Jurnal Penelitian Pendidikan IPA (JPPIPA)
Vol 10 No 10 (2024): October

Fabrication of Aluminium Matrix Composite Powder Reinforced with Silicon Dioxide Tailings for Non-Asbestos Brake Pads (NOB)

Sukanto Sukanto (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Ilham Ary Wahyudie (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Erwanto Erwanto (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Yudi Oktriadi (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Rodika Rodika (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Ricky Irwansyah (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Husman Husman (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Devrin Dwiki Saputra (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)
Haradat Tahrir Algaza (Department of Mechanical Enginering, Bangka Belitung State Manufacturing Polyteknic)



Article Info

Publish Date
30 Oct 2024

Abstract

Tin mining tailings consist of 80-90% sand and the rest mud.  The high levels of Silicon Dioxide (SiO2) in these tailings are hard and can be used as an added material in the manufacture of composites.  This research aims to study the physical and mechanical properties of metal matrix composites reinforced with SiO2 powder processed by powder metallurgy, as an effort to provide a replacement material for Non-Asbestos (NOB) motorbike brake linings.  The impact of hot compaction pressure in the form of two pressing directions, including 4600, 4500 and 4400 Psi, with a pressing hold of 15 minutes and sintering which includes 30, 20 and 10 minutes, at a temperature of 600 ºC was studied for its effect on hardness and density.  Mechanical blending was used with a horizontal ball mill in the ratio of 10:1 at a speed of 90 rpm for 4 hours.  The test results showed that the greater the hot compaction pressure and the longer the sintering, the higher the hardness and density values.  The highest hardness reached 81.7 HB and the highest density of 2.385 g/cm3 occurred at a bidirectional hot compaction pressure of 4600 Psi, with the lowest wear rate of 0.333 mm3/m. This occurs as a result of the increase in hot compaction has an impact on increasing the contact between powder particles resulting from mechanical alloying to be tighter as a result of which the cavity and porosity decrease

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Journal Info

Abbrev

jppipa

Publisher

Subject

Agriculture, Biological Sciences & Forestry Biochemistry, Genetics & Molecular Biology Chemical Engineering, Chemistry & Bioengineering Chemistry Education Materials Science & Nanotechnology Physics

Description

Science Educational Research Journal is international open access, published by Science Master Program of Science Education Graduate Program University of Mataram, contains scientific articles both in the form of research results and literature review that includes science, technology and teaching ...