A REVIEW OF REMOVAL IRON AND MANGANESE BY USING CASCADE AERATION SYSTEMS

Authors

  • Mohd Remy Rozainy M. A. Z Faculty of Civil Engineering, Universiti Sains Malaysia, Seri Ampangan, 14300 Nibong Tebal, Seberang Perai Selatan, Pulau Pinang, Malaysia
  • Rhahimi Jamil Faculty of Civil Engineering, Universiti Sains Malaysia, Seri Ampangan, 14300 Nibong Tebal, Seberang Perai Selatan, Pulau Pinang, Malaysia
  • Mohd Nordin Adlan Faculty of Civil Engineering, Universiti Sains Malaysia, Seri Ampangan, 14300 Nibong Tebal, Seberang Perai Selatan, Pulau Pinang, Malaysia

DOI:

https://doi.org/10.11113/jt.v74.4875

Keywords:

Iron, manganese, aeration, groundwater, systems

Abstract

This review covers the removal of iron (Fe) and manganese (Mn) using aeration system for groundwater. The review focuses on the aeration systems that used by the previous researchers on the system in removing iron and manganese. The important aspects that will be discussed in this paper are the strength and the weaknesses that had been implemented and the success of systems, in the critical review. There are many systems that been used either using the oxidation or filtration. The suitability of the method is depending to study area, soil type and water characteristic. All the systems worked as a tool to remove the iron and manganese, the differences between the systems in removing this metal will 100% or less than 100% removal. In this review, the weaknesses between all the removal systems that would be done will be discuss, to improve other study about this system and the suggestion from the researcher also take as an idea to execute a research in this area. The comparation between the strategies evaluated, pilot study and simulation will be discussed. This paper has highlighted on the appropriate system is used to remove iron and manganese from groundwater, in addition a number of system design are also analyzed for knowing the importance of flexibility of operations with the model produced. The best system will be proposed to remove iron and manganese for further study depending to the weakness, advantages and disadvantages in costing and the best treatment.

References

V. Rathinakumar, G. Dhinakaran, and C. R. Suribabu, 2014. Assessment of Aeration Capacity of Stepped Cascade System for Selected Geometry. 6(1): 254-262.

R. Munter, H. Ojaste, and J. Sutt. 2005. Complexed Iron Removal from Groundwater. July: 1014-1020.

D. Ellis, C. Bouchard, and G. Lantagne. 2000. Removal of Iron and Manganese from Groundwater by Oxidation and Microfiltration. Desalination. 130(3): 255–264.

W. W. Bruce I. Drovak, Sharon O.Skipton. 2014. Drinking Water : Iron and Manganese. Univ. Nebraska-Lincoln Extension. Inst. Agric. Nat. Resour. 1714.

M. S. Burger, S. S. Mercer, G. D. Shupe, and G. a Gagnon. 2008. Manganese Removal During Bench-Scale Biofiltration. Water Res. 42(19): 4733-42.

K. Choo, H. Lee, and S. Choi. 2005. Iron and Manganese Removal and Membrane Fouling During UF in Conjunction With Prechlorination for Drinking Water Treatment. J. Memb. Sci. 267(1-2): 18-26.

S. Lin, H. He, R. Zhang, and J. Li. 2011. Removal of Fe (II) and Mn (II) from Aqueous Solution by Palygorskite. 2011 Int. Conf. Comput. Distrib. Control Intell. Environ. Monit. 2181-2185.

L. Batty, B. Lesley, D. Hooley, H. Daniel, P. Younger, and Y. Paul. 2008. Iron and Manganese Removal in Wetland Treatment Systems: Rates, Processes and Implications for Management. Sci. Total Environ. 394(1): 1-8.

L. Ã…mand, G. Olsson, and B. Carlsson. 2013. Aeration Control-A Review. Water Sci. Technol. 67(11): 2374-98.

E. Alp and C. S. Melching. 2011. Allocation of Supplementary Aeration Stations in the Chicago Waterway System for Dissolved Oxygen Improvement. J. Environ. Manage. 92(6): 1577-83.

S. Moulick, N. V Tambada, B. K. Singh, and B. C. Mal. 2010. Aeration Characteristics of a Rectangular Stepped Cascade System. Water Sci. Technol. 61(2): 415-20.

A. Baylar, D. Hanbay, and E. Ozpolat. 2008. An Expert System for Predicting Aeration Performance of Weirs By Using ANFIS. Expert Syst. Appl. 35(3): 1214-1222.

H. Abu Hasan, S. R. Sheikh Abdullah, S. K. Kamarudin, N. Tan Kofli, and N. Anuar. 2014. Kinetic Evaluation of Simultaneous COD, Ammonia and Manganese Removal from Drinking Water Using a Biological Aerated Filter System. Sep. Purif. Technol. 130: 56-64.

A. Baylar, D. Hanbay, and M. Batan. 2009. Application of Least Square Support Vector Machines in the Prediction of Aeration Performance of Plunging Overfall Jets From Weirs. Expert Syst. Appl. 36(4): 8368-8374.

B. O. L. Demars and J. R. Manson. 2012. Temperature Dependence of Stream Aeration Coefficients and the Effect of Water Turbulence: A Critical Review. SCiVerse Sci. 7: 1-15.

A. Sniders and A. Laizans. 2011. Adaptive Model of Wastewater Aeration Tank. Sci. J. Riga Tech. Univ. Environ. Clim. Technol. 6(1): 112-117.

H. Chanson. 1999. D ROP W EIRS a. J. Hydraul. Eng. June: 666-667.

H. Chanson and L. Toombes. 2003. Strong Interactions Between Free-Surface Aeration and Turbulence in an Open Channel Flow. 27: 525-535.

H. Chanson and L. Toombes. 2002. Air–water Flows Down Stepped Chutes: Turbulence and Flow Structure Observations. Int. J. Multiph. Flow. 28(11): 1737-1761.

H. Juanjuan, T. Yulan, F. Jinxiang, and W. Weibin. 2009. Factors Analysis for Simultaneous Biological Removal of Iron, Manganese and Ammonia from the Micro-Contaminants Groundwater. 2009 Int. Conf. Energy Environ. Technol. 569-573.

I. a Katsoyiannis and A. I. Zouboulis. 2004. Biological Treatment of Mn(II) and Fe(II) Containing Groundwater: Kinetic Considerations And Product Characterization. Water Res. 38(7): 1922-32.

M. J. CAJ Appelo, B. Drijver, R. Hekkenberg. 1999. Modeling In Situ Iron Removal from Ground Water.pdf. 811-817.

N. El Azher, B. Gourich, C. Vial, M. B. Soulami, and M. Ziyad. 2008. Study of Ferrous Iron Oxidation in Morocco Drinking Water in an Airlift Reactor. Chem. Eng. Process. Process Intensif. 47(9-10): 1877-1886.

T. Å tembal, M. Markić, N. RibiÄić, F. BriÅ¡ki, and L. Sipos. 2005. Removal of Ammonia, Iron and Manganese from Groundwaters of Northern Croatia—Pilot Plant Studies. Process Biochem. 40(1): 327-335.

W. W. J. M. de Vet, C. C. a. van Genuchten, M. C. M. van Loosdrecht, and J. C. van Dijk. 2010. Water Quality and Treatment of River Bank Filtrate. Drink. Water Eng. Sci. 3(1): 79-90.

P. Berbenni, A. Pollice, R. Canziani, L. Stabile, and F. Nobili. 2000. Removal of Iron and Manganese from Hydrocarbon-Contaminated Groundwaters. Bioresour. Technol. 74(2): 109-114.

X. Ma, J. Shang, F. Piao, and W. Wu. 2010. Biological Removal of Iron , Manganese and Ammonia Nitrogen from Low-temperature Groundwater Using Biological Aerated Filter. 2009: 4-8,

F. Piao, W. Zhang, Y. Li, and Y. Zhao. 2011. Influence on Removal Iron and Manganese from Groundwater with Micro Pollutants. 2011 Int. Conf. Multimed. Technol. 5415-5418.

T. Yulan, H. E. Juanjuan, M. A. Xingguan, Z. Rongxin, W. U. Weibing, and F. U. Jinxiang. 2010. Simultaneous Biological Removal of Iron , Manganese and Ammonium Nitrogen in Simulated Groundwater Using Biological Aerated Filter. 80.

A. G. Tekerlekopoulou and D. V. Vayenas. 2007. Ammonia, Iron and Manganese Removal from Potable Water Using Trickling Filters. Desalination. 210(1-3): 225-235.

H. Hasan, S. Abdullah, S. Kamarudin, and N. Kofli. 2009. A Review on the Design Criteria of Biological Aerated Filter for COD, Ammonia and Manganese Removal in Drinking Water Treatment. Inst. Eng. 70(4): 25-33.

B. K. Pramanik, S. Fatihah, Z. Shahrom, and E. Ahmed. 2012. Biological Aerated Filters (Bafs) For Carbon And Nitrogen Removal: A Review. J. Eng. Sci. Technol. 7(4): 428-446.

I. Bradley, A. Straub, P. Maraccini, S. Markazi, And T. H. Nguyen. 2011. Iron Oxide Amended Biosand Filters For Virus Removal. Water Res. 45(15): 4501-10.

H. Khdhiri, O. Potier, And J. Leclerc. 2014. Sciencedirect Aeration Efficiency Over Stepped Cascades : Better Predictions From Flow Regimes. 5: 194-202.

A. Baylar, M. Unsal, And F. Ozkan. 2009. Hydraulic Structures In Water Aeration Processes. Water, Air, Soil Pollut. 210(1–4): 87-100.

A. Baylar, D. Hanbay, And E. Ozpolat. 2007. Modeling Aeration Efficiency of Stepped Cascades by Using ANFIS. CLEAN – Soil, Air, Water. 35(2): 186-192.

S. Kucukali And S. Cokgor. 2009. Energy Concept For Predicting Hydraulic Jump Aeration Efficiency. J. Environ. Eng. © ASCE /, No. February. 105-108.

A. Kumar, S. Moulick, B. K. Singh, And B. C. Mal. 2013. Aquacultural Engineering Design Characteristics Of Pooled Circular Stepped Cascade Aeration System. Sciverse Sci. 56: 51-58.

M. Pfister And W. H. Hager. 2011. International Journal Of Multiphase Flow Self-Entrainment of Air on Stepped Spillways. 37: 99-107.

M. Takahashi, C. A. Gonzalez, And H. Chanson. 2006. Self-Aeration and Turbulence in a Stepped Channel : Influence of Cavity Surface Roughness. 32: 1370-1385.

C. S. Thakre And M. N. Hedaoo. 2000. Rational Approach For Design Of Cascade Aerator. 248-250.

B. Rinnhofer and M. D. Smith. 2011. An Analysis of Cascade-Aerated Facultative Waste Stabilisation Ponds In The United Kingdom. Water Environ. J. 25(2): 290-295.

P. García-García, F. N. Arroyo-López, And F. Rodríguez-Gómez. 2014. Partial Purification Of Iron Solutions From Ripe Table Olive Processing Using Ozone and Electro-Coagulation. Sep. Purif. Technol. 133: 227-235.

Winda Kartina Sari Dan Nieke Karnaningroem. 2002. Study Of Removal Iron (Fe) And Manganese (Mn) Using Cascade Aerator And Rapid Sand Filter For Dug Wells Water. Jurusan Teknik Lingkungan, Kampus ITS Sukolilo Surabaya. Email: Saya_Winda@Yahoo.Co.Id,

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Published

2015-06-25

How to Cite

A REVIEW OF REMOVAL IRON AND MANGANESE BY USING CASCADE AERATION SYSTEMS. (2015). Jurnal Teknologi, 74(11). https://doi.org/10.11113/jt.v74.4875