The Current Landscape and Trends of Electric Vehicles in 2023

Auto Tech Outlook | Thursday, May 25, 2023

To increase electric vehicle adoption, faster and more frequent charging, expanded charging infrastructure, and geographic suitability considerations are needed. BEVs in urban areas and PHEVs in rural areas.

Despite a general decline in automobile sales over the past three years due to the pandemic and chip shortages, electric vehicles (EVs) are becoming increasingly popular. The rise in EVs is being driven by a combination of factors, including consumer demand, governmental regulations, and concerns about the environment.

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Batteries/Smart Charging

Lithium-ion batteries have been the go-to technology for electric vehicles (EVs) since 2015, but advancements in the field have led some EV developers to explore new possibilities. One area of research involves changing the internal chemistry of EV batteries to reduce the reliance on rare materials such as nickel and cobalt that are used in lithium batteries. Lithium ferro-phosphate batteries are showing promising results and are being promoted by major EV manufacturers as the next big thing in EV battery technology.

Scientists are working on developing batteries that use a combination of lithium and sodium, as these batteries are expected to perform better in cold temperatures than traditional lithium batteries. Another area of research involves the development of solid-state batteries, which offer improved stability. However, solid electrolyte technology currently has insufficient energy density, which is a significant challenge that needs to be addressed.

Although there are efforts to develop carbon-based batteries for electric vehicles, they are still at a nascent stage and are yet to be expanded from small vehicles and e-bikes to cater to the requirements of an electric car. Although aluminium is currently used to encase most EV battery packs due to its lightweight and flexibility, certain manufacturers are exploring the use of composite materials for enclosures to decrease weight and enhance safety, as lithium batteries have been known to catch fire in some EV models when damaged.

As electric vehicles become more common, the ability to charge them must also increase to meet the growing demand. Currently, EVs account for less than one per cent of the world's cars, but what will happen when this number reaches double digits? Will electrical grids be able to handle such a significant increase in power consumption? Smart charging stations can assist in reducing the strain on the grid by adjusting the charging rate based on the time of day.

Although smart charging stations may not be widely available in rural areas, they offer the ability to shift the charging of electric vehicles to non-peak hours through two methods: user-managed charging (UMC) and supplier-managed charging (SMC). SMC charging determines the optimal time to charge the battery by considering various factors such as local energy usage and the grid's capacity. During periods of low demand, such as overnight, SMC chargers increase the charging rate and decrease it again in the morning.

Barriers to Electric Vehicle Adoption

Despite robust EV sales and projections, there are still significant impediments to globally transitioning from gasoline to electricity. Battery charging times are still a major factor in EV proliferation; it can take up to eight hours to charge a 60 kWh battery using a Level 2 (240 volt) charging station, the type of charger most commonly found in private homes. DC fast-charging stations can deliver about 80 per cent state of charge (SoC) in 30–45 minutes, but they can be hard to find, and most people probably won’t be able to have one installed in their home due to cost or municipal regulations. 

In more expansive, less developed areas, much more charging infrastructure will need to be in place before EVs compete with gasoline-powered automobiles. If EVs are going to outnumber ICE automobiles on the roads, battery charging time and convenience may be the most significant determining factor. 

To develop batteries for large-scale energy storage, different priorities will need to be considered compared to batteries for electric vehicles. Factors such as weight, charging time, and energy density will be less important, whereas cost, reliability, and battery lifespan will be crucial. However, using the same materials as those required for EV batteries could be a significant obstacle to developing the necessary infrastructure. Therefore, alternative materials that do not rely on critical elements like nickel and cobalt will need to be explored to overcome this barrier. For example, carbon-based batteries and more efficient solar technology could potentially address this issue and help expand the use of solar power throughout the day.

It is difficult to determine the exact number, but some estimates suggest that there are between 3 million and 4 million electric vehicles (both battery electric and plug-in hybrid) currently in use worldwide. The International Energy Agency predicts that this number could increase dramatically to up to 125 million by the year 2030 as a result of more favourable policies and regulations for electric vehicles globally. In Europe and China, for instance, initiatives such as credits, subsidies, strict emission standards, and taxes on fossil fuels are expected to drive the adoption of EVs to represent around 25% of all vehicles sold in those markets by 2030.

For the predicted surge in electric vehicle adoption to materialise, EV batteries must be capable of faster and less frequent charging, and the charging infrastructure will need to be expanded. EV manufacturers will also need to consider the suitability of different types of EVs for various geographic locations. For instance, battery electric vehicles (BEVs) tend to be more popular in densely populated urban areas where charging stations are more abundant, while plug-in hybrid electric vehicles (PHEVs) are more prevalent in rural areas with fewer people.

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