PENGARUH PENCAMPURAN DAN RASIO PREKURSOR/DOPAN DALAM PEMBUATAN LAPISAN TIPIS FLUORINE DOPED TIN OXIDE (FTO) BERBASIS TIMAH (II) KLORIDA[The Effect of Mixing Condition and Dopant/Precursor Ratio in Fabrication of Fluorine Doped Tin Oxide (FTO) Thin Film Based on Tin (II) Chloride]

Latifa Hanum Lalasari

Abstract

Flourine-doped tin oxide (FTO) merupakan salah satu oksida yang umum digunakan dalam pelapisan pada kaca yang diberi perlakuan tertentu agar dapat menghantarkan listrik. FTO ini diharapkan dapat menggantikan fungsi indium tin oxide (ITO) yang  bahan bakunya sangat mahal dan tersedia dalam jumlah yang terbatas. Percobaan pendahuluan tentang pembuatan lapisan tipis F-SnO2 dilakukan menggunakan kombinasi metode sol gel dan dip coating. Percobaan ini menggunakan bahan baku timah (II) klorida hidrat (SnCl2.2H2O) sebagai prekursor dan ammonium florida (NH4F) sebagai doping. Hasil percobaan menunjukkan bahwa lamanya waktu pencampuran antar prekursor dan doping tidak begitu  mempengaruhi kestabilan larutan. Faktor yang signifikan mempengaruhi adalah kondisi pencampuran antara prekursor dan doping. yang terkontrol. Lapisan tipis SnO2 yang dihasilkan dalam percobaan ini mempunyai morfologi heksagonal tidak teratur dan fasa Sn4OF6.

 

Abstract

Fluorine-doped tin oxide (FTO) is an oxide that is commonly used in the coating on the glass treated a
particular treatment in order to be able to conduct electricity. FTO is expected to replace indium tin oxide
(ITO) whose raw materials are very expensive and available in limited quantities. Preliminary experiments
on the manufacture of F-SnO2 thin film done with using combinations of sol gel method and dip coating.
This experiment used the raw material of tin (II) chloride hydrate (SnCl2.2H2O) as precursors and ammonium
fluoride (NH4F) as doping. The results showed that the processing time between the mixing of precursors and
doping was not so affect the stability of the solution. The significant factor affecting was the concentration
ratio of the dopant/precursor and the conditions of mixing between the precursors and doping. The
concentration ratio of the dopant/precursors of 10% produced the most stable conductive solution
(US-1-½-½) with a thin layer of FTO has generated more regular hexagonal morphology, uniform and phase
of Sn4OF6.


Keywords

Flourine-doped tin oxide; Timah (II) klorida hidrat; Ammonium fluorida; Sol gel; Dip coating; Flourine-doped tin oxide; Tin (II) chloride hydrate; Ammonium fluorida; Sol gel; Dip coating

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