现在和未来的饮用水微生物监测。

IF 5.7 2区 生物学
Thomas Pluym, Fien Waegenaar, Bart De Gusseme, Nico Boon
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引用次数: 0

摘要

随着时间的推移,人类以各种方式解决微生物对水的污染问题。历史上,人们通过生产啤酒来解决这一问题。时至 19 世纪,罗伯特-科赫(Robert Koch)提出了一种科学方法。他提出了每毫升 100 个菌落形成单位(CFU/mL)的上限,以避免霍乱爆发。尽管通过对培养基成分和生长温度的实验,电镀技术有了长足的进步,但在水质安全方面,依靠已有百年历史的方法仍然是最先进的。尽管大多数国家都能在生产中心的末端生产出优质的水,但在配送过程中却很难控制和保证同样的质量。我们建议对整个供水网络进行全面检查,而不是仅仅关注特定的取样点,以确保全面安全。目前的做法存在不确定性,特别是考虑到病原体的低浓度。流式细胞仪和流式细胞指纹图谱等创新方法提供了检测饮用水微生物组变化的能力。此外,分子技术和新兴的测序技术,如第三代测序技术(MinION),标志着一个重大的飞跃,提高了检测限,并强调识别不需要的基因而不是不需要的细菌/微生物本身。过去几十年来,人们逐渐认识到饮用水输水管网是一个复杂的生态系统,除细菌外,还包括病毒、原生动物甚至等足类动物。要监测整个饮用水输水管网的微生物群,就必须采用测序技术来查找真核生物 DNA。人工智能、大数据和机器学习是否会成为饮用水(微生物)监测的方向?从根本上说,现在是超越百年惯例、采用现代技术来确保饮用水从生产到消费的安全的时候了。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Microbial drinking water monitoring now and in the future

Microbial drinking water monitoring now and in the future

Over time, humanity has addressed microbial water contamination in various ways. Historically, individuals resorted to producing beer to combat the issue. Fast forward to the 19th century, and we witnessed a scientific approach by Robert Koch. His groundbreaking gelatine plating method aimed to identify and quantify bacteria, with a proposed limit of 100 colony-forming units per millilitre (CFU/mL) to avoid Cholera outbreaks. Despite considerable advancements in plating techniques through experimentation with media compositions and growth temperatures, the reliance on a century-old method for water safety remains the state-of-the-art. Even though most countries succeed in producing qualitative water at the end of the production centres, it is difficult to control, and guarantee, the same quality during distribution. Rather than focusing solely on specific sampling points, we propose a holistic examination of the entire water network to ensure comprehensive safety. Current practices leave room for uncertainties, especially given the low concentrations of pathogens. Innovative methods like flow cytometry and flow cytometric fingerprinting offer the ability to detect changes in the microbiome of drinking water. Additionally, molecular techniques and emerging sequencing technologies, such as third-generation sequencing (MinION), mark a significant leap forward, enhancing detection limits and emphasizing the identification of unwanted genes rather than the unwanted bacteria/microorganisms itself. Over the last decades, there has been the realization that the drinking water distribution networks are complex ecosystems that, beside bacteria, comprise of viruses, protozoans and even isopods. Sequencing techniques to find eukaryotic DNA are necessary to monitor the entire microbiome of the drinking water distribution network. Or will artificial intelligence, big data and machine learning prove to be the way to go for (microbial) drinking water monitoring? In essence, it is time to transcend century-old practices and embrace modern technologies to ensure the safety of our drinking water from production to consumption.

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来源期刊
Microbial Biotechnology
Microbial Biotechnology Immunology and Microbiology-Applied Microbiology and Biotechnology
CiteScore
11.20
自引率
3.50%
发文量
162
审稿时长
1 months
期刊介绍: Microbial Biotechnology publishes papers of original research reporting significant advances in any aspect of microbial applications, including, but not limited to biotechnologies related to: Green chemistry; Primary metabolites; Food, beverages and supplements; Secondary metabolites and natural products; Pharmaceuticals; Diagnostics; Agriculture; Bioenergy; Biomining, including oil recovery and processing; Bioremediation; Biopolymers, biomaterials; Bionanotechnology; Biosurfactants and bioemulsifiers; Compatible solutes and bioprotectants; Biosensors, monitoring systems, quantitative microbial risk assessment; Technology development; Protein engineering; Functional genomics; Metabolic engineering; Metabolic design; Systems analysis, modelling; Process engineering; Biologically-based analytical methods; Microbially-based strategies in public health; Microbially-based strategies to influence global processes
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