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Performance evaluation of metakaolin as low cost adsorbent for manganese removal in anoxic groundwater

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
The recent climate condition and pollution problem related to surface water have led to water scarcity in Malaysia. Huge amount of groundwater has been identified as viable source for drinking water. This paper was aimed to investigate groundwater’s quality at specific location and metakaolin’s potential in the groundwater treatment in the removal of manganese. Groundwater purging was determined to be sufficient at 120 minutes where all three parameters (pH, dissolved oxygen and conductivity) were stabilized. The groundwater studied is classified as both anoxic and reductive due the low dissolved oxygen value. It also can be categorized as brackish due to high value of conductivity and total dissolved solid. Manganese content in groundwater was determined as higher than of that permissible limit for raw water and drinking water which makes it unsuitable for them not suitable for consumption and cleaning purpose. Average manganese concentration in samples was 444.0 ppb where the concentrations of manganese ranged from 229.4 ppb to 760.3 ppb. Manganese developed is not that a strong positive correlation against iron concentration, total dissolved solids and conductivity; whereas has a moderate negative correlation against dissolved oxygen. The capability adsorption of manganese by metakaolin was assessed via batch method which indicated optimum dosage and contact time was 14g that removed average 30.2% and contact time optimum at 120 minutes which removed 33.2% manganese from the sample.
Rocznik
Strony
107--122
Opis fizyczny
Bibliogr. 59 poz., tab., wykr.
Twórcy
  • Universiti Sains Malaysia School of Civil Engineering, Nibong Tebal, Pulau Pinang, Malaysia
  • Universiti Sains Malaysia School of Civil Engineering, Nibong Tebal, Pulau Pinang, Malaysia
  • Universiti Sains Malaysia, Cluster of Solid Waste Management, Pulau Pinang
  • Universiti Sains Malaysia, Cluster of Water Security, Nibong Tebal, Pulau Pinang
  • Universiti Sains Malaysia, School of Industrial Technology, Pulau Pinang, Malaysia
  • Universiti Sains Malaysia, Cluster of Solid Waste Management, Pulau Pinang
  • Universiti Sains Malaysia School of Civil Engineering, Nibong Tebal, Pulau Pinang, Malaysia
  • Universiti Sains Malaysia, Cluster of Solid Waste Management, Pulau Pinang
Bibliografia
  • 1. Abdullah, NA, Jusoh, J and Kassim, AR 2015. National Reports – Malaysia. In: Tsegai. D, Liebe, J and Ardakanian, R. (ed). Capacity Development to Support National Drought Management Policies for Asia Pacific Countries. UN Water, 98-104.
  • 2. Abdullah, S, Chand, F, Zakaria, S and Loganatham, P 2016. Transforming the Water Sector: National Integrated Water Resources Management Plan (Strategies and Roadmap) Volume 1. Academy of Science Malaysia.
  • 3. Tiwari, K, Goyal, R and Sarkar, A 2017. GIS-Based Spatial distribution of Groundwater Quality and Regional Suitability Evaluation for Drinking Water. Environmental Processes, 4(3), 645-662.
  • 4. Flindt, JL, Villholth, KG and Refsgaard, JC 2016. Groundwater management and protection in Denmark: a review of pre-conditions, advances and challenges. International Journal of Water Resources Development 33(6), 868-889.
  • 5. Kim, Y, Han, M, Kabubi, J, Sohn, HG and Nguyen, DC 2016. Communitybased rainwater harvesting (CB-RWH) to supply drinking water in developing countries: Lessons learned from case studies in Africa and Asia. Water Science and Technology: Water Supply, 16(4), 1110-1121.
  • 6. Belmeziti, A, Coutard, O and De Gouvello, B 2014. How much drinking water can be saved by using rainwater harvesting on a large urban area? Application to Paris agglomeration. Water Science and Technology, 70(11), 1782–1788.
  • 7. Siwar, C and Ahmed, F 2014. Concepts, dimensions and elements of water security. Pakistan Journal of Nutrition, 13(5), 281–286.
  • 8. Chan, NW, Abdullah, AL, Ibrahim, AL and Ghazali, S 2003. River pollution and restoration towards sustainable water resources management in Malaysia. Society, Space and Environment in a Globalized World: Prospects and Challenges, 208–219.
  • 9. Issa, AKM, Arof, ZM, Yahaya, AN, Yusof, KW, Ibrahim, NM and Salleh, MS 2012. Using the Arau Model to Locate Groundwater Potential Zones in the Northern Regions of Malaysia. Jurnal Intelek, UiTM Perlis, 7(1), 15–21.
  • 10. Suratman, S. 2004. 6.6. IWRM: Managing the Groundwater Component in Malaysia. Malaysia Water Forum, Kuala Lumpur, Malaysia, 19-22.
  • 11. Abdullah, S, Chand, F, Zakaria, S, Loganathan, P 2016. Transforming the water sector: National Integrated Water Resources Management Plan (Strategies and Roadmap). Malaysia: Academy of Science Malaysia.
  • 12. Kura, NU, Ramli, MF, Sulaiman, WN, A, Ibrahim, S and Aris, AZ 2018. An overview of groundwater chemistry studies in Malaysia. Environmental Science and Pollution Research, 28(8), 7231-7249.
  • 13. Abidin, RZ, Sulaiman, MS and Yusoff, N 2017. Erosion risk assessment: A case study of the Langat River bank in Malaysia. International Soil and Water Conservation Research, 5(1), 26–35.
  • 14. Qi, S, Hou, D and Luo, J 2017. Optimization of groundwater sampling approach under various hydrogeological conditions using a numerical simulation model. Journal of Hydrology, 552, 505–515.
  • 15. Barcelona, MJ, Varljen, MD, Puls, RW and Kaminski, D 2005. Ground water purging and sampling methods: History vs. hysteria. Ground Water Monitoring & Remediation, 25(1), 52–62.
  • 16. Sundaram, B, Feitz, J, Caritat, DP, Plazinska, A, Brodie, SR, Coram, J and Ransley, T 2010. Groundwater Sampling and Analysis-A Field Guide. Goescience Australia.
  • 17. Lin, CY, Abdullah, MH, Praveena, SM, Yahaya, AHB and Musta, B 2012. Delineation of temporal variability and governing factors influencing the spatial variability of shallow groundwater chemistry in a tropical sedimentary island. Journal of Hydrology, 432-433, 26-42.
  • 18. Metcalf, MJ and Robbins, GA 2013. Natural buffering of groundwater contaminants related to development in fractured rock. Groundwater Monitoring and Remediation, 33(4), 89–99.
  • 19. Grimmeisen, F, Zemann, M, Goeppert, N and Goldscheider, N 2016. Weekly variations of discharge and groundwater quality caused by intermittent water supply in an urbanized karst catchment. Journal of Hydrology, 537, 157–170.
  • 20. Shakoor, MB, Niazi, NK, Bibi, I, Rahman, MM, Naidu, R and Shahid, M 2016. Speciation and health risk assessment of arsenic in groundwater of Punjab , Pakistan. Arsenic Research and Global Sustainability, (3), 463–464.
  • 21. Harter, T, Watanabe, N, Li, X, Atwill, ER and Samuels, W 2014. Microbial groundwater sampling protocol for fecal-rich environments. Groundwater, 52, 126–136.
  • 22. Lin, CY, Abdullah, MH, Musta, B, Aris, AZ and Praveena, SM 2010. Assessment of selected chemical and microbial parameters in groundwater of Pulau Tiga, Sabah, Malaysia. Sains Malaysiana, 39(3), 337–345.
  • 23. Zhang, Q, Zhang, S, Lyu, C, Yang, X, Liu, W and Su, X 2018. A costeffective catalytically adsorbent for in situ remediation of manganese contaminated groundwater. Water Science and Technology: Water Supply, 18(2), 504–514.
  • 24. Daniel, R and Kawasaki, N 2016. The Distribution of heavy metals and nutrients along Selangor River and its adjacent mining ponds, Malaysia. International Journal of Advances in Agricultural and Environmental Engineering, 3(2), 241–244.
  • 25. Gillispie et al 2016. Soil weathering as an engine for manganese contamination of well water. Environmental Science and Technology, 50(18), 9963–9971.
  • 26. O’Neal, SL and Zheng, W 2015. Manganese toxicity upon overexposure: A decade in review. Current Environmental Health Reports, 2(3), 315–328.
  • 27. WHO. 2017. Guidelines for Drinking-water Quality: Fourth Edition Incorporating the First Addendum. Geneva: World Health Organization; 2017.
  • 28. Oulhote et al 2014. Neurobehavioral function in school-age children exposed to manganese in drinking water. Environmental Health Perspectives, 122(12), 1343–1350.
  • 29. Spangler, AH and Spangler, JG 2009. Groundwater manganese and infant mortality rate by county in North Carolina: An ecological analysis. Ecohealth, 6(4), 596–600.
  • 30. Tobiason, JE, Bazilio, A, Goodwill, J, Mai, X and Nguyen, C 2016. Manganese removal from drinking water sources. Current Pollution Reports, 2(3), 168–177.
  • 31. Hassouna, ME, Shaban, M and Nassif, FM 2014. Removal of iron and manganese ions from groundwater using kaolin sub micro powder and its modified forms. International Journal of Bioassays, 3(07), 3137–3145.
  • 32. Biela, R and Kučera, T 2016. Efficacy of sorption materials for nickel, iron and manganese removal from water. Procedia Engineering, 162, 56–63.
  • 33. Akbar, NA, Abdul Aziz, H and Adlan, MN 2016. Potential of high quality limestine as adsorbent for iron and manganese removal in groundwater. Jurnal Teknologi, 2(78), 77–82.
  • 34. He, X, Yang, H and He, Y 2010. Treatment of mine water high in Fe and Mn by modified manganese sand. Mining Science and Technology, 20(4), 571–575.
  • 35. Yavuz, O, Altunkaynak, Y and Uzel, FG 2003. Removal of copper, nickel, cobalt and manganese from aqueous solution by kaolinite. Water Research, 37, 948–952.
  • 36. Ali, RM, Hamad, HA, Hussein, MM and Malash, GF 2016. Potential of using green adsorbent of heavy metal removal from aqueous solutions: Adsorption kinetics, isotherm, thermodynamic, mechanism and economic analysis. Ecological Engineering, 91, 317–332.
  • 37. Taffarel, SR and Rubio, J 2009. On the removal of Mn2+ ions by adsorption onto natural and activated Chilean zeolites. Minerals Engineering, 22(4), 336–343.
  • 38. Uddin, MK 2017. A review on the adsorption of heavy metals by clay minerals, with special focus on the past decade. Chemical Engineering Journal, 308, 438–462.
  • 39. Lawson et al 2013. Pond-derived organic carbon driving changes in arsenic hazard found in asian groundwaters. Environmental Science and Technology, 47(13), 7085–7094.
  • 40. Vail, J 2013. Operating Procedure Groundwater sampling. Science and Ecosystem Support Division. Georgia : U.S. Environmental Protection Agency.
  • 41. Driezum et al 2017. Does Pumping Volume Affect the Concentration of Micropollutants in Groundwater Samples? Groundwater Monitoring and Remediation, 1–7.
  • 42. Akbar, NA, Aziz, HA and Adlan, MN 2015. Iron and manganese removal from groundwater using high quality limestone. Applied Mechanics and Materials, 802, 460–465.
  • 43. McDonald, JP and Smith, RM 2009. Concentration profiles in screened wells under static and pumped conditions. Ground Water Monitoring and Remediation, 29(2), 78–86.
  • 44. Salem, MG, El-Awady, MH and Amin, E 2012. Enhanced removal of dissolved iron and manganese from nonconventional water resources in delta district, Egypt. Energy Procedia, 18, 983–993.
  • 45. Essandoh, HMK, Tizaoui, C, Mohamed, MHA, Amy, G and Brdjanovic, D. 2011. Soil aquifer treatment of artificial wastewater under saturated conditions. Water Research, 45(14), 4211–4226.
  • 46. Cipollina, A, Micale, G and Rizzuti, L 2009. Seawater desalination: conventional and renewable energy processes. Palermo: Springer Science & Business Media.
  • 47. Kato, M, Onuma, S, Kato, Y, Thang, ND, Yajima, I, Hoque, MZ and Shekhar, HU 2010. Toxic elements in well water from Malaysia. Toxicological & Environmental Chemistry, 92(9), 1609–1612.
  • 48. Isa, NM, Aris, AZ, Lim, WY, Sulaiman, WNAW and Praveena, SM 2014. Evaluation of heavy metal contamination in groundwater samples from Kapas Island, Terengganu, Malaysia. Arabian Journal of Geosciences, 7(3), 1087–1100.
  • 49. Gerke, TL, Little, BJ and Maynard, JB 2016. Manganese deposition in drinking water distribution systems. Science of the Total Environment, 541, 184–193.
  • 50. Kikuchi, T, Fujii, M, Terao, K, Jiwei, R, Lee, YP and Yoshimura, C 2017. Correlations between aromaticity of dissolved organic matter and trace metal concentrations in natural and effluent waters: A case study in the Sagami River Basin, Japan. Science of the Total Environment, 576, 36–45.
  • 51. Lee, YP, Fujii, M, Terao, K, Kikuchi, T and Yoshimura, C 2016. Effect of dissolved organic matter on Fe(II) oxidation in natural and engineered waters. Water Research, 103, 160–169.
  • 52. Molofsky et al 2018. Purging and other sampling variables affecting dissolved methane concentration in water supply wells. Science of the Total Environment, 618, 998–1007.
  • 53. Rakotondrabe et al 2018. Water quality assessment in the Bétaré-Oya gold mining area (East-Cameroon): Multivariate Statistical Analysis approach. Science of the Total Environment, 610–611, 831–844.
  • 54. Essomba, JS, Nsami, JN, Belibi, PDB, Tagne, G.M and Mbadcam, JK 2014. Adsorption of Cadmium ( II ) Ions from aqueous solution onto kaolinite and metakaolinite. Pure and Applied Chemical Sciences, 2(1), 11–30.
  • 55. Jiang, MQ, Jin, XY, Lu, XQ and Chen, ZL 2010. Adsorption of Pb(II), Cd(II), Ni(II) and Cu(II) onto natural kaolinite clay. Desalination, 252(1–3), 33–39.
  • 56. Ateia, M, Apul, OG, Shimizu, Y, Muflihah, A, Yoshimura, C and Karanfil, T 2017. Elucidating adsorptive fractions of natural organic matter on carbon nanotubes. Environmental Science & Technology, (51), 7101–7110.
  • 57. Sdiri, A and Higashi, T 2013. Simultaneous removal of heavy metals from aqueous solution by natural limestones. Applied Water Science, 3, 29–39.
  • 58. Motsi, T, Rowson, NA and Simmons, MJH 2009. Adsorption of heavy metals from acid mine drainage by natural zeolite. International Journal of Mineral Processing, 92(2009), 42-48.
  • 59. Bogusz, A, Oleszczuk, P and Dobrowolski, R (2015). Application of laboratory prepared and commercially available biochars to adsorption of cadmium, copper and zinc ions from water. Bioresource Technology, 196, 540–549.
Uwagi
PL
Opracowanie rekordu w ramach umowy 509/P-DUN/2018 ze środków MNiSW przeznaczonych na działalność upowszechniającą naukę (2019)
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-5ba7d587-0f63-43b2-8e6d-c8dc1d0f4957
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