GM Brings Innovative Battery Tech to New Lunar Rover Concept EV

In August 2025, General Motors announced it is applying decades of EV battery expertise to a new Lunar Terrain Vehicle (LTV) concept being developed by Lunar Outpost, a team that includes GM and other partners. The project builds on GM’s legacy of space exploration, harking back to the Apollo 15 mission in 1971 when GM helped provide wheels, motors, and suspension for the battery-powered Lunar Roving Vehicle that allowed astronauts to explore up to 10 kilometers from their landing site.

Today, GM’s U.S. EV portfolio, from the Chevrolet Equinox EV to the GMC HUMMER EV, relies on high-nickel NCMA lithium-ion batteries, which offer high energy density, long lifespan, wide temperature tolerance, and strong power output. Variations of these NCMA batteries have been adapted for the LTV, along with plans to integrate GM’s upcoming lithium manganese rich (LMR) and lithium iron phosphate (LFP) chemistries for additional flexibility in future EVs.

The new lunar vehicle is designed for extreme range, durability, and autonomous operation. It will operate in the 14-day lunar night at temperatures as low as -334°F, survive a decade of missions, and cover up to 19,000 miles, nearly 1,000 times the distance traveled by the original rovers. GM is supplying the battery packs, power systems, chassis, suspension, and autonomous features including traction and stability control. Batteries are integrated into the chassis for a low center of gravity, and incorporate fault tolerance, heating elements, and thermal insulation to ensure reliability in harsh lunar conditions.

“Battery technology has truly gone to the Moon, and back,” said Kurt Kelty, VP of battery, propulsion, and sustainability at GM. “We’re now powering full-size EV trucks with hundreds of miles of range, and our work on the LTV pushes the boundaries even further in one of the most extreme environments imaginable.”

The LTV will also leverage GM’s expertise in advanced driver assistance systems, adapting autonomous navigation technologies to safely map and traverse lunar terrain. NASA is expected to announce which rover concepts move forward later this year.

Dr. Bruce Brown, VP of growth and strategy at GM Defense, noted that the project not only advances lunar exploration but also strengthens GM Defense’s capabilities in electric and autonomous solutions for terrestrial applications.

GM’s involvement in the LTV demonstrates how far EV and battery technology has evolved since the original lunar rovers, combining decades of innovation with extreme engineering to tackle humanity’s next frontier.

Fifty Years of EV Battery Innovation: From the Apollo Lunar Rover to Today

To appreciate how far electric vehicle battery technology has come, look to NASA’s Apollo program and its lunar rover. On July 31, 1971, two years after Neil Armstrong and Buzz Aldrin became the first humans to walk on the Moon, Apollo 15 astronauts David Scott and James Irwin became the first people to drive on the Moon. Their mobility was made possible by the battery-powered Lunar Roving Electric Vehicle, developed by Boeing, General Motors, and other partners. GM contributed the wheels, motors, and suspension system.

The rover was designed with minimalism in mind, allowing astronauts in bulky space suits to travel up to 10 kilometers from the landing site. This extended range enabled them to collect a more diverse set of soil and rock samples. By comparison, earlier missions only allowed astronauts to move a few hundred yards from the lunar lander.

The Lunar Roving Vehicle was powered by two 36-volt silver-zinc potassium hydroxide non-rechargeable batteries. While cutting-edge at the time, these batteries could not be recharged and were highly sensitive to temperature, limiting the rover’s maximum range to 57 miles. On Apollo 15, the rover traveled 17.3 miles, Apollo 16 covered 16.6 miles, and Apollo 17 reached 22.3 miles, highlighting both the innovation and the limitations of early battery technology.

This milestone underscores how far EV battery technology has advanced in the past 50 years, laying the foundation for today’s high-capacity, long-range, and durable electric vehicles.

EVinfo.net’s Take: The New Rover Goes 1,000 Times Farther. This Highlights How Fast EV Tech Is Growing Around the Globe

The new rover goes 1,000 times farther than the original 1970’s Apollo rovers. It’s this 1,000 times farther that highlights how fast EV tech is growing around the globe, the reason why the death of ICE is coming soon, and our transportation future is electric.

Electrified vehicles now make up 43% of global auto sales as of Q1 2025, up from just 9% in 2019.

China accounts for more than half of global BEV sales, with Europe and the U.S. trailing behind. The USA will begin to catch up soon, because superior economics always, always wins, and EVs save money.

Why Private Companies Should Not Be Involved in Space Exploration

For decades, space exploration was the domain of national space agencies whose missions were rooted in scientific discovery, international cooperation, and public accountability. Today, however, private companies are rapidly expanding their presence in orbit and beyond. While this surge of commercial interest is often celebrated as a new era of innovation, there are compelling reasons to question whether private industry should play such a central role in shaping humanity’s future in space.

First, space is a global commons. Decisions about how it is used affect every nation, yet private companies are accountable only to shareholders, not to the public. Allowing corporations to set the agenda risks turning space from a shared scientific frontier into a commercial battleground where profit outweighs research, stewardship, and equity.

Second, privatization introduces significant safety risks. Spaceflight is unforgiving, and cutting corners to reduce costs or accelerate timelines can have catastrophic consequences. Government agencies operate under strict regulatory oversight, but companies often push for looser rules in the name of “innovation,” raising concerns about transparency and long-term reliability.

Third, private involvement threatens to deepen inequalities. If access to space becomes dominated by a handful of wealthy firms, smaller nations and public institutions will struggle to compete. Space should not become a luxury industry controlled by billionaires when its scientific insights, environmental monitoring, and technological breakthroughs benefit all of humanity.

Finally, there is the ethical dimension. From satellite congestion to lunar resource extraction, private companies are already making decisions with planetary-scale implications. Without robust international governance, these choices could lead to conflicts, environmental damage, and irreversible consequences.

Exploring the cosmos is one of humanity’s greatest collective endeavors. It belongs to everyone, not just to those with the capital to claim a piece of it. To protect the future of space, public institutions should lead the way, guided by science, cooperation, and the common good.