liu, Wei
Zhang, Jiajie
Guan, Qian
Ou, Ranwen
Zhong, Yun
Zeng, Guisheng
Li, Yingpeng
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  organization: College of the Environment and Ecology, Xiamen University, Xiamen, 361102, PR China
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  givenname: Yingpeng
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  fullname: Li, Yingpeng
  organization: Haixi (Fujian) Institute, China Academy of Machinery Science and Technology Group, Sanming, 365500, PR China
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  organization: Ganjiang Innovation Academy, Chinese Academy of Sciences, Ganzhou 341000, PR China
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  organization: School of Space and Environment, Beihang University, Beijing, 100191, PR China
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  surname: Zeng
  fullname: Zeng, Guisheng
  email: zengguisheng@hotmail.com
  organization: School of Environment and Chemical Engineering, Nanchang Hangkong University, Nanchang, 330063, PR China
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Keywords Struvite crystallization
Assistive technology
Slow-release fertilizer
Nutrient recovery
Process parameters
Language English
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PublicationDateYYYYMMDD 2023-10-15
PublicationDate_xml – month: 10
  year: 2023
  text: 2023-10-15
  day: 15
PublicationDecade 2020
PublicationPlace England
PublicationPlace_xml – name: England
PublicationTitle Journal of environmental management
PublicationTitleAlternate J Environ Manage
PublicationYear 2023
Publisher Elsevier Ltd
Publisher_xml – name: Elsevier Ltd
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Snippet Nutrient recovery from wastewater not only reduces the nutrient load on water resources but also alleviates the environmental problems in aquatic ecosystems,...
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SubjectTerms Assistive technology
crystallization
environmental management
magnesium ammonium phosphate
Nutrient recovery
pollution load
Process parameters
Slow-release fertilizer
slow-release fertilizers
Struvite crystallization
sustainable communities
wastewater
Title A review of struvite crystallization for nutrient source recovery from wastewater
URI https://dx.doi.org/10.1016/j.jenvman.2023.118383
https://www.ncbi.nlm.nih.gov/pubmed/37348306
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