VOLUME 18 (Supplement)

PSL%202021 vol14-no01-p12-28-Mikita%20and%20Padlan

SciEnggJ 18 (Supplement) 299-310
available online: 22 August 2025
DOI: https://doi.org/10.54645/202518SupVPE-57

*Corresponding author
Email Address: nandiyanto@upi.edu
Date received: 10 September 2024
Date revised: 11 November 2024
Date accepted: 30 December 2024 

ARTICLE

Exploring biomass-based brake pads from various construction wastes in microparticle sizes: Advancing environmentally friendly solutions and student entrepreneurship for sustainable development goals (SDGs)

Senny Luckyardi1, Muhamad Fahrezi1, Eddy Soeryanto Soegoto1, Brandon Nathanael Meliala1, Fadhil Fadhilah Ilham1, Risti Ragadhita2, and Asep Bayu Dani Nandiyanto*2

1Universitas Komputer Indonesia, Bandung, Indonesia
2Universitas Pendidikan Indonesia, Bandung, Indonesia

KEYWORDS: Brake pad, Entrepreneurship, Green innovation, Microparticle, Sustainable development goals

This study analyzed the effectiveness of brake pads made from biomass materials, from building construction waste, which was done to find alternative brake pads that are environmentally friendly. This article also examineds the development of entrepreneurship to support sustainable development goals (SDGs). The methods included experiments, verification, and descriptive analysis. We utilized Borneo sawdust, mahogany, and bamboo as biomass materials for making brake pads. The results indicated the prospective construction waste materials as raw materials for brake pad production, assisting the SDGs by providing ecologically friendly solutions and lowering the amount of trash generated during construction. Mahogany wood dust biomass with sizes of 4 µm was the most effective material composition to be used as an environmentally friendly brake pad, compared to Borneo wood dust and bamboo. Mahogany had greater durability and friction qualities. The results also showed the importance of this study for government, business, and academic institutions to work together to foster student entrepreneurship and the growth of sustainable innovation, helping achieve the SDGs.

Further, when the samples were compared with pure LLDPE and Polystyrene, there was no C=C bond. This pyrolysis process showed two might reactions: the end chain cracking and random cracking. This study brings ideas in the pyrolysis of plastic wastes, supporting current issues in the sustainable development goals (SDGs).

© 2025 SciEnggJ
Philippine-American Academy of Science and Engineering