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Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole

[Image: see text] A naked-eye colorimetric chemosensor DK based on benzothiazole could recognize CN(–) effectively. When DK interacted with CN(–) in the aqueous solution, the obvious color change of the solution was directly observed by the naked eye. Other anions did not cause any interference. It...

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Autores principales: Bai, Cui-Bing, Liu, Xin-Yu, Zhang, Jie, Qiao, Rui, Dang, Kun, Wang, Chang, Wei, Biao, Zhang, Lin, Chen, Shui-Sheng
Formato: Online Artículo Texto
Lenguaje:English
Publicado: American Chemical Society 2020
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7017411/
https://www.ncbi.nlm.nih.gov/pubmed/32064409
http://dx.doi.org/10.1021/acsomega.0c00021
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author Bai, Cui-Bing
Liu, Xin-Yu
Zhang, Jie
Qiao, Rui
Dang, Kun
Wang, Chang
Wei, Biao
Zhang, Lin
Chen, Shui-Sheng
author_facet Bai, Cui-Bing
Liu, Xin-Yu
Zhang, Jie
Qiao, Rui
Dang, Kun
Wang, Chang
Wei, Biao
Zhang, Lin
Chen, Shui-Sheng
author_sort Bai, Cui-Bing
collection PubMed
description [Image: see text] A naked-eye colorimetric chemosensor DK based on benzothiazole could recognize CN(–) effectively. When DK interacted with CN(–) in the aqueous solution, the obvious color change of the solution was directly observed by the naked eye. Other anions did not cause any interference. It is interesting that DK could also discriminate Ni(2+) from other cations, and the possible interaction mode between them was verified based on the Job’s plot, (1)H nuclear magnetic resonance titration, infrared , electrospray ionization mass spectrometry, scanning electron microscopy analysis, and density functional theory calculation methods. As a result, it is clear that the mode of action between DK and CN(–) was different from that between DK and Ni(2+). Meanwhile, the limit of detection of DK toward CN(–) and Ni(2+) was calculated to be 1.7 × 10(–8) or 7.4 × 10(–9) M, respectively. In addition, CN(–) was recognized qualitatively by a test paper and silica gel plates made from DK. DK was able to detect CN(–) in tap water quantitatively, rapidly, and on-site by the use of a smartphone APP. All results implied that DK has certain prospects for practical application to identify CN(–) in water.
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spelling pubmed-70174112020-02-14 Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole Bai, Cui-Bing Liu, Xin-Yu Zhang, Jie Qiao, Rui Dang, Kun Wang, Chang Wei, Biao Zhang, Lin Chen, Shui-Sheng ACS Omega [Image: see text] A naked-eye colorimetric chemosensor DK based on benzothiazole could recognize CN(–) effectively. When DK interacted with CN(–) in the aqueous solution, the obvious color change of the solution was directly observed by the naked eye. Other anions did not cause any interference. It is interesting that DK could also discriminate Ni(2+) from other cations, and the possible interaction mode between them was verified based on the Job’s plot, (1)H nuclear magnetic resonance titration, infrared , electrospray ionization mass spectrometry, scanning electron microscopy analysis, and density functional theory calculation methods. As a result, it is clear that the mode of action between DK and CN(–) was different from that between DK and Ni(2+). Meanwhile, the limit of detection of DK toward CN(–) and Ni(2+) was calculated to be 1.7 × 10(–8) or 7.4 × 10(–9) M, respectively. In addition, CN(–) was recognized qualitatively by a test paper and silica gel plates made from DK. DK was able to detect CN(–) in tap water quantitatively, rapidly, and on-site by the use of a smartphone APP. All results implied that DK has certain prospects for practical application to identify CN(–) in water. American Chemical Society 2020-02-03 /pmc/articles/PMC7017411/ /pubmed/32064409 http://dx.doi.org/10.1021/acsomega.0c00021 Text en Copyright © 2020 American Chemical Society This is an open access article published under an ACS AuthorChoice License (http://pubs.acs.org/page/policy/authorchoice_termsofuse.html) , which permits copying and redistribution of the article or any adaptations for non-commercial purposes.
spellingShingle Bai, Cui-Bing
Liu, Xin-Yu
Zhang, Jie
Qiao, Rui
Dang, Kun
Wang, Chang
Wei, Biao
Zhang, Lin
Chen, Shui-Sheng
Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole
title Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole
title_full Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole
title_fullStr Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole
title_full_unstemmed Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole
title_short Using Smartphone APP To Determine the CN(–) Concentration Quantitatively in Tap Water: Synthesis of the Naked-Eye Colorimetric Chemosensor for CN(–) and Ni(2+) Based on Benzothiazole
title_sort using smartphone app to determine the cn(–) concentration quantitatively in tap water: synthesis of the naked-eye colorimetric chemosensor for cn(–) and ni(2+) based on benzothiazole
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7017411/
https://www.ncbi.nlm.nih.gov/pubmed/32064409
http://dx.doi.org/10.1021/acsomega.0c00021
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