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Aldo Mahendra Putra
Institut Teknologi Sepuluh Nopember
Education Materials Science & Nanotechnology Physics

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Journal : Journal of Physics: Theories and Applications

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Fabrication of p-type (MCCO) thin film using DC magnetron sputtering as a preparator for thermoelectric module Elysa Nensy Irawan; Fahrur Aslami; Muhammad Matthew Janotama; Aldo Mahendra Putra; Melania Suweni Muntini; Somporn Thaowankaew; Wanatchaporn Namhongsa; Athorn Vora-Ud; Kunchit Singsoog; Tosawat Seetawan
Journal of Physics: Theories and Applications Vol 7, No 1 (2023): Journal of Physics: Theories and Applications
Publisher : Universitas Sebelas Maret

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.20961/jphystheor-appl.v7i1.66951

Abstract

Based on existing research, thermoelectric efficiency can be improved through material selection. In this study, the material used is CaCO₃ doped with Mn and Co₂O₃ to form CaCo3.5Mn0.5O9 material as a p-type thermoelectric material. The substrate used is glass. The stages in this research are material synthesis, sputtering process using DC Magnetron Sputtering machine to form thin films, and testing. The synthesis process includes grinding, calcination, and sintering. Grinding is done using a Ball Mill machine with a rotation speed of 250 rpm for 5 hours. Furthermore, the calcination step was carried out by heating the sample into a furnace at a temperature of 800°C for 10 hours. Then the sintering process was carried out at a temperature of 850°C for 12 hours. After the synthesis process is complete, enter the sputtering process using a DC Magnetron Sputtering machine for approximately 10 minutes. The gas used in this research is Argon (Ar). After the sputtering process was carried out, several tests appeared, such as the XRD test to determine the type of crystal, the ZEM-3 test to determine the Seebeck coefficient and resistivity, the thickness of the thin film formed, and the power factor test to determine the maximum voltage and power generated by the module formed. Several power factor test results were obtained, consisting of 107 μW/mK² at 100°C, 108 μW/mK² at 200°C, and 332 μW/mK² at 300°C and a thickness of 90.34 nm.
Co-Authors Athorn Vora-Ud Elysa Nensy Irawan Fahrur Aslami Kunchit Singsoog Muhammad Matthew Janotama Muthmainnah, Melania Suweni Muntini Somporn Thaowankaew Tosawat Seetawan Wanatchaporn Namhongsa