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Scientific paper ID 2770 : 2026/1
ELECTRIC CONSTRUCTION MACHINES – TECHNICAL AND COMPARATIVE ANALYSIS WITH INTERNAL COMBUSTION ENGINE MACHINE
Boris Tanev Over the past two decades, the construction sector has faced increasing pressure to reduce harmful emissions, noise pollution, and operational costs, while simultaneously maintaining or enhancing the productivity of the equipment in use. These ments stem both from increasingly stringent environmental regulations (EU Stage V, EPA Tier 4 Final) and from the economic necessity to optimize costs over the entire life cycle of construction machinery [1, 2].
In this context, electric construction machines have established themselves as a viable and promising alternative to traditional internal combustion engine (ICE) machines. The development of electric drive systems, power electronics, and high-energy-density batteries has created conditions for the deployment of electric machines not only in the compact class (mini loaders, mini excavators, lifting equipment) but progressively also in the medium and heavy construction machinery segments [3, 4]. This article aims to examine the main technical characteristics of electric construction machines, conduct a comparative analysis with ICE machines, and evaluate their economic, operational, and environmental advantages. The analysis focuses on the practical application of electric machines in modern construction processes and their role in the sector’s future development. електрически строителни машини двигатели с вътрешно горене електрическо задвижване акумулаторни батерии енергийна ефективност емисии експлоатационни разходи устойчиво строителствоelectric construction machines internal combustion engines electriBoris Tanev BIBLIOGRAPHY [1] European Commission. EU Stage V Emission Standards for Non-Road Mobile Machinery. Brussels, 2019. [2] United States Environmental Protection Agency (EPA). Tier 4 Emission Standards. Washington, 2020. [3] Volvo Construction Equipment. Electric Construction Equipment – Technology and Applications. Technical Report, 2021. [4] Caterpillar Inc. Electrification in Construction Machinery. White Paper, 2022. [5] Hitachi Construction Machinery. Total Cost of Ownership Analysis for Electric Equipment. Technical Bulletin, 2021. [6] Larminie, J., Lowry, J. Electric Vehicle Technology Explained. Wiley, 2012. [7] Heywood, J. B. Internal Combustion Engine Fundamentals. McGraw-Hill, 2018. [8] European Environment Agency. Emissions from Non-Road Mobile Machinery. Report No. 11/2020. [9] IEA. The Role of Electrification in Heavy-Duty and Off-Road Vehicles. International Energy Agency, 2022. [10] ISO 6395:2008. Earth-moving machinery – Determination of sound power level. International Organization for Standardization. [11] Victor Kochergin, Andrey Abramov, Evgeniy Zinchenko — Comparison of the Overall Energy Efficiency for Internal Combustion Engine Vehicles and Electric Vehicles, Global Journal of Flexible Systems Management, 2023. [12] Dudley, D. W. Electric Vehicle Technology Explained - Izdatel: Wiley ,Godina: 2012 ISBN: 978-0-470-97490-9 ( [12] Dudley, D. W. Electric Vehicle Technology Explained - Издател: Wiley ,Година: 2012 ISBN: 978-0-470-97490-9 ) |