ADSORPTION OF NICKEL IN NICKEL SULPHATE SOLUTION (NISO4) BY LAPINDO MUD

Khalimatus Sa'diyah, Muchamad Syarwani, Sigit Hadiantoro

Abstract

This research has been carried out to produce adsorbent from Lapindo mud through various activation process, to adsorb nickel from nickel sulfate solution. Several investigations were performed in this research such as characterization of Lapindo mud before and after activation, effect of physical, chemical and chemico-physical activation to Si/Al ratio and determine the most effective method to produce adsorbent with high adsorption rate. Lapindo mud in this research was prepared through several methods such as without activation, calcination at 500 °C for 3 hours, chemical activation with 6 N HCl under reflux for 6 hours, chemical activation with 6 N NaOH under reflux for 6 hours, chemical activation with 6 N HCl under reflux followed by calcination process and the last treatment is chemical activation with 6 N NaOH under reflux followed by calcination process. The object of this research is the Lapindo mud adsorbent ability to adsorb Ni from NiSO4 solution. While activation methods and nickel concentration in this become independent variable. The reduction of nickel concentration efficiency is determined by the nickel concentration before and after adsorption process. The Si/Al ratio of Lapindo mud before activation process was 3.01 and it increase as the mud is activated. The highest Si/Al ratio was found at activation using HCl which is 7.85. Chemical activation using NaOH was found to be the best method to create the adsorbent with adsorption capacity 98.3%.

Keywords

Adsorbent, Lapindo mud, Adsorbent activation

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References

Ackley, M.W., Rege, S.U., Saxena, H. 2003. Application of Natural Zeolite in the Purification and Separation of Gases. Juornal Microporous and Mesoporous Materials. 61: 25-42.

Boveri, M., Ma´rquez-A´lvarez, C., Laborde,M.A. and Sastre, E. 2006. Steam and Acid Dealumination of Mordenite Characteri-zation and Influence on the Catalytic Performance in Linear Alkylbenzene. Catalysis Today. 144(2-3): 217-225.

Chung, K.H. 2007. Dealumination of mordenites withacetic acidandtheir Catalytic activity in the alkylation of cumene. Microporous and Mesoporous Materials. 111(1-3): 544 - 550.

Gustian, I., Suharto. 2005. Studi Penurunan Salinitas Air dengan Menggunakan Zeolit Alam yang Berasal dari Bengkulu. Jurnal Gradien. 1(1): 38-42.

Jozefaciuk, G., Bowanko, G. 2002. Effect of Acid Alkali Treatments on Surface Areas and Adsorption Energies of Selected Minerals. Jurnal Clays and Clay Minerals. 50 (6): 771-783.

Juniawan, A. Rumhayati, B., Ismuyanto, B. 2013. Characteristic of Lapindo Mud And The Fluctuation of Lead And Copper In Porong And Aloo Rivers. Jurnal Sains dan Terapan Kimia. 7(1): 50-59.

Levine, I. N. 2002. McGraw Hill (6th Ed).Physical Chemistry. New York.

Putra, A., Rachmat T., Mohammad M.K. 2013. Optimasi Ekstraksi Silica dan Alumina Dari Lumpur Sidoarjo. Malang: Fakultas Matematika Dan Ilmu Pengetahuan Alam Universitas Brawijaya.

Udyani, K., Wulandari, Y. 2014. Aktivasi Zeolit Alam untuk Peningkatan Kemampuan sebagai Adsorben pada Pemurnian Biodiesel. Institut Teknologi Adhi Tama Surabaya : Seminar Nasional Sains dan Teknologi Terapan II 2014, ISBN:978-602-98569-1-0.

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