Effect of Phenolic Resin on Density, Porosity, Hardness, Thermal Stability, and Friction Performance as A Binder in Non-Asbestos Organic Brake Pad

Nawangsari, Putri and Jamasri, undefined and Rochardjo, Heru S.B. (2019) Effect of Phenolic Resin on Density, Porosity, Hardness, Thermal Stability, and Friction Performance as A Binder in Non-Asbestos Organic Brake Pad. In: International Conference on Design and Application of Engineering Materials (IC-DAEM) in conjunction with Seminar Nasional Metalurgi dan Material XI (SENAMM) 6–7 September 2018, Bandung, Indonesia.

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Abstract

Phenolic resin is the most common resin binder used in brake pad materials. Selection of the relative amount of phenolic resin is an important to maintain structurally intact with the other ingredients of brake pad composite. In this experimental study, the effects of phenolic resin as a binder in non-asbestos organic brake pad was investigated. The brake pad composite was made using a powder metallurgy technique. Four formulations with different volume fractions 10, 15, 20, and 25 were selected. Parameters applied were 47 MPa compaction pressure, 150 °C molding temperature, and 130 °C post curing temperature with 6 hours holding time. The properties of brake pad composite were examined density, porosity, hardness, thermal stability, and friction performance (refers to SNI 09-0143-1987). The results show the increase of phenolic resin content can decrease the density, porosity, thermal stability, friction coefficient, and volume wear rate by 1, 16.79, 2.39, 42.5, 24.16, respectively. However, the hardness increases by 19.29 . This investigation also recommends not to select 10 and 15 volume fraction of phenolic resin due to lower resistance to mechanical stresses although the thermal stability is better than the other studied composites. © 2019 Published under licence by IOP Publishing Ltd.

Item Type: Conference or Workshop Item (Paper)
Additional Information: Cited by: 18; All Open Access; Gold Open Access
Uncontrolled Keywords: Asbestos; Density (specific gravity); Friction; Friction materials; Hardness; Integrated circuits; Phenolic resins; Porosity; Powder metallurgy; Resins; Stability; Thermodynamic stability; Volume fraction; Compaction pressure; Friction coefficients; Friction performance; Hardness increase; Mechanical stress; Molding temperature; Powder metallurgy techniques; Resin binders; Brakes
Subjects: T Technology > TJ Mechanical engineering and machinery
Divisions: Faculty of Engineering > Mechanical and Industrial Engineering Department
Depositing User: Sri JUNANDI
Date Deposited: 03 Mar 2026 02:39
Last Modified: 03 Mar 2026 02:39
URI: https://ir.lib.ugm.ac.id/id/eprint/25161

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