The Electric Surge: Unraveling the Speed of Electric Cars versus Internal Combustion Engines

The automotive industry has witnessed a transformative shift toward sustainable and eco-friendly alternatives in recent years. Once considered a futuristic novelty, electric cars have become a significant player in the market, challenging the dominance of vehicles with internal combustion engines (ICE). One crucial aspect where this competition is prominently showcased is in the realm of speed and performance. In this article, we delve into the speed capabilities of electric cars and compare them to their traditional counterparts with internal combustion engines.


The Instant Torque Advantage

One defining characteristic that sets electric cars apart from their internal combustion engine counterparts is the instant torque delivery provided by electric motors. Unlike the gradual acceleration curve of internal combustion engines that depend on factors like engine speed and gear shifting, electric motors generate maximum torque from the moment they start spinning. This attribute translates into swift acceleration for electric cars, making them formidable competitors in terms of speed.

Tesla's Dominance in Acceleration

Tesla, the trailblazer in electric vehicles, has been at the forefront of revolutionizing the perception of electric cars as sluggish alternatives. The Tesla Model S Plaid, a high-performance electric sedan, is a testament to the incredible acceleration achievable with electric powertrains. With a 0-60 mph time of just a few seconds, the Plaid has challenged the conventional notion that high-speed performance is exclusive to internal combustion engines.

Comparing 0-60 Times

The 0-60 mph acceleration time has become a standard benchmark for evaluating a vehicle's quickness off the line. Electric cars consistently excel in this metric due to their instantaneous torque delivery. For instance, the Tesla Model S Plaid mentioned above boasts a mind-boggling sub-2-second 0-60 mph time, putting it in the league of some of the fastest production cars in the world.

To put this into perspective, traditional high-performance internal combustion engine vehicles, renowned for their speed, often struggle to match the acceleration capabilities of electric counterparts in the 0-60 mph sprint. The battle for supremacy in this category is not limited to luxury electric vehicles; even mid-range and affordable electric cars have been closing the gap, providing impressive acceleration figures that rival or surpass their internal combustion engine counterparts.

Top Speed Showdown

While acceleration is critical in evaluating speed, top speed remains a defining characteristic in high-performance vehicles. Internal combustion engines have long been associated with achieving incredible top speeds, especially in sports cars and hypercars.

However, electric cars are steadily challenging this notion. As technology advances and manufacturers invest in refining electric powertrains, high-speed electric vehicles are emerging as serious contenders. The Rimac C_Two, an all-electric hypercar, boasts a top speed exceeding 250 mph, putting it in the same echelon as some of the fastest internal combustion engine hypercars.

Range Anxiety and Real-world Speed

While electric cars showcase remarkable acceleration and top-speed capabilities, it is essential to consider the practical aspects of real-world driving. Range anxiety, the fear of running out of battery power before reaching a charging station, has been a significant concern for prospective electric car buyers.

To address this, manufacturers are focusing on enhancing the speed of electric cars and extending their range. Long-range electric vehicles are becoming more prevalent, offering impressive speed capabilities while alleviating concerns about the need for frequent charging.

Charging Infrastructure and Speed

Electric cars' speed is determined not only by their acceleration and top speed but also by the availability and efficiency of charging infrastructure. While internal combustion engine vehicles can refuel quickly at gas stations, electric cars rely on charging stations. Developing a robust and widespread charging infrastructure is crucial for ensuring the practicality and convenience of electric vehicles.

Governments and private companies are investing heavily in expanding charging networks, reducing charging times, and developing fast-charging technologies. Tesla's Supercharger network, for example, allows Tesla owners to recharge their vehicles quickly, facilitating long-distance travel without the extended downtime often associated with charging.

Performance Beyond Acceleration: Handling and Dynamics

Speed is not solely about straight-line acceleration or top speed; it also involves handling and overall driving dynamics. Electric cars, with their unique weight distribution due to battery placement, often exhibit superior handling characteristics. The lower centre of gravity resulting from the batteries positioned on the floor contributes to enhanced stability and agility, providing a thrilling driving experience even on winding roads.

Internal combustion engine vehicles, especially those designed for high-performance driving, have traditionally held an edge regarding handling dynamics. However, electric cars are narrowing this gap, and some models are earning acclaim for their precise and responsive handling.

Environmental Considerations

The comparison between electric cars and internal combustion engine vehicles goes beyond speed; it extends to the environmental impact of each technology. Electric vehicles are inherently more environmentally friendly, producing zero tailpipe emissions during operation. As the electricity grid becomes increasingly powered by renewable sources, the overall carbon footprint of electric vehicles continues to decrease.

On the other hand, internal combustion engines rely on fossil fuels and emit pollutants during combustion. The push toward electric vehicles aligns with global efforts to reduce air pollution and combat climate change, making the speed of this transition a critical factor in achieving sustainable transportation.

The Evolution of Electric Vehicle Technology

The automotive industry is dynamic, with technological advancements occurring rapidly. As electric vehicle technology continues to evolve, manufacturers are pushing the boundaries of performance and speed. Electric supercars and hypercars are entering the market with specifications that challenge the fastest internal combustion engine counterparts.

The transition to electric powertrains is not merely a response to environmental concerns; it is also driven by the pursuit of cutting-edge technology and the desire to redefine the limits of automotive performance. The competitive landscape is shifting, and electric cars are becoming synonymous with speed and innovation.

Final Thoughts

In the race for automotive supremacy, the speed of electric cars compared to vehicles with internal combustion engines is a topic that continues to captivate enthusiasts and industry experts alike. With their instant torque delivery, impressive acceleration, and evolving top-speed capabilities, electric cars are challenging the traditional notion that speed is the exclusive domain of internal combustion engines.

While internal combustion engines have long held the throne in high-performance vehicles, electric cars are carving out their niche and proving that speed can coexist with sustainability. The ongoing advancements in electric vehicle technology, charging infrastructure, and consumers' growing acceptance of electric cars signal a transformative era in the automotive industry where speed and sustainability go hand in hand, propelling us into an electrifying future on the road.


This article was written and published by Christopher Lowe. Image used from LamboCARS.