Rocket Lab
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Orbital manufacturing startup Varda Space Industries is moving fast. Only a few weeks after announcing a $42 million Series A, Varda has signed a deal with launch company Rocket Lab for three Photon spacecraft to support the startup’s initial missions.
The first spacecraft will be delivered in the first quarter of 2023, with the second to follow later that year and the third in 2024. It’s an aggressive schedule for the eight-month-old Varda and would mark the company’s first three manufacturing missions to space. The contract includes an option for Varda to purchase a fourth Photon.
Partnering with a more established company makes sense — especially considering the Photon’s bona fides, which includes a NASA-funded mission to the moon at the end of the year. Rocket Lab was also awarded a subcontract by the University of California Berkeley Space Sciences Laboratory to design two Photon spacecraft for a one-year mission to Mars.
Image Credits: Rocket Lab (opens in a new window)
Varda, which was founded by SpaceX veteran Will Bruey and Founders Fund principal Delian Asparouhov, is banking big on a manufacturing condition that you can only find in space: microgravity. They think that the potential market for bioprinted organs, specialized semiconductors, fiber-optic cables or pharmaceuticals — products that you can’t make in Earthbound-conditions — is high enough to make the costs of building a spacecraft and launching to space more than worth it.
Under this most recent deal, each Photon will be outfitted with two Varda-made modules: The first will be a microgravity manufacturing module, where the space production will actually take place, and the second will be a reentry capsule designed to bring those finished products back to Earth. Asparouhov told TechCrunch that the are designing the reentry modules to bring back “on the order of 40-60 kilograms of materials” for the first couple of missions, with the aim of quickly scaling up for subsequent launches.
Varda says this approach is low-risk and incremental. “That’s why we’re seeing so much interest from the investment community, [the Department of Defense], NASA, et cetera, it’s this very pragmatic, one-step-at-a-time approach,” Asparouhov said. “We’ll prove this first space factory. And yes, as we start to scale it allows us to send a larger space factory and then eventually, yes, we might have something the size of the [International Space Station], 10 times the size of the ISS. But that’s not what we’re starting with. We’re starting with a very small, near-term pragmatic approach.”
Each mission will last roughly three months from launch to landing, Rocket Lab said in a statement.
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New space startup bluShift wants to bring a new kind of propellant to the small satellite launching market, with rockets powered by bio-derived rocket fuels. These differ from traditional fuels in that they offer safety advantages during handling, and ecological advantages during production and use. The startup has been working on its solid rocket biofuel since its founding in 2014, and has received grants from the Maine Technology Institute and NASA’s Small Business Innovation Research (SBIR) program to refine its fuel formula and rocket engine design to help it get to this point.
The company achieved a milestone on Sunday with its first rocket launch — a low-altitude flight of a small sounding rocket, called Stardust 1.0. It’s a single-stage prototype, which can only carry 18 lbs of payload and is designed to achieve suborbital space. That may not seem like much, but it is enough to put small research equipment up into suborbital space, at costs that put launches within range for small companies and academic institutions.
Image Credits: Knack Factory/Courtesy Aerospace
Stardust 1.0 is designed to be reusable, though it’s still a prototype, and the company is also working on Stardust 2.0, which is a second prototype that’s expected to increase the payload capacity and act as the primary building block for its subsequent production commercial rockets, including Starless Rogue, a two-stage launcher for suborbital missions, and Red Dwarf, a three-stage, 66-lb capacity launch vehicle that can reach low Earth orbit.
Sunday’s launch looked like it might not have been on track to go well at first, with an initial attempt seeing the rocket’s ignition light — but without a takeoff. After resetting for a second try, there wasn’t any ignition. Finally the rocket did take off late in the day, with a flight that the company said “went perfectly” on a follow-up call with media.
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Virgin Orbit isn’t slowing down after joining the exclusive club of small launch companies that have made it to orbit — the company just announced that it’s flying a payload on behalf of the Royal Netherlands Air Force (RNAF). This is the first-ever satellite being put up by the Dutch Ministry of Defense, and it’s a small satellite that will act as a test platform for a number of different communications experiments.
The satellite is called BRIK-II — not because it’s the second of its kind, but rather because it’s named after Brik, the first airplane ever owned and operated by the RNAF. This mission is one of Virgin Orbit’s first commercial operations after its successful test demonstration and will fly sometime later this year. It’s also being planned as a rideshare mission, with other payloads expected to join — likely from the U.S. Department of Defense, which is working with Virgin Orbit’s dedicated U.S. defense industry subsidiary VOX Space on planning what they’ll be adding to the mission load out.
This upcoming mission is actually a key demonstration of a number of Virgin Orbit’s unique advantages in the launch market. For one, it’ll show how the U.S. DOD and its ally defense agencies can work together in the space domain when launching small communications satellites. Virgin Orbit is also going to use the mission as an opportunity to show off its “late-load integration” capabilities — effectively, how it can add a payload to its LauncherOne rocket just prior to launch.
For this particular flight, there’s no real reason to do a late-load integration, since there’s plenty of lead time, but part of Virgin’s appeal is being able to nimbly add satellites to its rocket just before the carrier jet that flies it to its take-off altitude leaves the runway. Demonstrating that will go a long way to help illustrate how it differentiates its services from others in the launch market, such as Rocket Lab and SpaceX.
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SpaceX has set a new all-time record for the most satellites launched and deployed on a single mission, with its Transporter-1 flight on Sunday. The launch was the first of SpaceX’s dedicated rideshare missions, in which it splits up the payload capacity of its rocket among multiple customers, resulting in a reduced cost for each but still providing SpaceX with a full launch and all the revenue it requires to justify lauding one of its vehicles.
The launch today included 143 satellites, 133 of which were from other companies who booked rides. SpaceX also launched 10 of its own Starlink satellites, adding to the already more than 1,000 already sent to orbit to power SpaceX’s own broadband communication network. During a launch broadcast last week, SpaceX revealed that it has begun serving beta customers in Canada and is expanding to the UK with its private pre-launch test of that service.
Customers on today’s launch included Planet Labs, which sent up 48 SuperDove Earth imaging satellites; Swarm, which sent up 36 of its own tiny IoT communications satellites, and Kepler, which added to its constellation with eight more of its own communication spacecraft. The rideshare model that SpaceX now has in place should help smaller new space companies and startups like these build out their operational on-orbit constellations faster, complementing other small payload launchers like Rocket Lab, and new entrant Virgin Orbit, to name a few.
This SpaceX launch was also the first to deliver Starlink satellites to a polar orbit, which is a key part of the company’s continued expansion of its broadband service. The mission also included a successful landing and recovery of the Falcon 9 rocket’s first-stage booster, the fifth for this particular booster, and a dual recovery of the fairing halves used to protect the cargo during launch, which were fished out of the Atlantic ocean using its recovery vessels and will be refurbished and reused.
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The COVID-19 pandemic might have upended the global economy, but according to Meagan Crawford at Spacefund and Chris Moran with Lockheed Martin Ventures, it didn’t dampen investment in space startups.
The space industry has enjoyed a honeymoon period with hundreds of startups popping up in the past five to seven years following SpaceX’s success.
Spacefund research conducted earlier this year found that there is almost no correlation between the global economy and the space industry, said Crawford, a managing partner at the VC firm, last Thursday at TC Sessions: Space 2020. Crawford and Moran both agreed that interest and investment in space will increase as more startups have successful exits.
“We looked back historically over the last decade and a little bit more, and it turns out that even during the 2008-2009 economic downturn, the space industry continued to grow at 7% per year,” Crawford said, adding that they saw almost no correlation between the performance of the Global S&P 1200 and the space industry.
“I think a lot of this has to do with a big portion of the industry coming from government budgets, which provides a lot of stability even in economically rough times, as well as the industry being in such high demand and going through such a high-growth phase right now that even the pandemic couldn’t really slow it down,” she said.
Early-stage investments did suffer at the beginning of the year, Moran noted after the event, but added that it appeared to be temporary.
“Firms were circling the wagons on their portfolios, in-person incubator programs went on hiatus, so there were fewer early-stage companies out there and less money for those companies,” he said, adding that Pitchbook data confirmed LMVC’s suspicions and showed a 25% to 27% drop in new company formation over that time.
Since September, LMVC has seen a spike in new companies. Meanwhile, incubators and accelerators have adapted to COVID-19 restrictions, Zoom made face-to-face meetings easy and life “as usual” started back up again, Moran added.
The space industry has enjoyed a honeymoon period with hundreds of startups popping up in the past five to seven years following SpaceX’s success. Moran said this unabashed growth period will continue for a few years before narrowing.
“So like any any industry in VC, you see a lot of people jump in and then as business models collide and the need to generate some sustainable business happens there’s a lot of winnowing and narrowing of the field,” Moran said. “We’re probably still in that growth period, but I imagine over the next few years, we’ll start seeing this winnowing and really focus on the folks who have a technology and a business model that will be successful long term.”
Right now, the entire industry is funded on private capital, said Moran, who predicted investing is going to grow for some time as long as people see the excitement and promise of the industry. He added that easy access to public markets — notably the rise in mergers with special purpose acquisition companies — could drive even more money into space.
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Rocket launch startup Astra has joined an elite group of companies that can say their vehicle has actually made it to orbital space — earlier than expected. The company’s Rocket 3.2 test rocket (yes, it’s a rocket called “Rocket”) passed the Karman line, the separation point 100 km (62 miles) up that most consider the barrier between Earth’s atmosphere and space, during a launch today from Kodiak, Alaska.
This is the second in this series of orbital flight tests by Astra; it flew its Rocket 3.1 test vehicle in September, but while that flight was successful by the company’s own definition, since it lifted off and provided a lot of data, it didn’t reach space or orbit. Both the 3.1 and 3.2 rockets are part of a planned three-launch series that Astra said would be designed to reach orbital altitudes by the end of the trio of attempts.
Astra is a small satellite launch startup that builds its rockets in California’s East Bay, at a factory it established there which is designed to ultimately produce its launchers in volume. Their model uses smaller craft than existing options like either SpaceX or Rocket Lab, but aims to provide responsive, short turnaround launch services at a relatively low cost — a bus to space rather than a hired limousine. They compete more directly with something like Virgin Orbit, which has yet to reach space with its launch craft.
The view from Astra’s Rocket 3.2 second stage from space.
This marks a tremendous win and milestone for Astra’s rocket program, made even more impressive by the relatively short turnaround between their rocket loss error in September, which the company determined was a result of a problem in its onboard guidance system. Correcting the mistake and getting back to an active, and successful launch, within three months, is a tremendous technical achievement, even in the best of times, and the company faced additional challenges because of COVID-19.
Astra was not expecting to make it as far as it did today — the startup has defined seven stages of reaching orbital flight for its development program; today it expected to achieve 1) count and liftoff; and 2) reaching Max Q, the point of maximum dynamic pressure undergone by a rocket in flight in Earth’s atmosphere. Third, they were looking to achieve nominal main-engine cutoff for first stage — and this is where they would’ve pegged success today, but the “rocket continued to perform,” according to CEO and founder Chris Kemp on a call following the launch.
Rocket 3.2 then performed a successful stage separation, and then the second stage passed through the Karman line, reaching outer space. After that, it went farther still, achieving a successful upper-stage ignition, and a nominal upper-stage engine shut off six minutes later. Even then, the rocket reached 390 km, which is its target orbital height, but then reached a velocity of 7.2 km per hours, just one half km/hour less than the 7.68 km required for orbital velocity.
Astra emphasized that the mix for the propellant for this stage is basically only to be nailed down while testing in situ in space, so they say this will just require some upper-stage propellant mixtures to achieve that extra velocity, and Kemp said they’re confident they can do that in the next couple of months, and start reliving payloads early next year. This won’t require any hardware or software changes, the company noted, just a tweak in the variables involved.
Image Credits: John Kraus for Astra (opens in a new window)
He added that this is a big win for the underlying theory behind Astra’s approach, which focuses on using significant amounts of automation in order to reduce costs.
“We’ve only been in business for about four years, and this team only has about 100 people today,” Kemp said. “This team was able to overcome tremendous challenges on the way to this success. We had a member of the team quarantining, and tested positive on the way to Kodiak, which meant they had to quarantine the entire team, and then sent an entire backup team to replace them.” This was possible because they only use five people on the launch team.
“We now are at a point where just five people can go up, and set up the entire launch site and rocket, and launch in just a couple of days,” Kemp said. The team is literally just five people — including labor, rocket unloading, setup and everything on-site — the rest is run remotely from mission control in California via the cloud.
Now they will do some tuning for Rocket 3.3, which is currently in California at the Astra factory, before soon attempting that final orbital test flight with a payload on board to deploy. After that, they intend to continue to iterate with each version of Rocket launched, focusing on reducing costs and improving performance through rapid evolution of the design and technology.
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Listen up, space fans and aficionados. You have just 48 hours left to secure an early-bird ticket to TC Sessions: Space 2020, a two-day virtual conference dedicated to early-stage space startups and the community that supports them. Join the brilliant minds, leading founders, shrewd investors and boundary-pushing engineers determined to shape the future of space exploration and everything that entails.
Early-bird pricing remains in orbit for another 48 hours. Buy your ticket ($125) before the orbit decays on November 13 at precisely 11:59 p.m. (PT) and save $100.
You’ll have an outstanding selection of presentations, interviews, panel discussions, breakout sessions and interactive Q&As available at the click of your mouse. Expert speakers — spanning the public, private and defense sectors — will share a veritable galaxy of wisdom, experience and insight.
What level of expertise are we talking here? Well, and this is just for starters, we have NASA Associate Administrator of Human Exploration & Operations Mission Directorate Kathryn Lueders, Rocket Lab CEO Peter Beck, U.S. Space Force Chief of Space Operations General Jay Raymond, Lockheed Martin VP and Head of Civil Space Programs Lisa Callahan.
Topics cover a broad swath of technologies, including 3D-printed rockets, earth observation data, orbital operations, ground station networks, launch services, broadband communications, defense operations and manufacturing in space. Explore the event agenda here.
You’ll find up-and-coming early-stage startups and sponsors showcasing their technology in our expo area. See the latest innovations and connect with potential customers, collaborators or investors. And be sure to take advantage of CrunchMatch. Our free AI-based platform takes the pain out of networking and helps you find and connect with the people who align with your goals. It’s the perfect tool to bridge a virtual conference and connect with attendees around the globe.
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Don’t miss your opportunity to learn from, engage and connect with other brilliant members of your elite community at TC Sessions: Space 2020 on December 16-17. Don’t space out on early-bird savings — only 48 hours left! Purchase your ticket before November 13 at 11:59 p.m. (PT).
Is your company interested in sponsoring TC Sessions: Space 2020? Click here to talk with us about available opportunities.
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Rocket Lab is set to complete a crucial test for its rocket reusability program during its next mission, which is currently set to take place sometime in mid-November, with a launch widow that opens on November 16. This is a bit of a surprise, because the launch company said that it would be doing this on its 17th flight, and the next launch is actually its 16th, but the company had a succinct answer for why it moved up the timetable.
I know we said flight 17 for recovery but… pic.twitter.com/N3HDdCwPFD
— Rocket Lab (@RocketLab) November 5, 2020
This isn’t the first test Rocket Lab has performed in pursuit of reusability — after announcing in August 2019 its intent to recover and refly the Electron booster, something Rocket Lab founder and CEO Peter Beck originally said wasn’t in the cards for the company, Rocket Lab has tested reentry guidance and control systems, as well as the parachute to be used to slow the booster’s descent once it’s back in Earth’s atmosphere.
In a video released today, Beck explained the reasoning behind even attempting to recover the boosters (essentially to increase the company’s rate of production by eliminating the need to build a new booster for every flight) and also the reasons why it wasn’t in the original plan (the Electron is too small to allow for an engine-powered boost back like the ones Falcon 9 and Blue Origin’s New Shepard uses).
But Beck and team realized they could use an unconventional approach that involves flipping the rocket around and angling it such that it survives reentry, paired with a drogue parachute deployment and primary parachute combo that slows it enough that a helicopter can catch it midair as it drifts. This recovery attempt won’t include that midflight snag, but will instead hopefully see the booster land itself gently enough on the ocean’s surface, slowed by the chute, allowing a recovery team to pick it up.
Beck says that the helicopter catch part is actually not his biggest concern, since the company has previously demonstrated that part of its approach works in practice. Instead, it’s ensuring that they’re just able to actually get the stage after it deploys its orbital cargo to begin with.
If Rocket Lab can recover this first stage, that will put it well-within striking distance of putting an operational recovery system in place, hopefully leading to less time between launches and potentially lower operational costs down the line.
No matter how the launch works out, we’ll get the chance to go over the attempt and next steps with Beck at our inaugural TC Sessions: Space event in December, where he’s joining us on our virtual stage for a fireside chat.
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Whether space is the final frontier remains to be seen, but it’s certainly the next one as far as we’re concerned. On December 16-17, we’re hosting TC Sessions: Space 2020, a two-day online conference and our first event focused squarely on space technology and the early-stage startups and investors that make it possible.
The future of this industry is wide open, and it’s going to require cultivating a deep bench of visionaries to sustain it. And it starts with affordable access for students eager to turn science fiction into fact. Grab your $50 student pass here and get ready to shift your career into warp speed.
Pro Tip: We offer a range of ticket options for nonstudents (including discounts for government, military and nonprofits). Buy yours before early-bird pricing ends on November 13 at 11:59 p.m. PST. Also, current Extra Crunch subscribers receive an additional 20% discount on passes.
This is your chance to hear from the best and brightest people leading this universal expedition. You’ll meet and engage with engineers, founders, investors, executives, military and government officials.
We’re talking officials like NASA administrator Jim Bridenstine and Space Command’s General John W. Raymond. We’re talking founders like Relativity Space’s Tim Ellis and Rocket Lab’s Peter Beck. We’re talking investors like Bessemer Venture Partners’ Tess Hatch and SpaceFund’s Meagan Crawford. And that’s just the tip of the rocket, so to speak.
We’re packing the two-day event with top-notch programming. Set coordinates for the main stage for fireside chats and moderated panel discussions. TechCrunch editors ask the tough questions and dig deep on topics like launch services, orbital operations, ground station networks, broadband communications, earth observation data, manufacturing and military operations in space.
Don’t miss the breakout sessions and Q&As. Breakouts let you explore specific topics. Main stage events always generate lots of questions, and the Q&A sessions give the audience a chance to pose questions to speakers who appeared on the main stage.
Searching for a stellar internship or a job that’s out of this world? Ouch. Explore the expo area where you’ll find early-stage space startups and sponsors showcasing their tech and talent.
That brings us to networking. Remember, this virtual conference reaches thousands of people around the world. It’s prime territory for expanding your network — an essential part of startup success. You’ll have free use of CrunchMatch, our AI-powered networking platform.
It makes quick, efficient work out of finding, scheduling and meeting people. Not just any people — people who align with your startup interests. People who can help you build a business or a career. Answer a few quick questions when you register and CrunchMatch goes to work for you.
We’ll have plenty more to announce over the next two months, so stay tuned. TC Sessions: Space 2020 blasts off on December 16-17. Don’t wait, buy your $50 student pass today and boldly go!
Is your company interested in sponsoring TC Sessions: Space 2020? Click here to talk with us about available opportunities.
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Rocket Lab’s next mission will put dozens of satellites into orbit using the launch company’s Kick Stage “space tug,” as well as a 3D-printed garden gnome from Valve Software’s Gabe Newell. The latter is a test of a new manufacturing technique, but also a philanthropic endeavor from the gaming industry legend.
Scheduled for no earlier than November 15 (or 16 at the New Zealand launch site), the as-yet-unnamed launch — Rocket Lab gives all of their missions cheeky names — will be the company’s “most diverse ever,” it said in a press release.
A total of 30 satellites will be deployed using Rocket Lab’s own Kick Stage deployment platform, which like other “space tugs” detaches from the second stage once a certain preliminary orbit is reached and then delivers its payloads each at their own unique trajectory. That’s the most individual satellites every taken up at once by Rocket Lab.
Twenty-four of them are Swarm Technologies’ tiny SpaceBEEs, the sandwich-sized communications satellites it will be using to power a low-cost, low-bandwidth global network for Internet of Things devices.
The most unusual payload, however, is certainly “Gnome Chompski,” whose passage was paid by Valve president Newell: a 3D-printed figure that will remain attached to the Kick Stage until it burns up on reentry. The figure, a replica of an item from the popular Half-Life series of PC games, was made by Weta Workshop, the effects studio behind Lord of the Rings and many other films. It’s both a test of a potentially useful new component printing technique and “an homage to the innovation and creativity of gamers worldwide.”
More importantly, Newell will donate a dollar to Starship Children’s Hospital for every viewer of the launch, so you’ll definitely want to tune in for this one. (I’m waiting to find out more from Newell, if possible.)
The launch will also deliver satellites for TriSept, Unseenlabs and the Auckland Space Institute — the last will be New Zealand’s first student-built spacecraft.
Rocket Lab has worked hard to make its launch platform all-in-one, so prospective customers don’t have to shop around for various services or components. Ideally, the company’s CEO has said, anyone should be able to come to the company with the bare-bones payload and the rest is taken care of.
“Small satellite operators shouldn’t have to compromise on orbits when flying on a rideshare mission, and we’re excited to provide tailored access to space for 30 satellites on this mission. It’s why we created the Kick Stage to enable custom orbits on every mission, and eliminate the added complexity, time, and cost of having to develop your own spacecraft propulsion or using a third-party space tug,” Beck said in the press release.
Rocket Lab recently launched its own home-grown satellite, First Light, to show that getting to orbit doesn’t have be such a “pain in the butt,” as Beck put it then.
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