Investigation of sub-acute levels of zinc oxide nanoparticles on the filtration rate of Mytilaster lineatus and Dressina polymorpha in the short term
##plugins.themes.bootstrap3.article.sidebar##
##plugins.themes.bootstrap3.article.main##
Abstract
Qadermarzi A, Pouladi M, Rezamand A, Hoseinifar SH, Hedayati AA. 2018. Investigation of sub-acute levels of zinc oxide nanoparticles on the filtration rate of Mytilaster lineatus and Dressina polymorpha in the short term. Nusantara Bioscience 10: 53-57. The filtration rate is one of the physiological indices in the bivalves which indicate the degree of efficacy of the filtration function in the exposure to contaminants. In this study, changes in the filtration rate of freshwater bivalves (D. polymorpha and M. lineatus) were investigated after exposure periods of 5 and 10 days with nanoparticles. Bivalves were transferred from the natural environment to the laboratory. The distribution of nanoparticles was measured by differential light scattering (DLS). Bivalves were exposed to 2.5, 25 and 50 ppm nanoparticles for ten days in water reservoirs. The filtration rates were significantly different in the treatments compared to the control samples, with the highest filtration rate was observed in the control group. On the fifth day, the highest filtration rate was obtained in the first treatment of M. lineatus and the lowest filtration rate was obtained in the third treatment of D. polymorphia. The highest filtration rates were observed in the first and second treatments and the lowest filtration rate was observed in the third treatment. Also, there was no significant difference in the filtration rate of M. lineatus in the 1st treatment with control (P> 0.05) on the 5th day, but filtration rate was significantly (P <0.05) less than other concentrations and control group in the third treatment. On the other hand, the filtration rates on the 10th day showed similar differences compared to the 5th day. It could be concluded that the changes infiltration rate are an appropriate indicator for the measurement of contamination in nanoparticles.
2019-01-01
##plugins.themes.bootstrap3.article.details##
Mar Pollut Bull 7 (12): 228-231.
Al-Subia SN, Moody AJ, Mustafa SA. 2011. A multiple biomarker
approaches to investigate the effects of copper on the marine bivalve
mollusk Mytilusedulis. Ecotox Environ Safe 74 (7): 1913-1920.
Azarbad H, jvanshir A, Danekar A, Shapouri M. 2010. Biosorption and
bioaccumulation of heavy metals by rock oyster Saccostrea cucullata
in the Persian Gulf. lntl Aquat Res 2 (1): 61-69.
Bayne BL. 1976. Marine mussels; their ecology and physiology.
Cambridge University Press.
Bernardini G, Cattaneo AG, Sabbioni E, Di Gioacchino M,
Chirivaâ€Internati M, Gornati R. 2009. Toxicology of engineered metal
nanoparticles. General, applied and systems toxicology.
Burgos-Aceves MA, Faggio C. 2017. An approach to the study of the
immunity functions of bivalve haemocytes: physiology and molecular
aspects. Fish Shellfish Immunol 67: 513-517.
Canesi L, Ciacci C, Fabbri R, Marcomini A, Pojana G, Gallo G, 2012.
Bivalve molluscs as a unique target group for nanoparticle toxicity.
Mar Environ Res 76: 16-21.
Daughton CG. 2004. Non-regulated water contaminants: emerging
research. Environ Impact Asses Rev 24 (7): 711-732.
Doyle JJ, Ward JE, Mason R. 2016. Exposure of bivalve shellfish to
titania nanoparticles under an environmental-spill scenario:
Encounter, ingestion and egestion. J Mar Biol Assoc UK 96 (1) 137-
149.
Falfushynska H, Gnatyshyna L, Yurchak I, Sokolova I, Stoliar O. 2015.
The effects of zinc nanooxide on cellular stress responses of the
freshwater mussels Unio tumidus are modulated by elevated
temperature and organic pollutants. Aquat Toxicol 162: 82-93.
Fan X, Wang P, Wang C, Hu B, Wang X. 2017. Lead accumulation
(adsorption and absorption) by the freshwater bivalve Corbicula
fluminea in sediments contaminated by TiO2 nanoparticles. Environ
Pollut 231: 712-721.
Farris JL, Van Hassel JH. 2007. Freshwater Bivalve Ecotoxicology,
Society of Environmental Toxicology and Chemistry (SETAC).
Fournier M, Pellerin J, Clermont Y, Morin Y, Brousseau P. 2001. Effects
of in vivo exposure of Myaarenaria to organic and inorganic mercury
on phagocytic activity of haemocytes. Toxicology 161 (3): 201-211.
Gornati R, Pedretti E, Rossi F, Cappellini F, Zanella M, Olivato I,
Sabbioni E, Bernardini G. 2016. Zerovalent Fe, Co and Ni
nanoparticle toxicity evaluated on SKOV-3 and U87 cell lines. J Appl
Toxicol 36 (3): 385-93.
Green RH, Singh SM, Bailey RC. 1985. Bivalve mollusks as response
systems for modeling spatial and temporal environmental patterns.
Sci Total Environ 46 (1-4): 147-169.
Jørgensen CB. 1990. Bivalve Filter Feeding: Hydrodynamics,
Bioenergetics, Physiology and Ecology, Olson & Olson. Fedensborg,
Denmark.
Kramer KJM, Jenner HA, Zwaet D. 1989. The valve movement response
of mussels: a tool in biologica monitoring. Hydrobiologia 188/189:
433-443.
Moezi F, Javanshir A, Eagderi S, Pourbagher H, Sallaki M. 2013.
Evaluation of bivalve clearance (CR) as a physiological indicator of
heavy metal toxicity in freshwater mussel, Anodontacygnea (Linea,
1876). Sci J Anim Sci 2 (4): 89-94.
Moore MN. 2006. Do nanoparticles present ecotoxicological risks for the
health of the aquatic environment? Environ Int 32 (8): 967-976.
Mouabad A, Pihan JC. 1992. The pumping behavior response of
Dreissena polymorpha to pollutants: a method for toxicity screening.
In: Neumann and Jenner, The zebra mussel Dreissena polymorpha.
Limnol Aktuell 4: 147-154.
Philips DJH. 1980. Quantitive aquatic biological indicators, their use to
monitor trace metal and organochlorine pullotion. Applied Science
Publication, London.
Piotrovsky LB, Kiselev OI. 2006. Fullerenes in Biology. Rostok, St.
Petersburg, Russia. 336: 3.
Rocha TL, Gomes T, Sousa VS, Mestre NC, Bebianno MJ. 2015.
Ecotoxicological impact of engineered nanomaterials in bivalve
molluscs: an overview. Mar Environ Res 111: 74-88.
Salanki J, Balogh K. 1989. Physiological background for using freshwater
mussels in monitoring copper and lead pollution. Hydrobiologia 188:
445-454.
Sharmer VK, Yngard RA, Lin Y. 2009. Silver nanoparticles: Green
synthesis and their antimicrobial activities. Adv Colloid Interfac
145:83-96.
Shi D, Wang WX. 2004. Modification of trace metal accumulation in the
green mussel Pernaviridis by exposure to Ag, Cu and Zn. Environ
Pollut 132 (2): 265-277.
Umer A, Naveed S, Ramzan N. 2012. Selection of a suitable method for
the synthesis of copper nanoparticles. NANO Brief Rep Rev 7 (5): 1-
18.
Viarengo A, Zinicchi G, Moore MN, Orunesu M. 2011. Accumulation and
detoxification of copper by the mussel Mytilus galloprovincialis Lam:
a study of the subcellular distribution in the digestive gland cells.
Aquat Toxicol 1 (3):147-157.
Watling H. 1981. The effects of metals on mollusc filtering rate. T Royal
Soc S Afr 44 (3): 441-451.
Zar JH. 1984. Bioststistical Analysis, 2nd ed. Prentice Hall Inc., New
York.
Zuykov M, Pelletier E, Harper DA. 2013. Bivalve mollusks in metal
pollution studies: from bioaccumulation to biomonitoring.
Chemosphere 93 (2): 201-208.