INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XI, November 2025
REVIEW OF LITERATURE
The existing literature on electric vehicles (EVs) highlights a multifaceted landscape shaped by technological,
economic, and behavioral factors. A recurring theme across several studies is the presence of adoption barriers,
especially in developing countries, where unclear policies, limited maintenance support, and socio-demographic
factors such as education and income play a key role in influencing consumer decisions. Goel et al. (2021) and
Rajper & Albrecht (2020) found that while vehicle pricing poses some challenge, policy clarity and support
infrastructure are more critical for adoption. Studies by Shetty et al. (2020) and Westin et al. (2018) emphasized
the influence of awareness, personal factors, and environmental beliefs on purchase behavior, showing that
education and income levels are positively correlated with EV interest and usage. Furthermore, market
segmentation strategies, as explored by Zarazua de Rubens (2019), revealed that price sensitivity and interest in
features like vehicle-to-grid technology are pivotal in identifying near-term adopters.
Technological innovation, particularly in battery and energy management systems, is another significant focus
in EV research. Hossain Lipu et al. (2021) and Lu et al. (2013) highlighted the role of intelligent battery
management systems (BMS) in ensuring safety, energy efficiency, and overall performance, while Sun et al.
(2019) expanded on emerging EV technologies like advanced motors and charging infrastructure. These
advancements are crucial for addressing issues like overcharging, overheating, and limited range. In parallel,
environmental benefits and future market growth also drive interest in EVs. Rietmann et al. (2020) forecast that
EVs could make up 30% of the global fleet by 2032, leading to significant CO₂ reduction—provided there is
sustained investment in renewable energy infrastructure. Collectively, the literature underscores the need for
integrated efforts across technology, policy, and consumer education to foster widespread EV adoption.
The environmental, economic, and technological dimensions of electric vehicle (EV) adoption have been widely
studied, with particular attention to electric scooters as a sustainable urban mobility solution. Rietmann et al.
(2020) forecast that EVs could account for 30% of global passenger vehicles by 2032, significantly lowering
CO₂ emissions if supported by renewable energy infrastructure. In developing regions, as noted by Liao et al.
(2017) and Rajper & Albrecht (2020), high initial costs, limited infrastructure, and policy ambiguity remain
major adoption barriers. Studies highlight that increasing environmental awareness, improving affordability, and
aligning government policies with consumer interests are vital to accelerating EV integration. Research by
Zarazua de Rubens (2019) reinforces the need for well-designed public awareness campaigns and targeted
incentives that adapt to both economic realities and technological advancements.
The evolution of electric scooters reflects this growing interest in cleaner transportation alternatives. From their
early 20th-century inception to the recent boom driven by lithium-ion battery technology, electric scooters have
transformed significantly. The 2010s and 2020s have seen rapid innovation—companies like Xiaomi, Gogoro,
and Ather Energy have redefined design, range, and user experience. The rise of shared scooter services such as
Lime and Bird has made them a fixture in urban landscapes, addressing last-mile connectivity while reducing
traffic congestion. Technological advancements, including brushless DC motors, GPS, and smart features,
continue to enhance efficiency and performance. Alongside government incentives and increasing public
interest, electric scooters are now viewed not only as practical and eco-friendly transport options but also as vital
components in the shift toward sustainable, connected cities.
Table No. 1
Factors Influencing Decision to Purchase an Electric Vehicle
Factors
Weighted Mean Score
Vehicle Range
Battery Life
4.2
4.36
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