Open Access Paper
26 September 2024 Electrifying the future: a comprehensive review of electric vehicles in transportation
Akhil Nigam, Somya Pakhi, Kritika ., Shubham ., Anurag Singh, Yeshika .
Author Affiliations +
Proceedings Volume 13279, Fifth International Conference on Green Energy, Environment, and Sustainable Development (GEESD 2024) ; 1327908 (2024) https://doi.org/10.1117/12.3041612
Event: Fifth International Conference on Green Energy, Environment, and Sustainable Development, 2024, Mianyang, China
Abstract
Electric vehicles have become now a prominent solution for problems related to climatic changing conditions and transportation energy security. This article provides an in-depth of review of current status of electric vehicles, exploring their technological advancements, advantages, challenges, and future prospects. Electric vehicles encompass a variety of different options like plug in vehicle, battery-based vehicle etc. which provide numerous solutions to reduce carbon gas emission. Analyzing fundamental research, industry developments and business plans, this review focuses on the vision of the evolution of electric vehicles to transform the economy and transition to long-distance, low-carbon transportation for the future.

1.

INTRODUCTION

The emergence of EVs presents a major milestone in pursuit of sustainable transportation solutions amidst growing concerns over climate change, air quality, and energy security. Electric vehicles signify shifting from conventional internal combustion engine vehicles, providing a cleaner & more efficient alternative powered by electricity. This introduction provides an overview of electric vehicles, tracing their evolution, examining their environmental impact, and highlighting their potential to revolutionize the automotive industry.

Electric vehicles have a rich history dating back to the early experiments of inventors and engineers in the late 19th century. However, it is in recent decades that EV technology has seen significant advancements, driven by concerns over fossil fuel dependence and environmental degradation. Today, electric vehicles encompass a diverse range of models, from BEVs powered by onboard batteries to PHEV type vehicles which combine electric propulsion with an internal combustion engine.

The environmental benefits of electric vehicles are undeniable, with zero tailpipe emissions providing to enhance air quality & reduced CO2 gas emissions. By shifting from gas and diesel type vehicles to electric alternatives, countries can make substantial progress towards their climate targets & reduce the harmful effects of air pollution on public health & environment.

Despite the promise of electric vehicles, challenges remain in their widespread adoption and integration into existing transportation infrastructure. Issues such as limited driving range, longer charging time & the availability of charging infrastructure pose obstacles to consumer acceptance and market penetration. Moreover, concerns over the environmental impact of battery formation & disposal raise questions about overall sustainability of electric vehicles.

However, persistent advancements in battery techniques, charging utilities & policy support from governments worldwide are facilitating the rapid expansion of the electric vehicle market. With major automakers committing to electrification and investment in EV technology reaching record levels, the momentum behind electric vehicles is undeniable. In the face of atmospheric change & the urgent requirement for decarburization, electric vehicles intend a promising pathway towards a cleaner, greener future for transportation. In this paper, we examine into the current landscape of electric vehicles, inspecting their technological innovations, environmental upsides, market dynamics, & policy implications. Through a comprehensive review of contemporary literature & industry developments, we desire to cater insights into the transformative potential of electric vehicles in restructuring the automotive industry & accelerating the transition to a sustainable and low-carbon transportation future.

1.1

Literature review

A comprehensive review of existing literature on electric vehicles reveals a wealth of research and analysis focused on various aspects of EV technology, adoption trends, and policy frameworks. Numerous studies have explored the performance, efficiency, and environmental impact of numerous types of electric vehicles, including battery type vehicles, plug-in hybrid type vehicles and fuel cell type vehicles.

Research in this field has highlighted the environmental benefits of electric vehicles, emphasizing their potential to reduce CO2 gas emissions & enhance air quality in urban areas. Studies have compared the life cycle emissions of electric vehicles to conventional gasoline-powered cars, taking into account factors like vehicle manufacturing, fuel production, & tailpipe emissions. The consensus among researchers is that electric vehicles offer significant reductions in carbon dioxide (CO2) emissions over their lifetime, particularly when powered by renewable energy sources.

In addition to environmental considerations, scholars have examined the economic and social implications of electric vehicle adoption. Economic analyses have evaluated the total cost of ownership of electric vehicles compared to internal combustion engine vehicles, taking into account factors like fuel costs, maintenance expenses, & government incentives. Social studies have explored consumer attitudes towards electric vehicles, identifying factors that influence purchasing decisions and adoption rates, such as vehicle range, charging infrastructure, and perceived environmental benefits.

Furthermore, research has delved into the technological advancements driving the electrification of transportation. Studies have investigated battery technologies, charging infrastructure, and electric drivetrains, assessing their performance, reliability, and cost-effectiveness. Researchers have also examined the integration of electric vehicles with renewable energy systems, exploring synergies between vehicle electrification and renewable energy generation, storage, and distribution.

Policy analysis has been another focal point of literature on electric vehicles, with studies evaluating government incentives, regulations, and market mechanisms aimed at promoting EV adoption and deployment. Comparative studies have examined policy approaches across different regions and jurisdictions, highlighting best practices and lessons learned for policymakers and industry stakeholders.

Overall, the literature on electric vehicles underscores their transformative potential in reshaping the automotive industry and advancing sustainable transportation solutions. By synthesizing key findings from existing research, this review aims to furnish insights into the opportunities & challenges associated with electric vehicle adoption and to inform future research directions & policy initiatives in this rapidly evolving field. The key points and conclusions of other research articles are summarized below:

Table 1.

Existing literature survey gap.

YearRef.Findings
20091Authors studies about HEV and compared with PHEV type model.
20132Authors proposed lithium-based EV system for future trends applications.
20153Authors presented PHEV with fuzzy logic controller to enhance operation.
20194Authors presented large scale charging stations for EVs for effective management.
20205Authors proposed literature survey of EV models for achieving sustainability.
20216Authors reviewed advances in EV systems with future trends with BMS.
20217Authors presented on charging methods with levels and configurations.
20218Authors presented current trends with advanced techniques of HEV.
20229Authors proposed hybrid power sources-based EV for enhancement of less emission.
202310Authors presented V2G & G2V for Ev operation with energy converter topologies.
202311Authors focused on degradation mechanism of EV batteries and enhancement of life cycle.
202412Authors utilized dynamic programming technique to optimize lifetime emission of EVs.

1.2

Existing applications

Electric vehicles (EVs) have emerged as a transformative solution to address the challenges of pollution, energy security, and urban congestion in India. Across various sectors, from personal transportation to public transit and commercial fleets, electric vehicles are revolutionizing mobility and driving the transition towards sustainable transportation systems. With advancements in technology and supportive government policies, electric vehicles have gained significant traction in India, offering cleaner, quieter, and more efficient alternatives to conventional fossil fuel-powered vehicles.

In this dynamic landscape, a diverse range of applications for electric vehicles has emerged, showcasing their versatility and potential to reshape the country’s transportation infrastructure. From electric cars and buses to delivery vans and two-wheelers, electric vehicles are increasingly becoming an integral part of everyday life, contributing to cleaner air, reduced greenhouse gas emissions, and enhanced energy security. In this context, it is imperative to explore and understand the existing applications of electric vehicles in India, their impact on various sectors, and the opportunities they present for sustainable development and economic growth.

Some of the existing solutions are listed below:

1.2.1

Personal transportation

Tata Nexon EV: The Tata Nexon EV is one of India’s best-selling electric SUVs, offering a range of up to 312 kilometers on a single charge.

▪ Equipped with advanced safety features and a spacious cabin, the Nexon EV provides urban commuters with a comfortable and eco-friendly driving experience.

▪ Its fast-charging capability allows users to recharge the battery to 80% capacity in just 60 minutes, making it convenient for long-distance travel.

MG ZS EV: The MG ZS EV is another popular electric SUV in India, known for its stylish design, advanced features, and long-range capabilities.

▪ With a range of up to 419 kilometers on a single charge, the ZS EV offers urban commuters a premium driving experience with zero tailpipe emissions.

▪ Its connected car features, including remote vehicle monitoring and over-the-air updates, enhance convenience and connectivity for users.

1.2.2

Public transportation

Bengaluru Electric Buses: Bengaluru’s electric buses, operated by the Bangalore Metropolitan Transport Corporation (BMTC), offer residents a sustainable and comfortable mode of transportation.

▪ These electric buses, manufactured by companies like Ashok Leyland and Olectra, feature zero tailpipe emissions and reduced noise pollution, contributing to improved air quality in the city.

▪ >With designated charging stations and a growing fleet size, Bengaluru’s electric buses are setting an example for clean and efficient public transportation.

Ahmedabad Electric BRTS: Ahmedabad’s Bus Rapid Transit System (BRTS) has integrated electric buses into its fleet, providing commuters with a reliable and eco-friendly transit option.

▪ Operated by the Ahmedabad Janmarg Limited (AJL), these electric buses offer passengers a smooth and comfortable ride with minimal environmental impact.

▪ With dedicated bus lanes and advanced charging infrastructure, Ahmedabad’s electric BRTS is leading the way in sustainable urban mobility solutions.

1.2.3

Commercial fleets

Amazon Electric Delivery Vans: Amazon India’s electric delivery vans are part of the company’s commitment to sustainability and reducing carbon emissions.

▪ These electric vans, manufactured by OEMs like Mahindra Electric and Tata Motors, are equipped with advanced features and cargo space to efficiently deliver packages to customers’ doorsteps.

▪ By electrifying its delivery fleet, Amazon aims to reduce its carbon footprint and contribute to India’s clean energy transition.

BigBasket Electric Vans: BigBasket, India’s leading online grocery delivery platform, has introduced electric delivery vans to optimize its last-mile delivery operations.

▪ These electric vans, equipped with refrigeration units and GPS tracking systems, ensure the timely and efficient delivery of fresh produce to customers’ homes.

▪ With zero tailpipe emissions and lower operating costs, Big Basket’s electric vans are paving the way for sustainable urban logistics solutions.

1.2.4

Last mile delivery

eBikeGo Electric Scooters: eBikeGo’s electric scooters suggest a cost-effective and eco-friendly solution for last-mile delivery and urban mobility.

▪ These electric scooters, available for rent through a smartphone app, provide delivery partners with a convenient and efficient mode of transportation.

▪ With swappable batteries and GPS tracking, eBikeGo’s electric scooters enable businesses to optimize their delivery operations while reducing carbon emissions and traffic congestion.

Yulu Electric Bikes: Yulu’s electric bikes are revolutionizing last-mile connectivity in Indian cities, providing users with a sustainable and affordable transportation option.

▪ These electric bikes, available for rent at designated stations, offer commuters a convenient way to navigate congested urban areas.

▪ With zero tailpipe emissions and flexible rental options, Yulu’s electric bikes are transforming the way people travel short distances in India’s bustling metropolises.

1.2.5

Government and institutional fleets

Delhi Government Electric Cars: The Delhi government’s introduction of electric cars for official use demonstrates its commitment to promoting sustainable transportation solutions.

▪ These electric cars, including models like the Tata Tigor EV and the Mahindra eVerito, help reduce emissions and air pollution in the national capital.

▪ By setting an example of clean governance, the Delhi government is encouraging other government agencies and institutions to adopt electric vehicles for their fleets.

Pune Municipal Corporation Electric Vehicles: The Pune Municipal Corporation (PMC) has procured electric vehicles for its administrative fleet to reduce carbon emissions and operating costs.

▪ These electric vehicles, including cars and two-wheelers, are supported by charging infrastructure initiatives like the Pune Electric Supply Company (PESCO) charging stations.

▪ By embracing electric mobility, the PMC is contributing to a cleaner & greener future for the city of Pune.

1.2.6

Military and defense applications

Indian Army Electric Vehicles: The Indian Army’s exploration of electric vehicles for reconnaissance and surveillance missions reflects its commitment to modernizing its fleet and reducing dependence on fossil fuels.

▪ Electric utility vehicles and unmanned ground vehicles (UGVs) offer stealthy and agile mobility in diverse terrains, enhancing the army’s operational capabilities.

▪ >By integrating electric vehicles into its operations, the Indian Army is strengthening its strategic preparedness while minimizing its environmental footprint.

Indian Navy Electric Boats: The Indian Navy’s adoption of electric propulsion systems for patrol boats and small craft demonstrates its focus on enhancing maritime security while minimizing environmental impact.

▪ Electric boats, equipped with battery packs and electric motors, offer silent and emission-free navigation for coastal surveillance and anti-piracy operations.

▪ By embracing electric propulsion technology, the Indian Navy is ensuring sustainable maritime operations in India’s coastal waters.

2.

BENEFITS AND CHALLENGES

Electric vehicles (EVs) offer a range of benefits that make them an attractive option for sustainable transportation. However, alongside these advantages, there are also challenges that need to be addressed to realize the full potential of electric mobility. This section explores both the benefits and challenges associated with electric vehicles in India.

2.1

Benefits

  • i. Environmental Impact: One of the primary benefits of EVs is their reduced environmental impact compared to conventional vehicles. EVs produce zero tailpipe emissions, helping to improve air quality & reduce CO2 gas emissions. By transitioning to electric vehicles, India can make significant advancement towards achieving its climate targets & mitigating the harmful effects of air pollution on public health and environment.

  • ii. Energy Efficiency: Electric vehicles are more energy-efficient than internal combustion engine vehicles. Electric drivetrains are capable of transmuting a higher percentage of energy from the grid into vehicle propulsion, impacting in lower energy consumption per kilometer travelled. This efficiency translates to reduced reliance on fossil fuels and lower operating costs for EV owners, contributing to energy security and economic sustainability.

  • iii. Reduced Operating Costs: Electric vehicles have lower operating costs compared to conventional vehicles powered by gasoline or diesel. EVs have fewer moving parts, resulting in reduced maintenance requirements & lower servicing costs over the vehicle’s lifetime. Additionally, electricity is often cheaper than gasoline or diesel on a per-mile basis, leading to lower fueling costs for electric vehicle owners.

  • iv. Noise Reduction: Electric vehicles produce significantly less noise than internal combustion engine vehicles. The absence of engine noise and vibrations creates a quieter and more pleasant driving experience for both passengers and pedestrians. In urban areas, the reduction in traffic noise from electric vehicles can contribute to improved quality of life and enhanced urban livability.

  • v. Technological Innovation: The adoption of electric vehicles drives technological innovation and advances in battery technology, electric drivetrains, and charging infrastructure. As the electric vehicle market grows, manufacturers invest in research and development to improve battery performance, increase vehicle range, and reduce charging times. These advancements benefit not only electric vehicles but also other sectors such as renewable energy storage and grid integration.

2.2

Challenges

  • i. Limited Range and Infrastructure: One of the primary challenges facing electric vehicles in India is limited range and charging infrastructure. Range anxiety, or the fear of running out of battery charge before reaching a charging station, remains a significant barrier to EV adoption. Additionally, the availability of public charging infrastructure is unevenly distributed across regions, with urban areas having better coverage compared to rural areas.

  • ii. High Initial Cost: Electric vehicles typically have a higher upfront cost compared to conventional vehicles, primarily due to the cost of batteries and electric drivetrain components. While the total cost of ownership of electric vehicles is often lower over the vehicle’s lifetime, the initial purchase price can be a deterrent for consumers, especially in price-sensitive markets like India. Government incentives and subsidies can help offset this cost barrier and promote EV adoption.

  • iii. Charging Time: Charging time is another challenge for electric vehicle owners, especially for those who do not have access to fast-charging infrastructure. While home charging solutions are convenient for overnight charging, they may not be suitable for long-distance travel or on-the-go charging needs. Fast-charging stations are essential for enabling long-distance travel and reducing charging downtime, but their availability is still limited in many parts of India.

  • iv. Battery Degradation and Recycling: Battery degradation over time and concerns about battery recycling pose challenges for electric vehicle sustainability. Lithium-ion batteries, which are commonly used in electric vehicles, degrade with each charging cycle, affecting vehicle range and performance. Additionally, the recycling of lithium-ion batteries presents logistical and environmental challenges, as the process requires specialized facilities and technologies to recover valuable materials and minimize environmental impact.

  • v. Grid Integration and Energy Demand: The widespread adoption of electric vehicles poses challenges for grid integration & managing increased energy demand. Charging electric vehicles requires additional electricity consumption, which could strain existing grid infrastructure, especially during peak demand periods. To address this challenge, smart charging solutions, demand-response programs, and grid upgrades are needed to ensure the reliable & efficient integration of electric vehicles into the electricity grid.

3.

CONCLUSION

In conclusion, electric vehicles represent a promising solution to India’s pressing transportation challenges, offering significant environmental, economic, and social benefits. Despite the challenges of limited infrastructure, high initial costs, and range anxiety, the momentum towards electric mobility is undeniable. Government support, technological innovation, and collaborative efforts from industry stakeholders are key to overcoming these obstacles and realizing the full potential of electric vehicles in India.

Moving forward, a comprehensive approach that addresses infrastructure development, affordability, and consumer awareness will be crucial for accelerating the implementation of electric vehicles nationwide. By leveraging emerging technologies, promoting research and development, and fostering partnerships between the public and private sectors, India can build a robust electric mobility ecosystem that drives sustainable development, reduces emissions, and enhances energy security. With concerted efforts and strategic investments, India can lead the way towards a cleaner, greener future powered by electric vehicles.

4.

FUTURE SCOPE

As India accelerates its transition towards sustainable transportation solutions, the future scope of EVs holds immense promise for reshaping the country’s mobility landscape. With advancements in technology, supportive government policies, & evolving consumer preferences, electric vehicles are poised to play a pivotal role in driving India towards a cleaner, greener, & more sustainable future.

  1. i. Technological Advancements:

    • Continued advancements in battery technology, including higher energy density and faster charging capabilities, will significantly enhance the performance and range of electric vehicles.

    • Research and development efforts focused on lightweight materials, efficient electric drivetrains, and aerodynamic designs will further improve the efficiency and affordability of electric vehicles.

    • Integration of emerging technologies such as artificial intelligence (AI), Internet of Things (IoT), and vehicle-to-grid (V2G) communication will enable smart charging solutions and optimize energy use in electric vehicle ecosystems.

  2. ii. Infrastructure Development:

    • Expansion of charging infrastructure networks, including fast-charging stations along highways and urban centers, will alleviate range anxiety and encourage long-distance travel with electric vehicles.

    • Integration of renewable energy sources, such as solar and wind power, into charging infrastructure will promote sustainable charging solutions and reduce the carbon footprint of electric vehicles.

    • Deployment of innovative charging solutions, such as wireless charging technologies and battery swapping stations, will offer convenience and flexibility for electric vehicle owners.

  3. iii. Policy Support:

    • Implementation of supportive policies, including financial incentives, tax rebates, and subsidies, will stimulate demand for electric vehicles and incentivize investment in manufacturing and infrastructure.

    • Development of regulatory frameworks and standards for electric vehicle adoption, including vehicle safety, charging infrastructure standards, and battery recycling, will ensure the sustainable growth of the electric mobility sector.

    • Collaboration between central and state governments, industry stakeholders, and research institutions will be essential for fostering a conducive policy environment and driving the widespread adoption of electric vehicles.

  4. iv. Market Expansion:

    • Diversification of electric vehicle offerings across vehicle segments, including passenger cars, commercial vehicles, two-wheelers, and three-wheelers, will cater to the diverse needs of Indian consumers and accelerate market penetration.

    • Entry of new players and collaborations between domestic and international manufacturers will spur competition and innovation in the electric vehicle market, leading to improved product offerings and affordability.

    • Adoption of electric vehicles in emerging segments such as shared mobility, e-commerce logistics, and public transportation will create new opportunities for market growth and expand the reach of electric mobility solutions.

  5. v. Consumer Awareness and Education:

    • Public awareness campaigns and educational initiatives aimed at promoting the benefits of electric vehicles, addressing misconceptions, and highlighting the cost savings and environmental advantages will encourage consumer acceptance and adoption.

    • Training programs and skill development initiatives for technicians, engineers, and service providers will build a skilled workforce capable of supporting the maintenance, repair, and servicing needs of electric vehicles.

    • Collaboration with educational institutions, industry associations, and non-governmental organizations (NGOs) to incorporate electric vehicle education and training into school curricula and vocational programs will foster a culture of sustainability and innovation.

  6. vi. International Collaboration:

    • Collaboration with international organizations, research institutions, and industry partners will facilitate knowledge exchange, technology transfer, and best practices sharing in electric vehicle development, manufacturing, and deployment.

    • Participation in global initiatives and forums, such as the International Energy Agency (IEA) Electric Vehicle Initiative and the United Nations Framework Convention on Climate Change (UNFCCC), will provide opportunities for India to showcase its leadership in sustainable transportation and learn from global experiences.

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Akhil Nigam, Somya Pakhi, Kritika ., Shubham ., Anurag Singh, and Yeshika . "Electrifying the future: a comprehensive review of electric vehicles in transportation", Proc. SPIE 13279, Fifth International Conference on Green Energy, Environment, and Sustainable Development (GEESD 2024) , 1327908 (26 September 2024); https://doi.org/10.1117/12.3041612
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KEYWORDS
Transportation

Sustainability

Batteries

Industry

Manufacturing

Power grids

Analytical research

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