Vector Space Systems aims to launch satellites by the hundreds

Devin Coldewey

8M0I6865 - P-9 in flight

Why wait for the bus when you can hail a cab? That’s the idea behind a new commercial spaceflight startup founded by SpaceX founding team members Jim Cantrell and John Garvey. Vector Space Systems wants to shake up to the commercial space market by providing not tens, but hundreds of launches per year.

Vector Space-logo-black“We’re going to bring real economics to the launch platform,” Cantrell told TechCrunch in an interview. “And we can do that because we bring supply. We’re talking about building hundreds of these things.”

Vector isn’t looking to compete with SpaceX, or even smaller commercial launch platforms like Rocket Lab and Firefly. A launch with these companies might be booked years in advance, with dozens of sub-launches, deliveries, experiments, and what have you packed into a single rocket. It’s like a space bus. Vector wants to be the space taxi.

“I had this experience pounded into my brain with LightSail,” said Cantrell, referring to the Planetary Society’s experimental solar propulsion craft. “We built that thing — I think we finished in 2011 — and it’s still waiting around for launch, because you need a particular orbit and so on. And really nobody has addressed this problem.”

With small rockets carrying single 20-40 kg payloads launching weekly or even every few days, the company can be flexible with both prices and timetables. Such small satellites are a growing business: 175 were launched in 2015 alone, and there’s plenty of room to grow. It’ll still be expensive, of course, and you won’t be able to just buy a Thursday afternoon express ticket to low earth orbit — yet.

Customers will, however, reap other benefits. There are less restrictions on space: no more having to package your satellite or craft into a launch container so it fits into a slot inside a crowded space bus. Less of a wait between build and launch means hardware can be finalized weeks, not years, in advance — and expensive satellites aren’t sitting in warehouses waiting for their turn to go live and get that sweet return on investment.

The last few years have been spent on designing and testing the as-yet-unnamed launch vehicles Vector will be using. The first stage is designed to be reusable — nothing as fancy as SpaceX’s autonomous landings, but rather using a unique aerial recovery system Cantrell seemed excited (though guarded) about.



Dozens of sub-orbital flights have been made, and orbital deployment is the next test. If all goes well, Vector hopes to be making its first real flights in 2017.

Investors are knocking down the front door looking to get in, he said, though he declined to name any. Perhaps they smell profitability: Vector’s business plan has it cash positive after just a few launches. Government money is also in the mix: Cantrell noted humbly that “We’ve been talking with people high up at the Pentagon who want this for obvious reasons.”

A lot depends on successful demonstration of orbital deployment, which should be happening a little later this year. If things go as planned, it could work towards removing one of the most significant restraints currently holding back commercial spaceflight.

Bound for Mars, a robot arrives in Boston for training

Valkyrie, NASA’s humanoid robot prototype that Northeastern researchers will perform advanced research and development on, arrived at UMass Lowell on April 6.
Valkyrie, NASA’s humanoid robot prototype that Northeastern researchers will perform advanced research and development on, arrived at UMass Lowell on April 6.

ASTRONAUTS SPEND YEARS training before they go into space. The same is true for their robot counterparts, two of which recently arrived in Massachusetts to be put through their paces in preparation for a long-off mission to Mars.

Valkyrie is built like a linebacker — 6’2” tall and 275 pounds. Its job is to go to Mars and maintain equipment in anticipation of the arrival of astronauts, potentially years after Valkyrie first touches down on the Red Planet.

“If you don’t start your car for two years, do you expect it will start when you return?” says Taskin Padir, a professor of engineering at Northeastern University who will be leading the university’s work with Valkyrie. “Humanoid robots will be part of the pre-deployment mission to Mars and will maintain equipment prior to the astronauts’ arrival.”

A manned mission to Mars is a high priority for NASA, which hopes to achieve the feat by the 2030s. As conceived, the expedition would require NASA to send equipment like rovers and a human habitat to Mars years before the astronauts launch. This is due to the relative orbits of Earth and Mars, which make it only practical to launch from here to there every two years.

“You need to pre-position assets like a habitat, a power supply. Whatever you need on the surface, all that’s done years before an astronaut gets there,” says William Verdeyen, NASA project manager for Valkyrie.

Valkyrie’s destination may be exotic, but the robot’s tasks will be mundane. The Johnson Space Center in Houston will beam instructions to Mars (the transmission takes about 20 minutes), and the robot will carry them out autonomously. Likely jobs include repairing electronic boards, cutting cords, and changing batteries — all maneuvers that require dexterity, which is complicated to engineer.

“A [good] analogy is replacing batteries in a flashlight,” says Padir. “If we can do that with Valkyrie at the end of two years, that would be a great accomplishment from our perspective.”

Over the next two years, the Northeastern team will work on improving Valkyrie’s performance, especially at these kinds of fine-motor maintenance tasks. A separate team at MIT will be doing similar work with another copy of the robot.

Most of Valkyrie’s movements will take place inside the human habitat — a known environment for the engineers, which makes it relatively easy to navigate. Sometimes, though, the robot will have to venture outside, like to brush dust off of solar panels. There, things get more treacherous. And if Valkyrie falls on the rough, uneven Martian surface, there’s always the risk it will never be able to get back up. Fortunately, though, in all these tasks, time is going to be on Valkyrie’s side.

“This robot will have a lot of free time on Mars,” says Padir. “If your task is to clean a few solar panels in the next week, you don’t have to run.”