Application of Multivariate Statistical Methods to Optimize Water Quality Monitoring Network with Emphasis on the Pollution Caused by Fish Farms
Abstract
Background: One of the key issues in determining the quality of water in rivers is to create a water quality control network with a suitable performance. The measured qualitative variables at stations should be representative of all the changes in water quality in water systems. Since the increase in water quality monitoring stations increases annual monitoring costs, recognition of the stations with higher importance as well as main parameters can be effective in future decisions to improve the existing monitoring network.
Methods: Sampling was carried out on 12 physical and chemical parameters measured at 15 stations during 2013-2014 in Haraz River, northern Iran.
Results: The results of the measurements were analyzed using multivariate statistical analysis methods including cluster analysis (CA), principal component analysis (PCA), factor analysis (FA), and discriminant analysis (DA). According to the CA, PCA, and FA, the stations were divided into three groups of high pollution, medium pollution, and low pollution.
Conclusion: The research findings confirm applicability of multivariate statistical techniques in the interpretation of large data sets, water quality assessment, and source apportionment of different pollution sources.
Pahlow M, van Oel PR, Mekonnen MM, Hoekstra AY (2015). Increasing pressure on freshwater resources due to terrestrial feed ingredients for aquaculture production. Sci Total Environ, 536: 847-57.
Jegatheesan V, Shu L, Visvanathan C (2011). Aquaculture Effluent: Impacts and Remedies for Protecting the Environment and Human Health. Reference Module in Earth Systems and Environmental Sciences, from Encyclopedia of Environmental Health, Elsevier Science, 123-35.
Alexander KA, Potts TP, Freeman S, Israel D, Johansen J, Kletou D, Meland M, Pecorino D, Rebours C, Shorten M, Angel DL (2015). The implications of aquaculture policy and regulation for the development of integrated multi-trophic aquaculture in Europe. Aquaculture, 443: 16-23.
Villasante S, Rivero Rodríguez S, Molares Y, Martínez M, Remiro J, García-Díez C, Lahoz C, Omar I, Bechardas M, Elago P, Ekandjo M, Saisai M, Awit L (2015). Are provisioning ecosystem services from rural aquaculture contributing to reduce hunger in Africa Ecosyst Serv, In Press, Corrected Proof, Available online 12 August 2015. DOI: 10.1016/j.ecoser.2015.07.003.
Harkes IHT, Drengstig A, Kumara MP, Jayasinghe JMPK, Huxham M (2015). Shrimp aquaculture as a vehicle for Climate Compatible Development in Sri Lanka. The case of Puttalam Lagoon. Mar Policy, 61: 273-83.
Salgado H, Bailey J, Tiller R, Ellis J (2015). Stakeholder perceptions of the impacts from salmon aquaculture in the Chilean Patagonia. Ocean Coast Manage, In Press, Corrected Proof, Available online 30 July 2015. doi:10.1016/j.ocecoaman.2015.07.016.
Boyd CE (2015). 1 - Overview of aquaculture feeds: Global impacts of ingredient use. Feed and Feeding Practices in Aquaculture, 3-25.
Van den Berg AH, McLaggan D, Diéguez-Uribeondo J, van West P (2013). The impact of the water moulds Saprolegnia diclina and Saprolegnia parasitica on natural ecosystems and the aquaculture industry. Fungal Biol Rev, 27(2): 33-42.
Davidson J, Good Ch, Barrows FT, Welsh C, Brett Kenney P, Summerfelt ST (2013). Comparing the effects of feeding a grain- or a fish meal-based diet on water quality, waste production, and rainbow trout Oncorhynchus mykiss performance within low exchange water recirculating aquaculture systems. Aquacult Eng, 52: 45-57.
Cole DW, Cole R, Gaydos SJ, Gray J, Hyland G, Jacques ML, Powell-Dunford N, Sawhney Ch, Au WW (2009). Aquaculture: Environmental, toxicological, and health issues. Int J Hyg Environ Health, 212(4): 369-77.
Hin Low K, Zain ShMd, Radzi Abas Mhd, Salleh KMd, Yin Teo Y (2015). Distribution and health risk assessment of trace metals in freshwater tilapia from three different aquaculture sites in Jelebu Region (Malaysia). Food Chem, 177: 390-6.
Noori R, Karbassi AR, Farokhnia A, Dehghani M (2009). Predicting the longitudinal dispersion coefficient using support vector machine and adaptive neuro-fuzzy inference system techniques. Environ Eng Sci, 26: 1503-1510.
Noori R, Karbassi AR, Sabahi MS (2010). Evaluation of PCA and Gamma test techniques on ANN operation for weekly solid waste predicting. J Environ Manage, 91: 767-771.
Noori R, Sabahi MS, Karbassi AR, Baghvand A, Taati Zadeh H (2010). Multivariate statistical analysis of surface water quality based on correlations and variations in the data set. Desalination, 260 (1): 129-136.
Grizzle RE, Ward LG, Fredriksson DW, Irish JD, Langan R, Heinig CS, Greene JK, Abeels HA, Peter CR, Eberhardt AL (2014). Long-term seafloor monitoring at an open ocean aquaculture site in the western Gulf of Maine, USA: Development of an adaptive protocol. Mar Pollut Bull, 88(1–2): 129-37.
Wang Y, Qi Ch, Pan H (2012). Design of Remote Monitoring System for Aquaculture Cages Based on 3G Networks and ARM-Android Embedded System. Procedia Eng, 29: 79-83.
Eguiraun H, Izagirre U, Martinez I (2015). A paradigm shift in safe seafood production: From contaminant detection to fish monitoring – Application of biological warning systems to aquaculture. Trends Food Sci Tech, 43(1): 104-13.
Masci M, Orban E, Nevigato T (2014).Organochlorine pesticide residues: An extensive monitoring of Italian fishery and aquaculture. Chemosphere, 94: 190-8.
Nimptsch J, Woelfl S, Osorio S, Valenzuela J, Ebersbach P, von Tuempling W, Palma R, Encina F, Figueroa D, Kamjunke N, Graeber D (2015). Tracing dissolved organic matter (DOM) from land-based aquaculture systems in North Patagonian streams. Sci Total Environ, 537: 129-38.
Roshan Tabari M (1996). Hydrology and hydrobiology of Haraz River. Iran J Fish, 2: 28-45 [in Persian].
Moqadas D (1999). Determination of the amount of lead and cadmium in water, suspended sediments, seabed sediments, fish and benthoses of Haraz River. M.Sc. thesis, Environment Department. Tarbiat Modares University, Tehran, Iran.
Guigues N, Desenfant M, Hance E (2013). Combining multivariate statistics and analysis of variance to redesign a water quality monitoring network. Environ Sci Process Impacts, 15: 1692-705.
Mohamed I, Othman F, Ibrahim AI, Alaa-Eldin ME, Yunus RM (2015). Assessment of water quality parameters using multivariate analysis for Klang River basin, Malaysia. Environ Monit Assess, 187(1): 4182. doi: 10.1007/s10661-014-4182-y.
Ismail AH, Abed BSh, Abdul Sh (2014). Application of Multivariate Statistical Techniques in the surface water quality Assessment of Tigris River at Baghdad stretch, Iraq. J Babylon University/Eng Sci, 22(2): 450-63.
Lopes FB, de Andrade EM, Meireles ACM, Becker H, Batista AA (2014). Assessment of the water quality in a large reservoir in semiarid region of Brazil. Rev Bras Eng Agr Amb, 18(4): 437–45.
Gamble A, Babbar-Sebens M (2012). On the use of multivariate statistical methods for combining in-stream monitoring data and spatial analysis to characterize water quality conditions in the White River Basin, Indiana, USA. Environ Monit Assess, 184(2): 845-75.
Files | ||
Issue | Vol 46 No 1 (2017) | |
Section | Original Article(s) | |
Keywords | ||
Monitoring network Water quality Optimization Environment Statistics |
Rights and permissions | |
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License. |