生物修复
钒
环境科学
价值(数学)
可持续发展
环境化学
废物管理
环境工程
生化工程
化学
生物
污染
生态学
工程类
数学
无机化学
统计
作者
Ajeet Singh Chauhan,Reeta Rani Singhania,Anil Kumar Patel,Shashi Kant Bhatia,Jo‐Shu Chang,Chiu‐Wen Chen,Cheng‐Di Dong
标识
DOI:10.1016/j.biortech.2024.131356
摘要
Rising concerns about global environmental degradation underscore the pressing need for effective solutions to combat heavy metal pollution. Industries such as semiconductor and steel production discharge vanadium into marine ecosystems, posing significant risks to both marine life and human health. The current study investigates efficacy of utilizing marine thraustochytrid for efficient vanadium removal outcompeting other microbial sources. By optimizing pH and temperature conditions during harvesting, achieved a remarkable 50.80 % enhancement in vanadium removal efficiency, from 19.31 to 29.12 mg/L. Furthermore, chelating agents EDTA and citric acid supplementation demonstrated promising enhancements, reaching up to 31.21 and 32.59 mg/L, respectively. Notably, vanadium-treated biomass supplemented with citric acid exhibited maximum enhancement in lipid content, from 58.47 to 75.34 %, indicating thraustochytrid's potential for biofuel production. This study presents a sustainable approach for industrial-scale vanadium bioremediation, aligning with Sustainable Development Goals focused on dual benefits of environmental protection and renewable energy.
科研通智能强力驱动
Strongly Powered by AbleSci AI