Chromatin specialization in bivalve molluscs: A leap forward for the evaluation of Okadaic Acid genotoxicity in the marine environment

Marine biotoxins synthesized by Harmful Algal Blooms (HABs) represent one of the most important sources of contamination in marine environments as well as a serious threat to fisheries and aquaculture-based industries in coastal areas. Among these biotoxins Okadaic Acid (OA) is of critical interest...

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Veröffentlicht in:Comparative biochemistry and physiology. Toxicology & pharmacology 2012-03, Vol.155 (2), p.175-181
Hauptverfasser: Gonzalez-Romero, Rodrigo, Rivera-Casas, Ciro, Fernandez-Tajes, Juan, Ausio, Juan, Mendez, Josefina, Eirin-Lopez, Jose M
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container_issue 2
container_start_page 175
container_title Comparative biochemistry and physiology. Toxicology & pharmacology
container_volume 155
creator Gonzalez-Romero, Rodrigo
Rivera-Casas, Ciro
Fernandez-Tajes, Juan
Ausio, Juan
Mendez, Josefina
Eirin-Lopez, Jose M
description Marine biotoxins synthesized by Harmful Algal Blooms (HABs) represent one of the most important sources of contamination in marine environments as well as a serious threat to fisheries and aquaculture-based industries in coastal areas. Among these biotoxins Okadaic Acid (OA) is of critical interest as it represents the most predominant Diarrhetic Shellfish Poisoning biotoxin in the European coasts. Furthermore, OA is a potent tumor promoter with aneugenic and clastogenic effects on the hereditary material, most notably DNA breaks and alterations in DNA repair mechanisms. Therefore, a great effort has been devoted to the biomonitoring of OA in the marine environment during the last two decades, mainly based on physicochemical and physiological parameters using mussels as sentinel organisms. However, the molecular genotoxic effects of this biotoxin make chromatin structure a good candidate for an alternative strategy for toxicity assessment with faster and more sensitive evaluation. To date, the development of chromatin-based studies to this purpose has been hampered by the complete lack of information on chromatin of invertebrate marine organisms, especially in bivalve molluscs. Our preliminary results have revealed the presence of histone variants involved in DNA repair and chromatin specialization in mussels and clams. In this work we use this information to put forward a proposal focused on the development of chromatin-based tests for OA genotoxicity in the marine environment. The implementation of such tests in natural populations has the potential to provide an important leap in the biomonitoring of this biotoxin. The outcome of such monitoring may have critical implications for the evaluation of DNA damage in these marine organisms. They will provide as well important tools for the optimization of their harvesting and for the elaboration of additional tests designed to evaluate the safety of their consumption and potential implications for consumer's health.
doi_str_mv 10.1016/j.cbpc.2011.09.003
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subjects algal blooms
Animals
Bivalve molluscs
Bivalvia
Bivalvia - classification
Bivalvia - drug effects
Bivalvia - genetics
Carcinogens, Environmental - toxicity
Chromatin
Chromatin - drug effects
Chromatin - genetics
clams
coasts
diarrhetic shellfish poisoning
DNA Damage
DNA repair
Environmental Monitoring - methods
fisheries
Genotoxicity
harvesting
Histone variants
histones
Marine
marine environment
Marine Toxins - toxicity
monitoring
mussels
Mutagenicity Tests - methods
Okadaic Acid
Okadaic Acid - toxicity
physiology
poisoning
population
Species Specificity
title Chromatin specialization in bivalve molluscs: A leap forward for the evaluation of Okadaic Acid genotoxicity in the marine environment
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