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Submitted
May 12, 2019
Accepted
May 12, 2019
Published
May 30, 2019
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Abstract

The phytoaccumulation of Mn and Fe in nipah palm (Nypa fruticans) has objective to find out the phytoaccumulation potential of Nypa fruticans in Tallo river. Samples were taken in water, sediments, roots, midribs and leaves at five sampling spots representing polluted areas by activities of industrial estates and community settlements. Water was destructed by concentratedHNO3, meanwhile sediments were destructed by dry destruction with aquaregia and plant tissues were destructed by wet destruction with HNO3 6 M and concentrated H2O2, then all the samples were carried on analysis using ICP EOS Shimadzu 9000. The result of analysis has shown that Nypa fruticans was able to accumulate Mn and Fe, moreover the accumulation potential indicated Nypa fruticans able to be natural hyperaccumulator for Fe, otherwise to Mn. According to BCF and TF result were shown the mechanism of phytoaccumulation in Nypa fruticans for Mn and Fe as phytostabilization.

Keywords

Mn Fe Nypa fruticans phytoaccumulation hyperaccumulator.

Article Details

How to Cite
Zulfikar, Z., La Nafie, N., & Liong, S. (2019). FITOACUMULATION OF Mn AND Fe ON NYPA FRUTICANS IN TALLO RIVER, MAKASSAR. Jurnal Akta Kimia Indonesia (Indonesia Chimica Acta), 11(2), 45-55. https://doi.org/10.20956/ica.v11i2.6490
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References

  1. Anonim, 2003, Health Effect Support Document for Manganese, United States Environmental Protection Agency, Washington DC.
  2. Buchanan, B., Grusen, W., dan Jones, R., 2000, Biochemstry and Molecular Biology of Plants, American Society of Plant Physiologist, Maryland, Amerika Serikat.
  3. Dima, G., Popescu, I.V., Stihi, C., Oros C., Dinu S., Manea, L., dan Vlaicu, G., 2006, Fe, Mn And Zn Concentrations Determination From Ialomira River By Atomic Absorption Spectroscopy, Romania Journal Physics, 51(56):667-674.
  4. Erakhrumen, A.A., 2015, Assesment of In-Situ Natural Dendroremediation Capability of Rhizophora racemosa in a Heavy MetalPolluted Mangrove Forest River State Nigeria, Journal Application Science Environment,19(1): 21-27.
  5. Ghosh, M., dan Signh, S. P., 2005, Comparative Uptake and Phytoextraction Study of Soil Induced Chromium by Accumulator and High Biomass Weed Species, Applied Ecology and Environmental Research, 3(2): 67-79.
  6. Hirata, K., Tsuji, N., and Miyamoto, K., 2005,Biosynthetic Regulation of Phytochelatins,Heavy Metal-Binding Peptides, Journal of Science and Bioengineering, 100(6): 593-599.
  7. Juhaeti, T., Syarif, F., and Hidayati, N., 2004, Inventory of Potential Plants for Fitoremediation of Land and Degraded Water in Gold Mining, Biodiversity, 6 (1): 31-33.
  8. Kariada, N.T.M., and Irsadi, A., 2014, Role of Mangroves as Biofilter of Water Pollution in Semarang Treadfish Pond Area, Human Journal and Environment, 21 (2): 188194.
  9. Liong, S., Noor, A., Taba, P., and Abdullah A., 2010, Phytoaccumulation of Pb Study in Kankung Darat (Ipomoea reptans Poir), Department of Chemistry, Faculty of Mathematics and Natural Sciences, Hasanuddin University, Makassar..
  10. Pollard, A., J., 2009, Manganese Hyperaccumulation in Phytolacca americana L.from the Southeastern United States,Northeastern Naturalist, 16(5): 155-162.
  11. Setiawan, H., 2014, Pollution of Heavy Metals in the Coastal Waters of Makassar City and their Mitigation Efforts, EBONI Technical Info, 11 (1): 1-13.
  12. Widowati, W., Sastiono, H., and Jusuf, R., 2008, Effects of Toxic Metals on Pollution Prevention and Control, Andi, Yogyakarta.
  13. Yudo, S., 2006, Pollution Conditions of Heavy Metal in DKI Jakarta River Waters, JAI, 2 (1): 1-15.