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微塑料与微藻的相互作用及协同转化研究综述

林璐秋 Maryam Bayati 张淑娟 熊菲菲 张金洺 龚勋

能源环境保护2026,Vol.40Issue(3):89-99,11.
能源环境保护2026,Vol.40Issue(3):89-99,11.DOI:10.20078/j.eep.20251005

微塑料与微藻的相互作用及协同转化研究综述

Interactions and Synergistic Co-Conversion of Microplastics and Microalgae:A Review

林璐秋 1Maryam Bayati 2张淑娟 1熊菲菲 1张金洺 1龚勋1

作者信息

  • 1. 华中科技大学 能源与动力工程学院 煤燃烧国家重点实验室,湖北 武汉 430074
  • 2. 诺森比亚大学 工程与环境学院 机械与建筑工程系,英国 泰恩河畔纽卡斯尔 NE1 8ST
  • 折叠

摘要

Abstract

Escalating global plastic pollution has resulted in the pervasive accumulation of microplastics(MPs)in aquatic environments.Due to their strong pollutant adsorption capacity and difficulties in recovery,MPs pose severe challenges to conventional water treatment technologies.Microalgae,characterized by high environmental adaptability and robust metabolic capabilities,exhibit significant potential for MP bioremediation.This review systematically elucidates the interaction mechanisms between microalgae and MPs,bioremediation strategies,and downstream co-conversion pathways.Specifically,extracellular polymeric substances(EPS)secreted by microalgae act as key drivers for hetero-aggregation,facilitating interfacial adhesion via charge neutralization and hydrogen bonding.The size ratio of MPs to algal cells regulates aggregation behavior:comparable sizes promote co-sedimentation,whereas significantly larger MPs obstruct light,and nanoscale particles induce cytotoxicity.MP toxicity is further modulated by particle concentration and the degree of aging.Conversely,microalgae accelerate MP degradation through physical abrasion and enzymatic hydrolysis.Effective bioremediation requires matching the surface properties of algal strains with MPs,regulating biofilm formation,and balancing hydrodynamic shear forces.Regarding resource recovery,the co-pyrolysis or liquefaction of algal biomass and MPs reduces nitrogen-and oxygen-containing impurities in bio-oil via the hydrogen-donor effect of MPs.This process can also yield porous carbon with a high specific surface area or fluorescent carbon quantum dots.However,current research faces notable limitations.Most studies on toxicity and degradation rely on static,single-species systems that fail to simulate realistic hydrodynamic parameters(e.g.,flow velocity and turbulence intensity)and the synergistic effects of co-existing pollutants(e.g.,heavy metals and pharmaceutical compounds).Furthermore,co-conversion technologies are limited by discontinuous operation and a lack of robust models correlating feedstock ratios with product quality.Future research should prioritize the development of multi-algal synergistic remediation systems and the introduction of dynamic flow simulations to replicate real aquatic environments.Remediation efficacy must be evaluated under multi-pollutant conditions.Additionally,developing multi-stage continuous-flow reactors with optimized catalysis is crucial.Ultimately,these efforts will bridge the gap between remediation and resource utilization,promoting the transition of bioremediation technology from laboratory research to industrial application.

关键词

微藻/微塑料/相互作用/生物修复/共转化

Key words

Microalgae/Microplastics/Interaction/Bioremediation/Co-conversion

分类

资源环境

引用本文复制引用

林璐秋,Maryam Bayati,张淑娟,熊菲菲,张金洺,龚勋..微塑料与微藻的相互作用及协同转化研究综述[J].能源环境保护,2026,40(3):89-99,11.

基金项目

国家自然科学基金面上资助项目(52176188) (52176188)

能源环境保护

2097-4183

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