Industrial Biotechnology, Bharath Institute of Higher Education and Research, Chennai, Tamil Nadu, India.
Department of Biotechnology, Saveetha School of Engineering, Saveetha Institute of Medical and Technical Sciences (SIMATS), Thandalam, Chennai, Tamil Nadu, India.
J Basic Microbiol. 2022 Mar;62(3-4):330-347. doi: 10.1002/jobm.202100363. Epub 2021 Nov 1.
Microalgae have been publicized for their diversified dominance responsiveness and bioaccumulation potential toward pollutants in an ecosystem. Also, algal's incredible capability as biocatalysts in environmental appliances has been well elucidated owing to their robustness and simple nutritional demand. Additionally, microalgae can deliver various collections of bio-based chemical compounds helpful for diversified applications, especially as green alternatives. The environment has been contaminated with various polluting agents; one principal polluting agent is heavy metals which are carcinogenic and show toxicity even in minimal quantity, cause unsatisfactory threats to the environmental ecosystem, including human and animal health. There is a prominent tendency to apply microalgae in the phytoremediation of heavy metals compounds because of its vast benefits, including great accessibility, cost-effective, excellent toxic metal eliminating efficiency, and nontoxic to the ecosystem. This review uncovers the most recent advancements and mechanisms associated with the bioremediation process and biosorption interaction of substantial harmful synthetic compounds processing microalgae species. Furthermore, future challenges and prospects in the utilization of microalgae in heavy metals bioremediation are also explored. The current review aims to give valuable information to aid the advancement of robust and proficient future microalgae-based heavy metal bioremediation innovations and summarizing a wide range of benefits socioeconomic scope to be employed in heavy metal compound removal in environment system.
微藻因其在生态系统中对污染物的多样化优势响应和生物累积潜力而受到广泛关注。此外,由于藻类具有强大的生命力和简单的营养需求,它们作为环境应用中的生物催化剂的不可思议的能力也得到了很好的阐明。此外,微藻可以提供各种生物基化学化合物,有助于多样化的应用,特别是作为绿色替代品。环境已经受到各种污染物质的污染;一种主要的污染物质是重金属,它们具有致癌性,即使在微量时也具有毒性,对包括人类和动物健康在内的环境生态系统造成了令人不满的威胁。由于微藻具有广泛的优势,包括易于获取、具有成本效益、出色的有毒金属去除效率且对生态系统无毒,因此应用微藻进行重金属化合物的植物修复具有明显的趋势。本综述揭示了与生物修复过程以及微藻物种处理大量有害合成化合物的生物吸附相互作用相关的最新进展和机制。此外,还探讨了利用微藻进行重金属生物修复的未来挑战和前景。本综述旨在提供有价值的信息,以帮助开发强大和高效的未来基于微藻的重金属生物修复创新,并总结广泛的社会经济范围的好处,以用于环境系统中重金属化合物的去除。