Data di Pubblicazione:
2021
Abstract:
The use of microalgae is nowadays recognized to be an efficient and eco-friendly strategy for the removal of contaminants from wastewater. Thanks to their versatility, these photosynthetic organisms can grow in a broad spectrum of wastewaters, including those from agricultural, animal, municipal, and industrial sources, while converting nutrients such as nitrogen and phosphorus into useful products. Currently, microalgae are beginning to be exploited at large scale for the treatment of agricultural and municipal wastewaters. However, novel applications for specific types of wastewater, such as from petrochemical sources, while producing promising results, are still in their early stages. Thus, further work should be performed to optimize microalgal technology in light of its application to industrial contexts. Currently, there is also a growing interest in making these technologies even more economically and environmentally sustainable by using microalgal biomass, obtained during wastewater remediation processes, to produce novel bioplastic materials, potentially replacing petroleum-based counterparts and reducing the adverse impact of human activities and manufacturing on the environment. The present review will encompass the latest developments in algal technologies for environmental remediation, with a specific focus on novel applications in the field of petrochemical wastewater treatment. Then, a literature review of bioplastics production via microalgae and its integration into the wastewater treatment process will be conducted. Information gathered in this review can be used to identify research topics that need to be addressed in order to optimize the use of microalgae-based technology for wastewater remediation.
Tipologia CRIS:
01.01 Articolo in rivista
Keywords:
APS Advanced pond system; BOD Biological oxygen demand; COD Chemical oxygen demand; CSG Coal seam gas; CWs Constructed wetlands; DWW Dairy wastewater; EIA Energy information administration; EPA Environmental protection agency; EPS Extracellular polymeric substances; FAO Food and agricultural organization; FLA Fluoranthene; FW Flowback water; GHS Greenhouse gases; HHV High heating value; HM Heavy metals; HRP High rate pond; HRPAP High rate pond for algal treatment; HRT Hydraulic retention time; IUPAC International union of pure and applied chemistry; List of abbreviations ATS Algal turf scrubber; OD Oxygen demand; PAHs Polycyclic aromatic hydrocarbons; PBAT Polybutylene adipate-co-terephthalate; PE Polyethylene; PHA Polyhydroxyalkanoates; PHB Polyhydroxybuthyrate; PHBV Poly(3-hydroxybutyrate-co-3-hydroxyvalerate); PHE Phenanthrene; PLA Polylactic acid; PP Polypropylene; PVC Polyvinyl chloride; PW Produced water; PYR Pyrene; ROS Reactive oxygen species; SWW Swine wastewater; T-IPL Intense pulsed light; TFS Total dissolve solids; TOC Total organic carbon; WW Wastewater; WWTP Wastewater treatment plant
Elenco autori:
Chiellini, Carolina
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