Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring
Surface water used for drinking water production is frequently monitored in The Netherlands using whole organism biomonitors, with for example Daphnia magna or Dreissena mussels, which respond to changes in the water quality. However, not all human-relevant toxic compounds can be detected by these b...
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doaj-33b391a9437346d6b2b924d3eb9aa8c92020-11-24T20:46:28ZengMDPI AGSensors1424-82202017-11-011711268210.3390/s17112682s17112682Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water MonitoringMarjolijn Woutersen0Bram van der Gaag1Afua Abrafi Boakye2Jan Mink3Robert S. Marks4Arco J. Wagenvoort5Henk A. M. Ketelaars6Bram Brouwer7Minne B. Heringa8National Institute for Public Health and the Environment (RIVM), P.O. Box 1, 3720 BA Bilthoven, The NetherlandsAffiliation at the time of the study: KWR Watercycle Research Institute, Groningenhaven 7, 3433 PE Nieuwegein, The NetherlandsPAREXEL International, The Quays, 101-105 Oxford Rd, Uxbridge UB8 1LZ, UKVTEC Lasers & Sensors, Kastanjelaan 400, 5616 LZ Eindhoven, The NetherlandsDepartment of Biotechnology Engineering, Faculty of Engineering Science, Ben-Gurion University of the Negev, Beer-Sheva 84105, IsraelAqWa ecologisch advies, Voorstad 45, 4461 KL Goes, The NetherlandsEvides Water Company, Schaardijk 150, 3063 NH Rotterdam, The NetherlandsVrije Universiteit Faculty of Earth & Life Sciences, Department of Animal Ecology, De Boelelaan 1085, 1081 HV Amsterdam, The NetherlandsNational Institute for Public Health and the Environment (RIVM), P.O. Box 1, 3720 BA Bilthoven, The NetherlandsSurface water used for drinking water production is frequently monitored in The Netherlands using whole organism biomonitors, with for example Daphnia magna or Dreissena mussels, which respond to changes in the water quality. However, not all human-relevant toxic compounds can be detected by these biomonitors. Therefore, a new on-line biosensor has been developed, containing immobilized genetically modified bacteria, which respond to genotoxicity in the water by emitting luminescence. The performance of this sensor was tested under laboratory conditions, as well as under field conditions at a monitoring station along the river Meuse in The Netherlands. The sensor was robust and easy to clean, with inert materials, temperature control and nutrient feed for the reporter organisms. The bacteria were immobilized in sol-gel on either an optical fiber or a glass slide and then continuously exposed to water. Since the glass slide was more sensitive and robust, only this setup was used in the field. The sensor responded to spikes of genotoxic compounds in the water with a minimal detectable concentration of 0.01 mg/L mitomycin C in the laboratory and 0.1 mg/L mitomycin C in the field. With further optimization, which should include a reduction in daily maintenance, the sensor has the potential to become a useful addition to the currently available biomonitors.https://www.mdpi.com/1424-8220/17/11/2682biosensorbacterialuminescencegenotoxicitywater monitoring |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Marjolijn Woutersen Bram van der Gaag Afua Abrafi Boakye Jan Mink Robert S. Marks Arco J. Wagenvoort Henk A. M. Ketelaars Bram Brouwer Minne B. Heringa |
spellingShingle |
Marjolijn Woutersen Bram van der Gaag Afua Abrafi Boakye Jan Mink Robert S. Marks Arco J. Wagenvoort Henk A. M. Ketelaars Bram Brouwer Minne B. Heringa Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring Sensors biosensor bacteria luminescence genotoxicity water monitoring |
author_facet |
Marjolijn Woutersen Bram van der Gaag Afua Abrafi Boakye Jan Mink Robert S. Marks Arco J. Wagenvoort Henk A. M. Ketelaars Bram Brouwer Minne B. Heringa |
author_sort |
Marjolijn Woutersen |
title |
Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring |
title_short |
Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring |
title_full |
Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring |
title_fullStr |
Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring |
title_full_unstemmed |
Development and Validation of an On-Line Water Toxicity Sensor with Immobilized Luminescent Bacteria for On-Line Surface Water Monitoring |
title_sort |
development and validation of an on-line water toxicity sensor with immobilized luminescent bacteria for on-line surface water monitoring |
publisher |
MDPI AG |
series |
Sensors |
issn |
1424-8220 |
publishDate |
2017-11-01 |
description |
Surface water used for drinking water production is frequently monitored in The Netherlands using whole organism biomonitors, with for example Daphnia magna or Dreissena mussels, which respond to changes in the water quality. However, not all human-relevant toxic compounds can be detected by these biomonitors. Therefore, a new on-line biosensor has been developed, containing immobilized genetically modified bacteria, which respond to genotoxicity in the water by emitting luminescence. The performance of this sensor was tested under laboratory conditions, as well as under field conditions at a monitoring station along the river Meuse in The Netherlands. The sensor was robust and easy to clean, with inert materials, temperature control and nutrient feed for the reporter organisms. The bacteria were immobilized in sol-gel on either an optical fiber or a glass slide and then continuously exposed to water. Since the glass slide was more sensitive and robust, only this setup was used in the field. The sensor responded to spikes of genotoxic compounds in the water with a minimal detectable concentration of 0.01 mg/L mitomycin C in the laboratory and 0.1 mg/L mitomycin C in the field. With further optimization, which should include a reduction in daily maintenance, the sensor has the potential to become a useful addition to the currently available biomonitors. |
topic |
biosensor bacteria luminescence genotoxicity water monitoring |
url |
https://www.mdpi.com/1424-8220/17/11/2682 |
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