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Fe and Mn phytoremediation of acid coal mine drainageusingwater hyacinth (Eichornia crassipes) and chinese water chestnut (Eleocharis dulcis) on the constructed wetland system

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Research Paper 01/04/2018
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Fe and Mn phytoremediation of acid coal mine drainageusingwater hyacinth (Eichornia crassipes) and chinese water chestnut (Eleocharis dulcis) on the constructed wetland system

Rahmat Yunus, Nopi Stiyati Prihatini
Int. J. Biosci.12( 4), 273-281, April 2018.
Certificate: IJB 2018 [Generate Certificate]
Key: Acid mine drainageChinese water chestnutConstructed wetlandFe and MnPhytoremediationWater hyacinth

Abstract

Acid Mine Drainage (AMD) is a wastewater formed through a series of chemical reactions and biological activities during and after open-pit system coal exploitation. Coal containing sulfide in the presence of oxygen and air is oxidized to form sulfuric acid, thus having a pH<4. This condition facilitates the solubility of Fe and Mn. As a result, AMDhas a great potential as environmental polluters. This study aims to determine the efficiency of Fe and Mn removal on AMD and potency of water hyacint and Chinese water chestnut to accumulate Fe and Mn. The method used is phytoremediation by water hyacinth/ecenggondok (Eichhornia crassipes) and chinese water chestnut/puruntikus (Eleocharis dulcis) on constructed wetland system (CW). The treatment was carried out for 25 days with a flow rate of 5 m3/day. Measurements and samplings are done every 5 days. Measurements of Fe and Mn concentrations using ICP-OES. The results show that the CW is only able to increase the pH from 3.20 to 5.31. Water hyacinth and chinese water chestnut are able to accumulate Fe and Mn with the highest Bioconcentration Factor (BCF) for Fe, respectively from 1701.12 and 1010.86 and for Mn, respectively 1.12 and 1.45, Phytoremediation Index (PRI) or theCW performance efficiency in Fe and Mn removal respectively between (87.11– 95.28) % and (70.08 – 79.84) %. These results indicate that both plants can be considered to be utilized for long-term AMD processing in wider CWs.

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Achterberg EP, Herzl VMC, Braungardt CB, Millward GE. 2003. Metal behavior in an estuary polluted by acid mine drainage: the role of particulate matter. Environmental Pollution.121, 283–292.

Aisen FA, Oluwole F, Aisen TT. 2010. Phytoremediation of Heavy Metals in Aqueous Solutions. Leonardo J. of Sciences. 37-46.

Balasubramanian N, Kojima T, Ahmed Basha, C, Srinivasakannan C. 2009. Removal of Arsenic from Aqueous Solution using Electrocoagulation. Journal of Hazardous Materials 167, 966-969.

Blodau C. 2006. A review of acidity generation and consumption in acidic coal mine lakes and their watersheds.Science of the Total Environment 369, 307–332.

Chojnacka K. 2013. Biosorption and Bioaccumulation in Practice. Nova Science Publishers. Inc.

Dowling J, Steve A, Beale G, Alexdaner G. 2004. Development of the Sleeper Pit Lake.Mine Water and the Environment 23, 2–11.

Elisa M, Gomes P, Favas JC. 2006. Mineralogical controls on mine drainage of the abandoned Ervedosa tin mine in north-eastern Portugal. Applied Geochemistry. 21, 1322–1334.

Farooqi IH, Basheer F, Chaudhari RJ. 2008. Constructed Wetland System (CWS) for Wastewater Treatment. The 12th World Lake Conference. 1004-1009.

Huheey JE, Keiter EA, AlexanderJ. 1993, Inorganic Chemistry: Principles of Structure and Reactivity, 4th edition, Harper & Row Publisher, New York.

Jasmidi E, Sugiharto, Mudjiran. 2002. The Influence of Length and Condition of Biomass Storage on Lead Biosorption (II) and Zinc (II) by Saccharomyces cerevisiae Biomass. Indonesian Journal of Chemistry.11-15

Kaur L, Kasturi Gadgil, Satyawati Sharma. 2012. Role of pH in the Accumulation of Lead and Nickel by Common Duckweed (Lemnaminor). Int. J. of Bioassays. 191.

Environment Ministerial DecreeNo. 113 of 2003. Concerning the Standard of Waste Water for Business and/or Coal Mining Activities.

Kim DH, Kim, KW, Cho J. 2006. Removal and transport mechanisms of arsenic in UF and NF membrane processes, Journal Water Health. 4(2), 215-223.

Krisdianto, Purnomo E, Mikrianto E. 2006. Role of Chinese Water Chesnut in Reducing Coal Mine Waste Water Fe. FMIPA UNLAM, Banjarbaru.

Kumari P, Sharma P, Srivastava S, Srivastava, MM. 2006. Biosorption Studies on Shelled Moringa oleifera Lamarck Seed Powder: Removal and Recovery of Arsenic from Aqueous System. Int. J. Miner. Process 78,131-139.

Lo’pez A, Lazaro N, Morales S, Marques AM. 2002. Nickel Biosorption by Free and Immobilized Cells of Pseudomonas fluorescence: A Comparative Study. Water, Air, Soil pollution.135(1-4),157-172.

LuQ. 2009. Evaluation of aquatic plants for phytoremediation of eutrophic stormwaters. University of Florida. Doctoral Thesis.

Meutia AA, Suryono T, Awaludin BS, Sugiarti ME. 2003. Artificial Wetlands to Improve Water Quality of Citarum River. Research Center for Geotechnology LIPI.

Michelle B, da Cruz, Rosane Aguiar, Jaime W, Vargas de Mello. 2010. Phytoremediation of Acid Mine Drainage by Aquatic Floating Macrophytes. INCT-ACQUA – Annual Report-Institute of Science and Technology for Mineral Resource. Water and Biodiversity.

Prihatini NS, Priatmadi BJ, Masrevaniah A, Soemarno. 2015. Performance of the Horizontal Subsurface-flow Constructed Wetland with Different Operational Procedures. International Journal of Advances in Engineering & Technology 7(6), 1620-1629.

Prihatini NS, Nirtha I, Iman MS. 2016a. Role of Purun Tikus in Vertical Subsurface Flow Constructed Wetland in Treating Manganese (Mn) From Coal Mine Drainage. Tropical Wetland Journal. 2(1), 1 – 7.

Prihatini NS, Priatmadi BJ, Masrevaniah A, Soemarno. 2016b. Effects of the Purun Tikus (Eleocharis dulcis (Burm. F.) Trin. ExHensch) Planted in the Horizontal Subsurface Flow-Constructed Wetlands (HSSF-CW) on Iron (Fe) Concentration of the Acid Mine Drainage. Journal of Applied Environmental and Biological Science 6(1), 258-264.

Prihatini NS, Soemarno. 2017. Iron (Fe) Bio-concentration in Purun Tikus (Eleocharis dulcis) Planted on the Constructed Wetland Treating the Coal Acid Mine Darinage. International Journal of Bioscience 11(3), 69 – 75 http://dx.doi.org/10.12692/ijb/11.3.69-75

Ratnaningsih RD, Hartati I, Kurniasari L, 2010. Utilization of Water Hyacinth in Reducing COD, pH, Odor, and Color of Liquid Waste of Tofu, Research Report. Faculty of Engineering Wahid Hasyim UniversitySemarang.

Sharma VK, Sohn M. 2009. Aquatic Arsenic: Toxicity, Speciation, Transformations, and Remediation. Environ Int. 35,743-759.

Sheoran AS, Sheoran V. 2006. Heavy metal removal mechanism of acid mine drainage in wetlands: A critical review. Minerals Engineering. 19, 105–116.

SkinnerK, Wright N, Porter-Goff E. 2007. Mercury Uptake and Accumulation by Four Species of Aquatic Plants. Environmental Pollution. 145, 234-237.

Soewondo P, Akbar C. 2007. Study of Horizontal Subsurface Flow Constructed Wetland Capability in Processing Domestic Liquid Waste (Case Study: Urban Community Empowerment Center Surabaya). Journal of Environmental Engineering 13(1),36-44.

Tarutis-Jr, WJ, Stark LR, Williams FM. 1999. Sizing and performance estimation of coal mine drainage wetlands. Ecological Engineering. 12,353-372.

USEPA. 2000. Guiding Principles for Constructed Treatment Wetlands: Providing for Water Quality and Wildlife Habitat. USEPA, Washington, DC.

Woulds C, Ngwenya BT. 2004. Geochemical processes governing the performance of a constructed wetland treating acid mine drainage, Central Scotland. Applied Geochemistry. 19 1773-1783.

Yunus R. 2014. Phytoremediation of Pb and As in Acid Coal Mine Drainage with Water Hyacinth (Eichornia crassipes). Dissertation. PDKLP Brawijaya University. Malang.

Zayed A, Gowthaman S, Terry N. 1998. Phytoaccumulation of Trace Elements by Wetland Plants: I. Duckweed. Journal Environmental Quality. 27(3), 715-721.

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