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• W3090740323 endingPage "116478" @default.
• W3090740323 startingPage "116478" @default.
• W3090740323 abstract "Taste and odor (T&O) are an important issue in drinking water, aquaculture, recreation and a few other associated industries, and cyanobacteria-relevant geosmin and 2-methylisoborneol (2-MIB) are the two most commonly detected T&O compounds worldwide. A rise in the cyanobacterial blooms and associated geosmin/2-MIB episodes due to anthropogenic activities as well as climate change has led to global concerns for drinking water quality. The increasing awareness for the safe drinking, aquaculture or recreational water systems has boost the demand for rapid, robust, on-site early detection and monitoring system for cyanobacterial geosmin/2-MIB events. In past years, research has indicated quantitative PCR (qPCR) as one of the promising tools for detection of geosmin/2-MIB episodes. It offers advantages of detecting the source organism even at very low concentrations, distinction of odor-producing cyanobacterial strains from non-producers and evaluation of odor producing potential of the cyanobacteria at much faster rates compared to conventional techniques.The present review aims at examining the current status of developed qPCR primers and probes in identifying and detecting the cyanobacterial blooms along with geosmin/2-MIB events. Among the more than 100 articles about cyanobacteria associated geosmin/2-MIB in drinking water systems published after 1990, limited reports (approx. 10 each for geosmin and 2-MIB) focused on qPCR detection and its application in the field. Based on the review of literature, a comprehensive open access global cyanobacterial geosmin/2-MIB events database (CyanoGM Explorer) is curated. It acts as a single platform to access updated information related to origin and geographical distribution of geosmin/2-MIB events, cyanobacterial producers, frequency, and techniques associated with the monitoring of the events. Although a total of 132 cyanobacterial strains from 21 genera and 72 cyanobacterial strains from 13 genera have been reported for geosmin and 2-MIB production, respectively, only 58 geosmin and 28 2-MIB synthesis regions have been assembled in the NCBI database. Based on the identity, geosmin sequences were found to be more diverse in the geosmin synthase conserved/primer design region, compared to 2-MIB synthesis region, hindering the design of universal primers/probes. Emerging technologies such as the bioelectronic nose, Surface Enhanced Raman Scattering (SERS), and nanopore sequencing are discussed for future applications in early on-site detection of geosmin/2-MIB and producers. In the end, the paper also highlights various challenges in applying qPCR as a universal system of monitoring and development of response system for geosmin/2-MIB episodes." @default.
• W3090740323 created "2020-10-08" @default.
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• W3090740323 date "2021-01-01" @default.
• W3090740323 modified "2023-10-17" @default.
• W3090740323 title "Quantitative PCR based detection system for cyanobacterial geosmin/2-methylisoborneol (2-MIB) events in drinking water sources: Current status and challenges" @default.
• W3090740323 cites W1256187163 @default.
• W3090740323 cites W1664997796 @default.
• W3090740323 cites W1951683428 @default.
• W3090740323 cites W1973192575 @default.
• W3090740323 cites W1981818407 @default.
• W3090740323 cites W1983334316 @default.
• W3090740323 cites W1987751963 @default.
• W3090740323 cites W1988572859 @default.
• W3090740323 cites W1992735959 @default.
• W3090740323 cites W2008665228 @default.
• W3090740323 cites W2023155154 @default.
• W3090740323 cites W2023950913 @default.
• W3090740323 cites W2029786378 @default.
• W3090740323 cites W2052519847 @default.
• W3090740323 cites W2066774939 @default.
• W3090740323 cites W2067827764 @default.
• W3090740323 cites W2072914549 @default.
• W3090740323 cites W2075890664 @default.
• W3090740323 cites W2089719624 @default.
• W3090740323 cites W2090939538 @default.
• W3090740323 cites W2102274183 @default.
• W3090740323 cites W2107737615 @default.
• W3090740323 cites W2109173428 @default.
• W3090740323 cites W2132402000 @default.
• W3090740323 cites W2143734548 @default.
• W3090740323 cites W2170940707 @default.
• W3090740323 cites W2393912237 @default.
• W3090740323 cites W2398092094 @default.
• W3090740323 cites W2502078385 @default.
• W3090740323 cites W2513869911 @default.
• W3090740323 cites W2515865775 @default.
• W3090740323 cites W2518466913 @default.
• W3090740323 cites W2577702314 @default.
• W3090740323 cites W2578604640 @default.
• W3090740323 cites W2580018860 @default.
• W3090740323 cites W2602465979 @default.
• W3090740323 cites W2605114605 @default.
• W3090740323 cites W2611820593 @default.
• W3090740323 cites W2613519842 @default.
• W3090740323 cites W2615751562 @default.
• W3090740323 cites W2620148175 @default.
• W3090740323 cites W2640713163 @default.
• W3090740323 cites W2748384021 @default.
• W3090740323 cites W2781843646 @default.
• W3090740323 cites W2792750269 @default.
• W3090740323 cites W2799519964 @default.
• W3090740323 cites W2804205919 @default.
• W3090740323 cites W2889134269 @default.
• W3090740323 cites W2889256296 @default.
• W3090740323 cites W2891622084 @default.
• W3090740323 cites W2895627477 @default.
• W3090740323 cites W2900248501 @default.
• W3090740323 cites W2900592915 @default.
• W3090740323 cites W2903262156 @default.
• W3090740323 cites W2918842120 @default.
• W3090740323 cites W2938195279 @default.
• W3090740323 cites W2945191918 @default.
• W3090740323 cites W2951936104 @default.
• W3090740323 cites W2952250112 @default.
• W3090740323 cites W2954122450 @default.
• W3090740323 cites W2965126758 @default.
• W3090740323 cites W2966597946 @default.
• W3090740323 cites W2981941159 @default.
• W3090740323 cites W2982173686 @default.
• W3090740323 cites W2984947511 @default.
• W3090740323 cites W3003552547 @default.
• W3090740323 cites W3004469341 @default.
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• W3090740323 cites W3010898171 @default.
• W3090740323 cites W3098084501 @default.
• W3090740323 cites W822149926 @default.
• W3090740323 cites W2997209384 @default.
• W3090740323 doi "https://doi.org/10.1016/j.watres.2020.116478" @default.
• W3090740323 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33045635" @default.
• W3090740323 hasPublicationYear "2021" @default.
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