Formula E: Are Electric Race Cars on Track to Outpace Formula 1?

Citroën Racing Formula E car during pre-season testing for the 2025-26 ABB FIA Formula E World Championship

Independent photo agency/Alamy

With their sleek designs, smoking tires, and throaty engines, Formula 1 cars have dominated the speed charts for the last five decades. However, the rise of electric racing has the potential to shift that paradigm, especially as advancements in technology propel Formula E vehicles forward.

Formula E recently introduced its fourth-generation vehicle, capable of generating up to 600 kilowatts, equating to about 815 horsepower, enabling speeds of over 350 kilometers per hour. 320km/h has already been achieved.

Despite Formula 1’s current edge with top speeds exceeding 370 km/h, Formula E vehicles already demonstrate a 30% faster acceleration than their F1 counterparts, with the existing third generation capable of sprinting from 0 to 60 mph in just 1.82 seconds. As power and energy retention technology evolves, Formula E CEO Geoff Dodds anticipates that races on tracks such as Silverstone and Monte Carlo will showcase even faster speeds.

“In the upcoming years, this vehicle may equal or even surpass the speed of an F1 car,” Dodds stated. “It’s more about the principles of physics than our skill.”

A significant advantage lies in the exceptional efficiency of electric motors. In consumer electric vehicles like Tesla, Kona, and Ioniq, up to 90% of the energy used is efficiently directed towards movement. In contrast, conventional combustion engines, such as those in F1, lose roughly 25 percent of energy as heat, while F1’s hybrid motors waste around 50 percent. Conversely, Formula E cars achieve energy efficiency rates of 96%, largely due to regenerative braking systems that recharge the battery.

Electric motors deliver maximum torque instantly, eliminating the lag associated with gear shifts during acceleration. The fourth-generation Formula E cars utilize permanent all-wheel drive with distinct motors for each axle, enhancing acceleration, subject to the grip of the still-developing fourth-generation tires.

A notable challenge for Formula E is its battery technology. At the outset of the series in 2014, competitors had to switch vehicles mid-race to complete the distance. Sylvain Filippi, director of Envision Racing Team, remarks that Formula E could currently construct vehicles boasting 1,000 horsepower, surpassing F1’s capabilities for a single lap, but the battery limitations hinder such performance across numerous race laps.

“We’re not yet able to fit 80 liters of fuel equivalent into a single battery. It simply doesn’t exist,” Filippi elaborated. “The advantage of conventional fuel lies in its high energy density.”

Formula E Gen 4 cars can exceed speeds of 350 kilometers per hour

Formula E

Formula E aims to transition from liquid lithium-ion batteries to solid-state alternatives in its upcoming fifth-generation vehicles, which promise reduced weight and enhanced energy storage. This advancement could potentially enable Formula E cars to outperform Formula 1 in direct competitions, according to Dodds.

Nonetheless, even solid-state batteries struggle to match the energy density of liquid fuels, suggesting that F1 may maintain an advantage in race laps, as noted by Daniel Auger, PhD from Cranfield University in the UK.

“They’re definitely in for an exciting contest,” he remarked. “Yet, it’s likely that battery limitations will still play a significant role.”

However, this debate may remain purely theoretical, as the two racing formats adhere to different regulations. For instance, Formula E does not permit tire changes during pit stops and features “Attack Mode” functionality, inspired by power-ups from the Mario Kart series.

Brands such as Porsche, Jaguar, and Nissan are now focused on refining the powertrain and energy management systems of their fourth-generation vehicles to maximize performance ahead of their race introduction scheduled for December 2026.

Many of the technological developments from Formula E might also trickle down to consumer electric vehicles. For instance, the current Porsche Cayenne Electric incorporates direct oil cooling technology that originated in Formula E.

The performance metrics of Formula E “demonstrate the capability of electric vehicles to equal or surpass the performance of traditional internal combustion engines,” insists Graham Evans from S&P Global. “Moreover, this can be achieved with a stronger commitment to environmental sustainability.”

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Source: www.newscientist.com

Interim NASA Chief Aims to Outpace China in Lunar Exploration

NASA is moving full steam ahead, at least according to Sean Duffy, the agency’s agent manager.

During an internal employee town hall on Thursday, Duffy cautioned that he could “make safety an adversary of progress” in the quest for a new space race, as reported in meeting notes acquired by NBC News.

“We must prioritize safety, collaborating with FAA and DOT, yet sometimes that same safety focus can obstruct our progress,” said Duffy, who is also the Secretary of Transport.

“We need to embrace some risks and encourage innovation to carry out this mission. There’s always a balance, but we cannot hold back due to fear of risk.”

A spokesperson from NASA stated the agency remains committed to safety.

Duffy’s remarks arise amidst ongoing turmoil at NASA, where questions about the agency’s budget and priorities have persisted for years. Since the Trump administration began, NASA and other agencies have experienced significant funding and personnel cuts in an effort to downsize the federal workforce.

At a Senate hearing this week, Duffy expressed his frustration about the “shadows cast on everything happening at NASA.”

Image of the moon, captured on February 15, 2025, by Lunar Lander, resilience of Ispace from an altitude of 14,439 km.
iSpace via business wire via AP file

“If that’s the narrative we crafted, I’ll be in trouble,” Duffy remarked. “We beat the Chinese to the moon. We’ll ensure it’s done safely, quickly, and accurately.”

Facing a Time Crunch

He emphasized that time is not in NASA’s favor.

“We are under pressure to perform effectively, rapidly, and safely,” Duffy stated.

NASA’s Artemis program plays a critical role in American efforts to return astronauts to the moon, aiming for regular lunar missions before eventually heading to Mars.

The U.S. previously dominated the Moonshot era during the Apollo program from the 1960s to 1970s, yet its long-standing advantages are now at risk. Competitors like China, Russia, India, and Japan are also aspiring for lunar missions, igniting a new space race.

China, in particular, is swiftly advancing its human spaceflight initiatives. Recently, they tested new lunar mission equipment and rockets, a key step towards realizing their ambitions.

China aims to land astronauts on the moon by 2030, and has announced plans to potentially build a nuclear power plant on the moon in collaboration with Russia to provide electricity.

In the U.S., President Trump’s budget proposal suggested cutting NASA’s funding by over $6 billion.

Despite a proposed budget reduction of about 24%, Duffy maintained that the Artemis program will proceed, although “cost-cutting is vital.”

Around 4,000 NASA employees have taken a voluntary retirement plan as part of the Trump administration’s initiative to decrease the federal workforce.

In July, Reuters reported that over 2,000 senior employees from NASA are expected to exit due to the recent cuts.

Currently, Duffy believes NASA possesses the necessary resources and talent to accomplish its missions in the near future.

“If we fall short, I assure the President 100% that I will approach OMB, the House, and Senate to request additional funding,” Duffy declared.

“More funding doesn’t guarantee success, but I will seek it if needed,” he added.

Duffy stated that he plans to lead initiatives in government space exploration “in the near future.”

Source: www.nbcnews.com

Elon Musk’s Starship Rocket Is Poised to Outpace NASA in the Space Race

IThis was one of the most impressive technology events of the year. On October 13, Starship, the world’s largest and most powerful rocket, blasted into space from a launch pad in Texas. The main booster reached an altitude of more than 65 km and then began returning to Earth at speeds exceeding the speed of sound.

A crash was averted when the rocket, developed by Elon Musk’s SpaceX company, reignited its engines, slowed, and came to a grinding halt above the tower from which it had launched just seven minutes earlier. The scissor’s claws grabbed the massive launcher, gripping it tightly, ready to refurbish and fire again.

“Today is textbook day in engineering history,” said SpaceX engineer Kate Tice.

prestigious research journal science “This feat heralds a new era of affordable heavy-lift rockets that can reduce the cost of doing science in space,” the company said last month in awarding Starship’s October flight. Announced. This year’s breakthroughs.

Elon Musk’s company plans 25 Starship flights in 2025. Photo: Argi February Sugita/ZUMA Press Wire/REX/Shutterstock

Musk’s company has already cut the cost of putting cargo into Earth orbit by one-tenth, the magazine said. Further reductions of similar magnitude can be expected when Starship, the most powerful launcher ever built and designed to be completely and rapidly reusable, becomes fully operational later this year, it added.

This view is shared by many space engineers, who believe Starship is poised to take a major leap forward with a schedule of launches every two to three weeks. SpaceX engineers have learned how to salvage and reuse the main booster stage and plan to do the same with the upper stage this year.

With a total of 25 flights planned over the next year, this is an incredibly ambitious program. “You don’t have to be a rocket scientist to understand that their research schedule is unprecedented,” astrophysicist Ehud Behar, a Technion professor at the Israel Institute of Technology, told the website Space.com.

For scientists, the benefits of Starship are clear. The cost of missions on reusable launch vehicles could drop significantly from current levels, making it possible to conduct research in space that was previously unaffordable. This point is important, he said. science In an editorial about Starship’s achievements, he said:

Until now, access to space was too precious to risk failure, the magazine said, and NASA missions tested components over and over again, driving up costs. “But regular Starship flights will give scientists more opportunities, allowing them to build instruments using inexpensive off-the-shelf parts and launch them more frequently.”

In addition to single vehicles, fleets of robotic probes could be sent to Mars, and fleets of mirror segments could be flown in formation to create giant self-assembling telescopes in space. While such a vision is exciting, there are downsides to Musk’s rocket success.

Elon Musk has grand ambitions to colonize Mars. Photo: Dot Zebra/Alamy

First, Starship could destroy NASA’s own rocket system, the troubled and extremely expensive Space Launch System (SLS), which the agency has been planning for decades. Unlike the reusable Starship, its rocket is expendable, while launching SLS will cost billions of dollars compared to the $10 million goal Musk has planned for the system. It is expected that it will cost. Many scientists predict that Starship will eliminate the need for SLS within a few years.

Another major problem for many scientists involved with SpaceX is that they have difficulty accepting Musk’s right-wing politics and close ties to Donald Trump. He is a vocal critic of U.S. immigration policy, has disdain for many Democratic politicians, and was recently given permission by President Trump to cut $500 billion from the U.S. federal budget.

In any case, Musk’s hopes for Starship have less to do with scientific aspirations and much more to do with his desire to eventually begin colonizing Mars using giant rockets. Last September, he promised that SpaceX would launch its first unmanned Starship mission to Mars in two years. If successful, manned flights would follow within four years. Ultimately, Musk said he envisions a potential colony of up to 1 million people on Mars within 30 years.

The controversial billionaire’s plans brought him a lot of attention and ridicule. Indeed, we have sent humans on a 140-meter-mile journey to the Red Planet, survived blasts of dangerous cosmic radiation, and figured out how to grow food in an atmosphere where water is scarce and the average pressure is less than 1% that of Earth’s oceans. Finding the level – challenging to say the least.

NASA’s Space Launch System at Kennedy Space Center, Florida. Photo: Jennifer Briggs/ZUMA Press Wire/REX/Shutterstock

Leaving Earth for Mars is “like leaving a cluttered room to live in a toxic waste dump,” Kelly and Zach Weinersmith write in their book. Cities on Mars: Can and should we settle in space? And have we really thought about this?, which one Winner of the 2024 Royal Society Trivedi Scientific Book Award.

This is a view echoed by Astronomer Royal’s Martin Rees, who has also attacked Musk’s Mars proposal. “We should never expect mass immigration from Earth,” he says. “It’s a dangerous delusion to think that space can escape Earth’s problems. We have to solve them here. Dealing with climate change may seem daunting, but Mars Nowhere in our solar system are environments as harsh as Antarctica, the ocean floor, or the top of Mount Everest.

“For ordinary risk-averse people, ‘Planet B’ does not exist.”

From this perspective, Starships may have some impact on space science, but they are unlikely to change the course of human history.

Source: www.theguardian.com