DAFTAR PUSTAKA. Agung. (2004). Pengaruh Korosivitas Lingkungan Atmosferik. seminar Korosi, hal 2-9.

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1 44 DAFTAR PUSTAKA Agung. (2004). Pengaruh Korosivitas Lingkungan Atmosferik. seminar Korosi, hal 2-9. Azar, V. (2010). The Effect Of Shot Peening on FatiGue And Corrotion Behavior Of 316L Stainless Steel in Ringer's Solution. Departement Of Material Science And Engineering, Shiraz University, Shiraz, Iran. Bandriyana, D. H. (2014). Effect of Copper Addition on High Temperature Oxidation of Zirconium Alloy ZrNbMoGe for Advanced Reactor Fuel Cladding Material, adv. Mat. Research,vol Defrancq, J. (2013). Corrotion Of 316 L Stainless Steel In Seawater. Folkhard, E. (New York 1984). Welding Metallurgy of Stainless steels. Springer Verlag/Wien. Graedel T.E., L. C. (2001.). Scenario's for Atmospheric corrosion in the 21 Century. THe Electochemical Society., 1(mei 2006). INCO. (1963). Corrotion Resitence Of The Austenitic Chromium -Nikel Stainless Stell In Chemical Environments. Ornelasari, R. (2015). Analisa laju Korosi Pada Stainless Steel 304 menggunakan Metode ASTM G31-72 pada Media Air Nira Aren. JTM Volume 01 nomor 1 Tahun 2015 Parikin, A. F. (2011). Neutron diffraction technique on the structural identification of ZrNbMoGe alloy, Proceedings of The International Conference on Materials Science and Technology Parikin, B. A. (2013). Effects of adding Cu element on the crystal stucture of ZrNbMoGe alloys, Conference of Nuclear Technology,Center for Technology of accelerator and Material Process Purwanto, P. (2010). Pengembangan Instrumen Pengkarakterisasi Sensor Elektrokimia Menggunakan Metode Voltametri Siklik. Jurnal Ilmu Pengetahuan Dan Teknologi Telaah Volume 28, November Raharjo, R. (2015). Tingkat Kekerasan Permukaan Stainless Steel 316L Akibat Tekanan Steelballpeening. Proceening Seminar Nasional Tahunan Teknik Mesin XIV(SNTTM XIV). Seitovirta, M. (2013). Handbool Of Stainless Steel (Outokumpu) Steel, A. (2007). 316/316L Stainless Steel Data Sheet.

2 45 Suhartanti, D. (2005.). Laju Korosi Baja di Kawasan PLTP Kamojang. Seminar Nasional MIPA.Universitas Indonesia Depok. Sujatno., A. (2015). STUDI SCANNING ELECTRON MICROSCOPY (SEM) UNTUK KARAKTERISASI PROSES OXIDASI PADUAN ZIRKONIUM. JUrnal Forum Nuklir (JFN), Volume 9, nomor 2 november Sumarji. (2012). Evaluasi Korosi Baja karbon Rendah ASTM A36 Pada Lingkungan Atmosferik di kabupaten Jember. sumarji jurnal rotor Handbook volume 5 nomor 1

3 46 LAMPIRAN 1.1 Perendaman 1 hari Konsentrasi 0.1 M T = 1 Hari x 24 jam = 24 jam ƩΔW = gram D = 7.99gr/cm 3 (ASTM G-31-72,2004) Dari data di atas maka besarnya laju korosi (CR) dapat di hitung sebagai berikut : = 1,41844 x 10-7 mpy T = 1 Hari x 24 jam = 24 jam ƩΔW = gram D = 7.99gr/cm 3 (ASTM G-31-72,2004) Dari data di atas maka besarnya laju korosi ( CR) dapat di hitung sebagai berikut :

4 47 = 1, x 10-7 mpy T = 1 Hari x 24 jam = 24 jam ƩΔW = gram = 2, x 10-7 mpy 1.2 Perendaman 3 hari Konsentrasi 0.1 M ƩΔW = gram

5 48 = 1, x 10-7 mpy ƩΔW = gram = 1, x 10-7 mpy ƩΔW = gram

6 49 = 9, x 10-8 mpy 1.3 Perendaman 5 hari konsentrasi 0.1 M ƩΔW = gram = 3, x 10-7 mpy ƩΔW = gram

7 50 = 3, x 10-6 mpy ƩΔW = gram = 3,06383 x 10-7 mpy 2.1 Perendaman 1 hari konsentrasi 0.3 M T = 1 Hari x 24 jam = 24 jam ƩΔW = gram

8 51 = 2, x 10-7 mpy iperoleh data sebagai berikut : T = 1 Hari x 24 jam = 24 jam ƩΔW = gram D = 2, x 10-7 mpy T = 1 Hari x 24 jam = 24 jam ƩΔW = gram

9 52 = 1, x 10-7 mpy 2.2 Perendaman 3 Hari Konsentrasi 0.3 M ƩΔW = gram = 1, x 10-7 mpy ƩΔW = gram

10 53 = 9, x 10-8 mpy ƩΔW = gram = 1, x 10-7 mpy 2.3 Perendaman 5 hari Konsentrasi 0.3 M ƩΔW = gram

11 54 = 1, x 10-7 mpy ƩΔW = gram = 3,29078 x 10-7 mpy ƩΔW = gram

12 55 = 3, x 10-7 mpy 3.1 Perendaman 1 hari Konsentrasi 0.5 M T = 1 Hari x 24 jam = 24 jam ƩΔW = gram = 3, x 10-7 mpy T = 1 Hari x 24 jam = 24 jam ƩΔW = gram

13 56 = 2, x 10-7 mpy T = 1 Hari x 24 jam = 24 jam ƩΔW = gram = 2, x 10-7 mpy 3.1 Perendaman 3 Hari Konsentrasi 0,5 M ƩΔW = gram

14 57 = 3, x 10-7 mpy ƩΔW = gram = 3, x 10-7 mpy ƩΔW = gram

15 58 = (5,44 : 100) = 3, x 10-7 mpy 3.3 Perendaman 5 Hari konsentrasi 0.5 M ƩΔW = gram K =5,44 x 10-2 = 8, x 10-7 mpy ƩΔW = gram

16 59 = 1, x 10-6 mpy ƩΔW = gram = 8, x 10-7 mpy