Former SpaceX engineers are building a Tesla for freight trains

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Trains may be an old technology, but they are still remarkable machines—operating with roughly four times the energy efficiency of semitrucks driving on a highway.

However, over the past several decades, railways have been working against themselves. To compete with semis, they’ve ceded shorter deliveries. Instead, railways have doubled down on long-haul shipments of 1,000 miles or more. And to maximize efficiency on long routes, train companies have simply kept making trains longer . . . and longer. Today, it’s relatively common for trains to be nearly 3 miles long.

Which is why when SpaceX engineer Matt Soule was mulling his next startup and a random video of a freight train popped up on YouTube, he realized something obvious: If we want to curb greenhouse gas emissions, we should be moving more shipments to rail from trucks. But how?


Three years later, with $50 million of Series A funding in hand, he’s sharing his solution. Now the CEO of Parallel Systems, Soule—alongside two cofounders who both led major engineering initiatives at SpaceX—is transforming individual freight train cars into autonomous electric vehicles.

Parallel Systems’s invention is a modular, motorized set of train wheels. Cargo containers are placed on top of the wheels by a crane, and the wheels can drive this train car up to 500 miles to anywhere on the track.


The company’s potential impact is in its ability to redesign the way freight is transported, moving shipments that would have been delivered by truck to a more efficient train. Understanding that impact requires dipping your toe into the 143,000 miles of U.S. railway.


Dean Wise is the former vice president of network strategy at BNSF Railway (aka the Burlington Northern Santa Fe Corp., one of the largest railway companies in North America). He’s also one of several established industry advisers who Parallel Systems has brought in to help navigate the relatively closed industry of freight transport.

“You actually are not going to get into this game unless the railroads themselves are going to invite you in,” Wise explains. “The rail industry in North America is basically privately held and privately funded . . . and they can say, ‘We don’t like this [idea].’”

Parallel Systems plans to make money by providing its technology to the railroads, rather than competing with them. Meanwhile, railroads make money by charging clients to move their goods (and to break your heart, one of their most popular cash cows is actually coal). In the U.S. and across North America, five regional companies operate the vast majority of railways—and you might recognize them by their distinctive train engines. Union Pacific is the largest, with routes from the Midwest to the West. BNSF has a similar footprint, but reaches north where UP reaches south. Then you have CSX and Norfolk Southern from the Midwest out East. And pushing north? That’s the territory of Canadian National.

Wise calls this arrangement “co-op-etition.” The same track standard is shared across North America, meaning this network is completely interoperable for all trains on the continent. However, because the network is split among companies, they often have to work together, handing off cargo from one to another for it to reach its final destination (and as a further complication, freight lines share the same track with passenger lines).

This strategy drives what Wise calls the core “irony of the freight business.” Railroads make money moving big trains long distances. However, most freight is moved shorter distances (fewer than 1,000 miles) by trucks. (Trucks carried 58% of all freight in 2017, whereas trains followed in second place at 16.2%. Meanwhile, the average truck delivery dropped from 800 miles to 500 miles between 2005 and 2019.)


While long trains are profitable for the train companies, they’re not terribly efficient for anyone else. A long train is full of goods that need to be delivered to all sorts of different places once they reach a depot—that’s when those goods are handed off to semitrucks. Not to mention that parking a 3-mile-long train vastly limits where it can go. Furthermore, train cars are often parked for days while they wait for other cars to be loaded and unloaded so that they can move, as this giant caterpillar, to their next destination.

In theory, a Parallel Systems car has no such limitations. Once a car is loaded, it can simply drive to its destination. The reality is that a vast majority of tracks are single-lane only, and so single-car trains might make for an inefficient use of that track. Furthermore, even Parallel Systems trains are more efficient running in small platoons rather than as one-off cars.


Soule estimates the longest Parallel Systems train might run a half-mile long. But with shorter lengths, train yards themselves can be re-architected to have smaller footprints and fit more places in our infrastructure. Parallel’s platoons can also split themselves in half if blocking an intersection for too long. Because the train cars don’t even couple together (instead, they just push themselves bumper to bumper), it’s easy for them to break rank and let road vehicles pass through their middle….”

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