LITHIUM ION VS. LEAD ACID STARTER BATTERY OF MOTORCYCLE: TECHNICAL ASSESSMENT AND ECONOMIC FEASIBILITY MODEL

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Published:

2026-07-29

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Abstract

Exposure to emissions from sealed lead-acid (SLA) starter batteries in internal combustion engine (ICE) motorcycles has been demonstrated to have serious impacts on human health and the environment. This has driven the transition to more environmentally friendly technologies. The objective of this study is to evaluate the technical feasibility, market share estimates, and economic viability of lithium starter batteries in Indonesia. The study employs System Dynamics and Probit analysis for the estimation of market potential and the economic feasibility. The findings indicate that LFP is technically more viable than NMC for replacing SLA in starter batteries applications. Investing in the LFP starter batteries business is economically viable. Price changes result in significant changes in the annual cash flow, IRR, NPV, and payback period. Furthermore, the model’s performance has been validated by experts and through statistical testing. Statistical test results showing a McFadden Pseudo R-squared score of 0.3049, indicating that the model’s performance is highly reliable. This study contributes to supporting businesses in the LFP starter batteries technology sector in commercializing their products, thereby helping to reduce lead emissions that are harmful to human health and the environment.

Keywords:

Starter Battery of Motorcycle Economic Feasibility Willingness to Buy System Dynamics Probit

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Author Biographies

Teguh Juang Sinaga, Universitas Sebelas Maret

Author Origin : Indonesia

Teguh Juang Sinaga is an engineer who graduated with a degree in Industrial Engineering from the Universitas Sumatera Utara and has experience working in logistics, warehousing, manufacturing, and coding training. He is currently pursuing a master’s and doctoral degree in Industrial Engineering at Universitas Sebelas Maret on a full scholarship from the Ministry of Higher Education, Science, and Technology under the Master’s to Doctoral Education Program for Outstanding Undergraduates (PMDSU). In addition to his practical experience, he has also authored several journal articles on supply chain, simulation, techno-economic analysis, warehousing, and product design. His research focuses on developing management system technologies that have a significant positive impact on the environmental ecosystem.

Prof. Wahyudi Sutopo, Universitas Sebelas Maret

Author Origin : Indonesia

Wahyudi Sutopo's educational background is the profession of engineer (Ir) from the professional engineering program
UNS in 2018; Doctor (Dr) in industrial engineering & management from Institut Teknologi Bandung in
2011; master of management (M.Si.) from Universitas Indonesia in 2004, and bachelor of industrial
engineering (S.T.) from Institut Teknologi Bandung in 1999. He is a member of the board of the industrial
engineering chapter - of the Institute of Indonesian Engineers (BKTI-PII) and has professional qualifications
as an Executive Professional Engineer (IPU) since 2022. His research interests include logistics & supply
chain engineering, economic engineering & cost analysis, and technology commercialization. He has
developed a research roadmap in the field of study "Industrial Engineering and Techno-Economics of
Energy Storage (ES) and Electric Vehicles (EV) Applications" as an effort to study the field of Industrial
Engineering, especially Supply Chain Engineering which is integrated with multi/interdisciplinary
approaches into the Technology Commercialization Process (see: https://youtu.be/xrGerbPWaxo).

Wahyudi Sutopo is a copyright holder/inventor for 16 IPRs; the author of 15 books, and 205 Scopusindexed
articles (H-index-15). He was involved in the commercialization of CEfEEST UNS research results
regarding energy storage technology and electric vehicle conversion through a start-up where he was
one of the founders, namely PT Batex Energi Mandiri (see https://batexindonesia.com/about/) and PT.
Ekolektrik Konversi Mandiri (see https://ekolektrik.com/). He has been honoured as Academy of IEOM
Fellows (2019); Distinguished Service Award (2021); and Distinguished Academic Leadership Award
(2023). He has special attention to improving the quality of industrial engineering education (teaching
& learning; assessment & evaluation; and accreditation & quality assurance). He also took the role of the
advancement of industrial engineering discipline for the betterment of humanity through IEOM Society
(https://ieomsociety.org/ieom/). He is the President of IEOM Indonesia Profesional Chapter (since 2020)
and Director of IEOM Asia Pacific Operations (since 2021). He is also a member of ISLI, IISE, and IEOM.

Roni Zakaria Raung, Universitas Sebelas Maret

Author Origin : Indonesia

Senior lecturer at UNS

Renny Rochani, Universitas Sebelas Maret

Author Origin : Indonesia

Professional Profile
Applied researcher with experience in low-carbon development, techno-economic analysis, and policy-oriented research including applied studies relevant to low-carbon industrial and energy systems. Currently involved in interdisciplinary projects related to energy transition, infrastructure decarbonization, and sustainable industrial systems. Experienced in translating technical and economic analysis into policy-relevant insights, with prior private-sector leadership experience supporting implementation-oriented research and multi-stakeholder coordination.
Education

Ph.D. in Education, University of Canberra (UC), Australia

M.T. in Industrial Engineering, Institut Teknologi Bandung (ITB), Indonesia

Bachelor of Food Technology, Institut Pertanian Bogor (IPB), Indonesia

Professional Engineer (Ir.), Universitas Sebelas Maret (UNS)
Areas of Expertise

Low-carbon infrastructure and industrial decarbonization

Techno-economic analysis for energy and industrial systems

Policy pathways for low-carbon development

Business models and governance for sustainable infrastructure

Stakeholder engagement and cross-sector coordination

Capacity building and applied policy research
Selected Research & Project Leadership (Recent and Relevant)

Investigator, Decarbonization Pathways of Indonesia Bus Public Transport Infrastructure (DiBi) – Indonesia–Australia collaboration focusing on e-bus transition pathways, capacity building, and policy learning.

Lead Researcher, Business Model Development for Mobile Battery Charging and Swapping Stations for electric vehicles in Indonesia (2022–2023).

Researcher, Readiness assessment and business model analysis for electric vehicle battery swapping standardization in Indonesia.

Contributor, MSME development and techno-economic studies related to energy transition and sustainable industry.

Rina Wiji Astuti, PT Batex Energi Mandiri

Author Origin : Indonesia

Owner and CEO of PT Batex Energi Mandiri

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How to Cite

Sinaga, T. J., Sutopo, P. W., Raung, R. Z., Renny Rochani, & Rina Wiji Astuti. (2026). LITHIUM ION VS. LEAD ACID STARTER BATTERY OF MOTORCYCLE: TECHNICAL ASSESSMENT AND ECONOMIC FEASIBILITY MODEL. Multidiciplinary Output Research For Actual and International Issue (MORFAI), 6(5), 6570–6585. Retrieved from https://radjapublika.com/index.php/MORFAI/article/view/5932

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