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Multi-detection method for five common microalgal toxins based on the use of microspheres coupled to a flow-cytometry system

[Display omitted] •Multiplexed method for the detection of five microalgal toxin classes.•Sensitive, easy-to-perform, rapid, semi-quantitative screening technique.•Useful for the detection of freshwater toxins in cyanobacterial samples. Freshwater and brackish microalgal toxins, such as microcystins...

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Published in:Analytica chimica acta 2014-11, Vol.850, p.57-64
Main Authors: Fraga, María, Vilariño, Natalia, Louzao, M. Carmen, Rodríguez, Laura P., Alfonso, Amparo, Campbell, Katrina, Elliott, Christopher T., Taylor, Palmer, Ramos, Vítor, Vasconcelos, Vítor, Botana, Luis M.
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container_title Analytica chimica acta
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creator Fraga, María
Vilariño, Natalia
Louzao, M. Carmen
Rodríguez, Laura P.
Alfonso, Amparo
Campbell, Katrina
Elliott, Christopher T.
Taylor, Palmer
Ramos, Vítor
Vasconcelos, Vítor
Botana, Luis M.
description [Display omitted] •Multiplexed method for the detection of five microalgal toxin classes.•Sensitive, easy-to-perform, rapid, semi-quantitative screening technique.•Useful for the detection of freshwater toxins in cyanobacterial samples. Freshwater and brackish microalgal toxins, such as microcystins, cylindrospermopsins, paralytic toxins, anatoxins or other neurotoxins are produced during the overgrowth of certain phytoplankton and benthic cyanobacteria, which includes either prokaryotic or eukaryotic microalgae. Although, further studies are necessary to define the biological role of these toxins, at least some of them are known to be poisonous to humans and wildlife due to their occurrence in these aquatic systems. The World Health Organization (WHO) has established as provisional recommended limit 1μg of microcystin-LR per liter of drinking water. In this work we present a microsphere-based multi-detection method for five classes of freshwater and brackish toxins: microcystin-LR (MC-LR), cylindrospermopsin (CYN), anatoxin-a (ANA-a), saxitoxin (STX) and domoic acid (DA). Five inhibition assays were developed using different binding proteins and microsphere classes coupled to a flow-cytometry Luminex system. Then, assays were combined in one method for the simultaneous detection of the toxins. The IC50's using this method were 1.9±0.1μgL−1 MC-LR, 1.3±0.1μgL−1 CYN, 61±4μgL−1 ANA-a, 5.4±0.4μgL−1 STX and 4.9±0.9μgL−1 DA. Lyophilized cyanobacterial culture samples were extracted using a simple procedure and analyzed by the Luminex method and by UPLC–IT-TOF-MS. Similar quantification was obtained by both methods for all toxins except for ANA-a, whereby the estimated content was lower when using UPLC–IT-TOF-MS. Therefore, this newly developed multiplexed detection method provides a rapid, simple, semi-quantitative screening tool for the simultaneous detection of five environmentally important freshwater and brackish toxins, in buffer and cyanobacterial extracts.
doi_str_mv 10.1016/j.aca.2014.08.030
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Carmen ; Rodríguez, Laura P. ; Alfonso, Amparo ; Campbell, Katrina ; Elliott, Christopher T. ; Taylor, Palmer ; Ramos, Vítor ; Vasconcelos, Vítor ; Botana, Luis M.</creator><creatorcontrib>Fraga, María ; Vilariño, Natalia ; Louzao, M. Carmen ; Rodríguez, Laura P. ; Alfonso, Amparo ; Campbell, Katrina ; Elliott, Christopher T. ; Taylor, Palmer ; Ramos, Vítor ; Vasconcelos, Vítor ; Botana, Luis M.</creatorcontrib><description>[Display omitted] •Multiplexed method for the detection of five microalgal toxin classes.•Sensitive, easy-to-perform, rapid, semi-quantitative screening technique.•Useful for the detection of freshwater toxins in cyanobacterial samples. Freshwater and brackish microalgal toxins, such as microcystins, cylindrospermopsins, paralytic toxins, anatoxins or other neurotoxins are produced during the overgrowth of certain phytoplankton and benthic cyanobacteria, which includes either prokaryotic or eukaryotic microalgae. Although, further studies are necessary to define the biological role of these toxins, at least some of them are known to be poisonous to humans and wildlife due to their occurrence in these aquatic systems. The World Health Organization (WHO) has established as provisional recommended limit 1μg of microcystin-LR per liter of drinking water. In this work we present a microsphere-based multi-detection method for five classes of freshwater and brackish toxins: microcystin-LR (MC-LR), cylindrospermopsin (CYN), anatoxin-a (ANA-a), saxitoxin (STX) and domoic acid (DA). Five inhibition assays were developed using different binding proteins and microsphere classes coupled to a flow-cytometry Luminex system. Then, assays were combined in one method for the simultaneous detection of the toxins. The IC50's using this method were 1.9±0.1μgL−1 MC-LR, 1.3±0.1μgL−1 CYN, 61±4μgL−1 ANA-a, 5.4±0.4μgL−1 STX and 4.9±0.9μgL−1 DA. Lyophilized cyanobacterial culture samples were extracted using a simple procedure and analyzed by the Luminex method and by UPLC–IT-TOF-MS. Similar quantification was obtained by both methods for all toxins except for ANA-a, whereby the estimated content was lower when using UPLC–IT-TOF-MS. 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Freshwater and brackish microalgal toxins, such as microcystins, cylindrospermopsins, paralytic toxins, anatoxins or other neurotoxins are produced during the overgrowth of certain phytoplankton and benthic cyanobacteria, which includes either prokaryotic or eukaryotic microalgae. Although, further studies are necessary to define the biological role of these toxins, at least some of them are known to be poisonous to humans and wildlife due to their occurrence in these aquatic systems. The World Health Organization (WHO) has established as provisional recommended limit 1μg of microcystin-LR per liter of drinking water. In this work we present a microsphere-based multi-detection method for five classes of freshwater and brackish toxins: microcystin-LR (MC-LR), cylindrospermopsin (CYN), anatoxin-a (ANA-a), saxitoxin (STX) and domoic acid (DA). Five inhibition assays were developed using different binding proteins and microsphere classes coupled to a flow-cytometry Luminex system. 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Carmen</au><au>Rodríguez, Laura P.</au><au>Alfonso, Amparo</au><au>Campbell, Katrina</au><au>Elliott, Christopher T.</au><au>Taylor, Palmer</au><au>Ramos, Vítor</au><au>Vasconcelos, Vítor</au><au>Botana, Luis M.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Multi-detection method for five common microalgal toxins based on the use of microspheres coupled to a flow-cytometry system</atitle><jtitle>Analytica chimica acta</jtitle><addtitle>Anal Chim Acta</addtitle><date>2014-11-19</date><risdate>2014</risdate><volume>850</volume><spage>57</spage><epage>64</epage><pages>57-64</pages><issn>0003-2670</issn><eissn>1873-4324</eissn><abstract>[Display omitted] •Multiplexed method for the detection of five microalgal toxin classes.•Sensitive, easy-to-perform, rapid, semi-quantitative screening technique.•Useful for the detection of freshwater toxins in cyanobacterial samples. 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Then, assays were combined in one method for the simultaneous detection of the toxins. The IC50's using this method were 1.9±0.1μgL−1 MC-LR, 1.3±0.1μgL−1 CYN, 61±4μgL−1 ANA-a, 5.4±0.4μgL−1 STX and 4.9±0.9μgL−1 DA. Lyophilized cyanobacterial culture samples were extracted using a simple procedure and analyzed by the Luminex method and by UPLC–IT-TOF-MS. Similar quantification was obtained by both methods for all toxins except for ANA-a, whereby the estimated content was lower when using UPLC–IT-TOF-MS. Therefore, this newly developed multiplexed detection method provides a rapid, simple, semi-quantitative screening tool for the simultaneous detection of five environmentally important freshwater and brackish toxins, in buffer and cyanobacterial extracts.</abstract><cop>Netherlands</cop><pub>Elsevier B.V</pub><pmid>25441160</pmid><doi>10.1016/j.aca.2014.08.030</doi><tpages>8</tpages></addata></record>
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subjects Aquatic toxins
Assaying
Bacterial Toxins
Cyanobacteria - chemistry
Drinking water
Flow Cytometry - methods
Flow-cytometry system
Fresh Water - analysis
Freshwaters
Joining
Kainic Acid - analogs & derivatives
Kainic Acid - analysis
Kainic Acid - isolation & purification
Microalgae - chemistry
Microalgal toxins
Microcystins - analysis
Microcystins - isolation & purification
Microsphere-based array
Microspheres
Multi-detection
Multiplexing
Saxitoxin - analysis
Saxitoxin - isolation & purification
Screening method
Toxins
Tropanes - analysis
Tropanes - isolation & purification
Uracil - analogs & derivatives
Uracil - analysis
Uracil - isolation & purification
title Multi-detection method for five common microalgal toxins based on the use of microspheres coupled to a flow-cytometry system
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