School of Biochemical Engineering, Indian Institute of Technology (BHU), Varanasi, India.
School of Biochemical Engineering, Indian Institute of Technology (BHU), Varanasi, India.
Bioresour Technol. 2022 Oct;361:127662. doi: 10.1016/j.biortech.2022.127662. Epub 2022 Jul 21.
The ever-increasing consumption of antibiotics in both humans and animals has increased their load in municipal and pharmaceutical industry waste and may cause serious damage to the environment. Impact of antibiotics on the performance of commercially used anaerobic digesters in terms of bioenergy output, antibiotics' removal and COD removal have been compared critically with a few studies indicating >90% removal of antibiotics. AnMBR performed the best in terms of antibiotic removal, COD removal and methane yield. Most of the antibiotics investigated have adverse effects on microbiome associated with different stages and methane generation pathways of AD which has been assessed using high throughput technologies like metatranscriptomics, metaproteomics and flow cytometry. Perspectives have been given for understanding the fate and elimination of antibiotics from AD. The challenge of optimization and process improvement needs to be addressed to increase efficiency of the anaerobic digesters.
抗生素在人类和动物中的使用量不断增加,导致其在城市和制药行业的废物中的含量增加,可能对环境造成严重破坏。一些研究表明,抗生素对商业上使用的厌氧消化器在生物能源产量、抗生素去除和 COD 去除方面的性能有重大影响,去除率超过 90%。AnMBR 在抗生素去除、COD 去除和甲烷产量方面表现最佳。大多数研究的抗生素对与 AD 的不同阶段和甲烷生成途径相关的微生物组有不良影响,这已使用高通量技术(如宏转录组学、宏蛋白质组学和流式细胞术)进行了评估。已经提出了从 AD 中了解抗生素的命运和消除的观点。需要解决优化和工艺改进的挑战,以提高厌氧消化器的效率。