Category: Industry News

In the space of four days, SpaceX picked up two Golden Dome contracts worth a combined $6.45 billion.

On May 26, the Space Force awarded SpaceX $2.29 billion for the Space Data Network Backbone – a secure, high-speed communications layer built on Starshield satellites that connects missile defense sensors, interceptors, and command systems. The fully operational prototype is due by the end of 2027.

On May 29, SpaceX won $4.16 billion for the Space-Based Airborne Moving Target Indicator (SB-AMTI) program – a satellite constellation designed to detect, track, and maintain targeting data on aircraft, bombers, cruise missiles, and potentially hypersonic weapons from orbit. Initial constellation targeted for 2028.

To put that in perspective: SpaceX’s Golden Dome contracts alone now exceed the combined prototype awards given to every other company in the program. The $3.2 billion in interceptor prototypes we wrote about last month was split across 12 companies. SpaceX just got double that by itself.

What These Contracts Actually Build

The two contracts are different pieces of the same system.

The SDN Backbone is the network.

It’s the plumbing that moves data between sensors, weapons, and command centers at the speed required to track and intercept threats in real time. Think of it as a military-grade version of the Starlink mesh – encrypted, hardened, and designed to work even when parts of the network are disrupted.

The SB-AMTI constellation is the sensor layer.

These satellites replace what aircraft like the E-3 AWACS and E-7 Wedgetail currently do – scanning the sky for airborne threats. The difference is that satellites can do it from orbit, where they’re much harder to shoot down or jam than a plane flying in contested airspace.

Together, they form two core layers of the Golden Dome architecture: the eyes that see the threats and the network that delivers that information to the people who act on it.

Both are being built on Starshield, SpaceX’s government-focused variant of Starlink. Where Starlink delivers broadband to consumers, Starshield carries encrypted communications, optical inter-satellite links, missile warning sensors, and target-tracking payloads.

The Talent Implications

$6.45 billion in new defense work, with 2027 and 2028 deadlines, means SpaceX’s Starshield division needs to scale fast. This isn’t Starlink manufacturing, where the production line is already running at rate. These are new capabilities — sensor payloads, secure communications systems, and AI-enabled ground processing — that need engineering teams built around them.

The roles that will see the most immediate demand:

RF and sensor engineers.

SB-AMTI is fundamentally a sensing program. The satellites need radar systems that can detect and track moving targets from orbit – a technically demanding requirement that draws from both the space and defense radar talent pools.

Mission software and autonomy developers.

A satellite constellation that tracks threats in real time and feeds targeting data into the military kill chain needs onboard processing that makes decisions faster than a ground operator can. The software engineering behind this is closer to autonomous systems work than traditional satellite operations.

Cleared systems engineers.

Both programs require people who can integrate complex military systems while holding TS/SCI clearances. This profile was already one of the hardest hires in the sector. $6.45 billion in new SpaceX defense work makes it harder.

Ground systems engineers.

The data these satellites collect needs to be received, processed, and distributed through ground infrastructure. Building and operating that ground segment is its own engineering challenge with its own workforce requirement.

Secure communications specialists.

The SDN Backbone is a communications network designed to operate under adversarial conditions. The engineers who build it need to understand satellite comms, encryption, network resilience, and the specific requirements of defense data transport.

The SpaceX Defense Machine

This week puts a spotlight on something that’s been building for a couple of years: SpaceX isn’t just a launch company or a Starlink company anymore. It’s becoming one of the largest defense space contractors in the country.

Starshield revenue has been less visible than Starlink’s – the S-1 filing doesn’t break it out separately. But $6.45 billion in new Golden Dome contracts in a single week makes it impossible to ignore. Add in Starshield’s existing classified work (which predates Golden Dome) and the company’s role as the primary launch provider for national security missions, and SpaceX’s defense portfolio is approaching the scale of traditional primes.

For engineers, this changes the calculation.

A few years ago, joining SpaceX meant working on rockets and Starlink. Now it can also mean working on classified missile defense systems, secure military communications, and space-based surveillance. The breadth of work available under one roof is expanding – which makes SpaceX an even more powerful talent magnet for engineers interested in defense space.

For every other company hiring in this market, that’s the challenge.

SpaceX can offer defense engineers the combination of operational tempo, technical scope, compensation (with the IPO approaching), and now $6+ billion in defense contracts. Competing with that requires being very clear about what you offer that SpaceX doesn’t.

The Broader Golden Dome Picture

SpaceX may be the biggest winner so far, but Golden Dome is not a one-company program. The Space Force has said it will not single-source the broader architecture, and additional SB-AMTI vendor awards are expected over the next year. The $3.2 billion in interceptor prototype contracts went to 12 companies. The sensor and interceptor layers will likely involve multiple vendors.

That means the talent competition is multi-directional. SpaceX is hiring for Starshield. The 12 interceptor prototype companies are hiring for their programs. The yet-to-be-announced SB-AMTI vendors will be hiring when their contracts are awarded. And all of them need cleared engineers with overlapping skillsets.

The FY2027 budget request includes $7.06 billion specifically for SB-AMTI, signalling that this is just the beginning. The full Golden Dome architecture is estimated at $175 to $185 billion. The contracts awarded so far are the first pieces of a program that will drive defense space hiring for the next decade.

The Takeaway

$6.45 billion in Golden Dome contracts in one week. A $1.75 trillion IPO on the horizon. Starship V3 flying. 13,000+ employees about to get liquid.

SpaceX is operating on a scale that the space sector has never seen from a single company. For engineers, that creates options that didn’t exist two years ago. For companies competing for the same talent, it creates a hiring environment that requires more speed, more clarity, and a better answer to the question every candidate is asking: why should I come here instead of there?

Golden Dome is the biggest defense space program in history, and the teams that will build it are being assembled right now.

Last night, Blue Origin’s New Glenn rocket exploded during a static fire test at Cape Canaveral. The 320-foot rocket erupted into a fireball at around 9pm ET as the engines appeared to ignite. The rocket was destroyed. The launch pad (Blue Origin’s only pad for New Glenn) was destroyed. The transporter, erector, and at least one lightning tower were destroyed. No one was hurt.

The footage is dramatic.

The headlines will be dramatic.

And a lot of people will look at this and think Blue Origin is finished, or that the space sector just took a devastating blow.

They’re wrong.

What Actually Happened

Blue Origin was conducting a hotfire test – firing the rocket’s engines while it’s still bolted to the ground – ahead of a planned launch next week. The NG-4 mission was supposed to carry 48 Amazon Leo broadband satellites into orbit, the first of 24 launches Amazon has contracted Blue Origin to fly.

Something went wrong at the base of the rocket as the engines started firing. The first stage caught fire, the upper stage began tilting, and seconds later the entire vehicle exploded. It was the first on-pad explosion at the Cape since SpaceX’s Falcon 9 blew up on pad 40 in September 2016.

The cause hasn’t been confirmed yet, and this is a separate issue from the NG-3 upper stage failure in April, which was caused by a cryogenic leak that froze a hydraulic line. Blue Origin had just received FAA clearance to fly again six days before this happened.

Jeff Bezos posted: “Very rough day, but we’ll rebuild whatever needs rebuilding and get back to flying. It’s worth it.”

NASA Administrator Jared Isaacman said: “Spaceflight is unforgiving, and developing new heavy-lift launch capability is extraordinarily difficult.”

Both statements are worth taking seriously.

Failure Is How This Industry Works

This is hard to hear on the day a rocket explodes, but it’s true: every major launch company in history has been through catastrophic failures, and the ones that survived them came back stronger.

SpaceX’s Falcon 9 exploded on the pad in 2016.

The company was grounded for three and a half months. The pad was out of action for over a year. Today, Falcon 9 launches every two to three days and is the most reliable operational rocket in the world. SpaceX didn’t succeed despite that failure – the investigation and rebuild made the vehicle better.

Starship has exploded multiple times during its test program.

Each failure generated data that informed the next design. Starship V3 launched successfully on May 19, putting over 100 metric tons to orbit.

New Glenn has now flown three times.

The first flight reached orbit – something no commercial rocket had achieved on its maiden launch. But the booster didn’t land. The second flight landed the booster successfully, and the third flight landed the booster again but lost the payload due to the upper stage failure. Each flight taught the engineering team something that changed the next one.

Last night’s explosion is a setback, but the people who build rockets understand something that the headlines don’t capture: this is what the development cycle looks like. The question isn’t whether failures happen. It’s what you do after them.

The Immediate Impact

The short-term consequences are real and significant.

Amazon’s 24-launch manifest is frozen.

No satellites are going up on New Glenn until the pad is rebuilt and the vehicle is cleared to fly again. After the 2016 SpaceX pad explosion, it took over a year to rebuild the pad. Amazon has 270 production satellites in orbit against an FCC deadline of 1,618 by July. They’ll need alternative launch providers. Atlas V is already launching Amazon Leo satellites, and other vehicles may need to be added to the manifest.

Artemis timelines are at risk.

Blue Origin’s Blue Moon lander launches on New Glenn, the Moon Base 1 cargo delivery was targeting fall of 2026, and the Artemis 3 low-Earth-orbit demonstration is planned for mid-2027. NASA said it’s assessing the impacts, but any extended grounding of New Glenn directly affects these schedules. Just days before the explosion, NASA awarded Blue Origin a $188 million contract for lunar rover deliveries.

The pad needs to be rebuilt.

LC-36 was Blue Origin’s only New Glenn launch pad, and the infrastructure damage appears to be extensive. Rebuilding a launch complex is months of work involving ground systems engineers, facilities specialists, construction crews, and the entire pad operations team.

Why This Is Actually a Hiring Story

Here’s the part that most coverage will miss.

An explosion like this doesn’t reduce a company’s need for people. It increases it.

Blue Origin needs to investigate, rebuild, and return to flight. That means:

• Forensic engineers analyzing what went wrong
• Ground systems and facilities engineers rebuilding the pad
• Quality and reliability specialists reviewing every process that led to the test
• Manufacturing engineers building the next vehicle
• The entire existing engineering team continues to work on the programs that don’t stop because of one bad night (the BE-4 engine production line, the Blue Moon lander, the orbital reef program)

Bezos said “we’ll rebuild whatever needs rebuilding.” That’s a hiring statement as much as it’s a mission statement.

Beyond Blue Origin itself, the ripple effects create demand elsewhere. If Amazon needs to shift launches to other providers, those providers need to scale their operations to absorb the additional missions. If Artemis timelines shift, the programs downstream of Blue Origin’s lander – surface systems, crew equipment, science payloads – may need to adjust their own workforce plans.

What This Tells You About Working in Space

If you’re an engineer considering the space sector, last night might have given you pause. A rocket exploding on the pad is not exactly a recruiting video.

But here’s the reality: the engineers who work through failures like this are the most valuable people in the industry. The person who helps investigate what went wrong, redesigns the system, and gets it flying again has experience that can’t be taught in a classroom or gained on a program where nothing ever breaks.

SpaceX’s most experienced engineers are the ones who were there when Falcon 9 blew up in 2016. They stayed, they fixed it, and they built the most successful launch vehicle in history. The Blue Origin engineers who work through this will carry the same kind of experience.

The space sector doesn’t need people who only want to work on successes. It needs people who can handle the hard days, and last night was a hard day.

The Takeaway

New Glenn will fly again. The pad will be rebuilt. The Amazon launches will resume. The Artemis programs will adjust. That’s not optimism – it’s how the space industry has always worked.

The companies and engineers who treat setbacks as data rather than defeat are the ones who build the things that eventually work. Last night’s explosion is a chapter in a story that isn’t close to being finished.

As Bezos said: it’s worth it.

The White House wants to give the Space Force $71.2 billion next year. That’s more than double the $31.6 billion it got this year, and the biggest single-year increase since the service was created in 2019.

The US government is treating space as a primary theater of military competition. That decision is going to change who gets hired, where they work, and how much they get paid.

Where the Money Goes

Here’s how the $71.2 billion breaks down – and why each line item is really a hiring signal.

$38 billion for research, development, testing, and evaluation – more than the Space Force’s entire budget last year. This is the money that flows to contractors building the next generation of satellites, ground systems, and space surveillance capabilities. Every one of those programs needs engineers.

Nearly $10 billion for procurement – a fivefold increase. This is where hardware gets built and bought: satellite buses, launch vehicles, ground terminals. Manufacturing engineers, quality specialists, and production managers are the people who turn procurement dollars into actual systems.

$6.7 billion for satellite communications (up 60%). $6.8 billion for missile warning and tracking (up 70%). $21.6 billion for space control – the systems that contest and defend the domain – up 158%.

The budget also adds 2,800 new Guardians to the force.

The Contradiction

Here’s where it gets interesting. The same administration proposing to double the Space Force budget cut 14% of the service’s civilian workforce last year. More than 4,000 NASA employees left in 2025, and the Space Force saw similar reductions.

So now the service needs to handle a budget that’s grown by $40 billion – with fewer people than it had 12 months ago.

The Pentagon has acknowledged this is a problem. But the people who left aren’t coming back, and the programs they supported still need to run. In practice, that means a huge portion of this budget will flow to contractors – primes, mid-tier defense companies, and the commercial space firms that are increasingly winning defense work.

Those contractors need to grow their teams fast.

One important caveat: not all of this money is guaranteed. Only about $400 million of the Golden Dome funding is in the base budget – the remaining $17.1 billion needs Congress to pass another reconciliation bill. Given last year’s spending fights, that’s not a certainty. But companies are already hiring against the direction of travel, not waiting for the final number.

Space Force officials have said the service’s workforce could double over the next decade. Whether or not the full budget passes as written, the signal is strong enough that the talent market is already moving.

Which Roles Will Be Hardest to Fill

Based on where the spending is concentrated, a few engineering disciplines are about to get much more competitive.

RF and satellite comms engineers

The $6.7 billion satcom investment needs people who can design, build, and integrate communications payloads and ground terminals. RF engineering is already one of the hardest hires in space — across our searches, these roles consistently take the longest to fill.

Missile warning and tracking engineers

The $6.8 billion investment means more demand for EO/IR (electro-optical and infrared) engineers, signal processing specialists, and the systems engineers who put these sensors into working architectures.

Software engineers

Those with experience in space surveillance, command and control, and autonomous systems. The $21.6 billion space control budget needs sophisticated software behind it, and the engineers who can build it are a small group.

Anyone with a clearance

Most programs funded by this budget require security clearances, many at TS/SCI level. The pool of cleared space engineers was already tight. This budget makes it tighter.

What This Means If You’re an Engineer

If you work in or near the space sector, this budget is one of the biggest career signals in years.

Your skills are worth more than you think

When $40 billion in new funding hits a market in a single year, demand for experienced people outpaces what the pipeline can produce. Compensation is going to move. If your current employer hasn’t adjusted, the market will tell you what you’re worth.

Clearance is a career accelerator

If you hold an active clearance or can get one, you’re worth more in this market than you were a year ago. The highest-demand, highest-paying roles are increasingly behind a clearance requirement. Engineers without clearances can still find plenty of opportunity in commercial space, but the defense side is where compensation is climbing fastest.

The line between defense and commercial is disappearing

A lot of the companies that will execute on this budget were purely commercial two years ago. Sierra Space closed $550 million in funding and has won roughly $1.5 billion in defense contracts. Voyager Technologies rebranded to emphasize national security. If you’ve been avoiding defense work, the space sector is making that harder to do.

Location matters

Colorado Springs, Denver, LA, and the DC corridor are where Space Force spending concentrates. If you’re in one of these metros, opportunities will find you. If you’re not, relocation may be part of the equation for the best roles.

What This Means If You’re Hiring

For commercial space companies that also compete for defense work, this budget is both an opportunity and a problem.

The opportunity: $71.2 billion creates contract possibilities at a scale this sector has never seen. Companies that can deliver on defense programs get access to revenue that brings stability and growth.

The problem: every dollar the Space Force spends creates demand for the same engineers that commercial programs need. The RF engineer you want for your comms constellation is the same RF engineer that a Space Force contractor wants for a classified satcom program. And the defense side might offer a higher salary, better job security, and a clearance that makes the engineer more valuable for the rest of their career.

The companies that handle this well will be the ones that understand what they’re actually competing against – and adjust their speed, their compensation, and their pitch accordingly.

SpaceX’s S-1 filing went public today. For the first time in 24 years, we can see the actual numbers behind one of the most important companies in the space sector.

• $18.7 billion in revenue last year.
• 10.3 million Starlink subscribers across 164 countries.
• A targeted valuation of $1.75 trillion.
• A planned raise of up to $80 billion – which would make it the largest IPO in history, more than doubling Saudi Aramco’s 2019 record.

The headline most people will see is that this IPO could make Elon Musk the world’s first trillionaire. He owns approximately 42% of SpaceX, and at a $1.75 trillion valuation, his stake alone would be worth over $700 billion – pushing his total net worth past the trillion-dollar mark when combined with his Tesla holdings. It’s the kind of number that’s easy to scroll past as spectacle.

But look at what it actually represents. A space company – a company that builds rockets and runs a satellite internet network – is about to become one of the most valuable public companies on Earth. That says something about where this industry is heading and what it’s worth.

Every founder in the sector is watching, every investor is recalculating what a space company can become, and every engineer is rethinking what it means to hold equity in a company building the infrastructure of the space economy.

The trillionaire headline is sensational – the signal underneath it is not. The space sector just proved it can produce wealth at a scale that was previously reserved for software and oil. That changes how capital flows into the sector, how companies are valued, and how aggressively they hire to capture the opportunity.

The financial story will dominate the headlines, but the talent story is the one that will reshape the space sector for the next two years.

What the Numbers Tell Us

The S-1 reveals a company that’s really three businesses under one roof.

Starlink is the money machine.

$11.4 billion in revenue last year, $1.2 billion in profit last quarter alone. 10.3 million subscribers, up from 5 million just twelve months ago. This is the business that justifies the valuation and funds everything else.

The space division

Launches, Starship, crew missions – generated $4.1 billion in revenue last year but lost $657 million. Starship is the long-term bet: designed to put 100+ metric tons in orbit, it launched its V3 variant for the first time on May 19, and it’s the vehicle NASA is counting on for Artemis lunar landings.

The AI segment

xAI and X (formerly Twitter) – is burning cash at an extraordinary rate. $7.7 billion in capital expenditure in Q1 2026 alone, most of it going toward GPU clusters, data centers, and infrastructure. SpaceX has said it plans to deploy data centers in space as early as 2028.

Three businesses: all of them hiring, all of them competing for engineers with slightly different but overlapping skillsets.

The Liquidity Event

SpaceX employs more than 13,000 people. Many hold equity that until now has been valuable on paper but not accessible as cash. The company ran periodic tender offers – most recently at $421 per share in late 2025 – but those were limited in scope.

An IPO changes that completely.

Once shares trade publicly on the Nasdaq under the ticker SPCX, every employee with vested equity can sell. For engineers who joined five or more years ago, when SpaceX’s valuation was a fraction of $1.75 trillion, that could be a life-changing amount of money.

And when engineers have financial security, their career thinking changes.

What Happens Next

The pattern from previous large tech IPOs is well-documented. After a major liquidity event (when equity becomes cash), a portion of the workforce starts looking at what else is out there. Not everyone though, as SpaceX’s mission is unusually compelling, and many will stay regardless. But a meaningful percentage will, for the first time, be in a position to take career risks they couldn’t afford before.

Some employees will leave to start companies.

SpaceX alumni have already founded dozens of space startups – Relativity Space, Impulse Space, Varda, Stoke Space, and many others. An IPO gives more people the financial runway to do the same.

Some will move to smaller companies where they can own more.

A principal engineer who’s been one contributor on a massive program might be drawn to a Series A company where they can lead the whole thing.

Some employees will take a break.

After years at one of the most demanding workplaces in aerospace, a subset will step away for six to twelve months. When they come back – and most do – they’ll re-enter the market with SpaceX on their resume and a clear sense of what they want next.

Why This Matters to Every Other Space Company

SpaceX is the sector’s primary talent development engine. Launch, satellite operations, human spaceflight, and now AI infrastructure – the breadth of experience a SpaceX engineer picks up in three to five years is hard to match anywhere else.

That makes SpaceX alumni the most sought-after candidate pool in commercial space. Every growth-stage company wants them, but few can compete on compensation, mission scope, or brand.

But the IPO changes the dynamic in a way that favors smaller companies.

Before the IPO, a SpaceX engineer considering a move had to weigh the cost of leaving before their equity was liquid. That calculation kept a lot of people in place even when they were interested in other things. After the IPO, that anchor goes away, the equity is monetized, and the decision becomes about what they want to do, not what they can afford to do.

For companies that have been trying to recruit from SpaceX and getting nowhere, the six to twelve months after the IPO may be the best window in years.

What We’re Seeing at EVONA

The SpaceX IPO isn’t happening in isolation. It’s one data point in a sector that has seen one of the biggest shifts we’ve seen.

The funding that’s entered the sector – Vast’s $500M, Sierra Space’s $550M, the Space Force budget doubling to $71.2 billion, Starship V3 proving out the most capable rocket ever built – is translating directly into hiring urgency. Companies in the US and across the world are coming to us to grow their teams across all departments.

The excitement for the industry is growing, but so is the competition for talent, and we’re seeing that firsthand. When multiple well-funded companies are all hiring for similar roles at the same time, the candidates have options they didn’t have 12 months ago. The companies that move fast, pay better, and tell a clear story about why someone should join are the ones closing. The ones still operating at previous speeds are losing people to competitors who figured it out.

The SpaceX IPO will accelerate all of this. More engineers with options, more financial freedom to take risks, and more movement in a market that’s already the most active we’ve seen.

What SpaceX Alumni Want

When SpaceX engineers do enter the market, their priorities tend to cluster around a few things.

Ownership.

At SpaceX, you contribute to enormous programs but rarely own one end to end. The engineers who leave want to lead a mission, build a team, or define a technical direction.

Pace with purpose.

They’re used to moving fast and they don’t want to slow down. But they want the speed pointed at something they feel personally invested in.

Equity that could mean something again.

Having been through one liquidity event, they understand what early equity can be worth. A Series A company with a credible growth path is offering something SpaceX can’t — the chance to do it again, earlier.

A different kind of challenge.

Building a spacecraft from scratch at a 50-person company is a fundamentally different problem than optimizing a subsystem on the 300th Falcon 9 mission. For engineers who want to stretch, that’s compelling.

How Space Companies Can Prepare for the SpaceX IPO Talent Window

If you’ve been watching SpaceX thinking “we’ll never compete for those people,” the IPO may change that. But only if you’re ready.

Build relationships now.

The engineers who leave post-IPO won’t be browsing job boards. They’ll go to companies they’ve already heard of, people they’ve already talked to, and opportunities already on their radar. If your first outreach is in August, you’re late.

Know what you offer that SpaceX doesn’t.

You can’t compete on brand or scale. You can compete on ownership, trajectory, flexibility, and the chance to be early at something meaningful. Be specific about what that looks like.

Move fast.

SpaceX engineers approach career decisions the same way they approach engineering problems — clear framework, defined criteria, compressed timeline. If your process takes eight weeks, they’ll have accepted somewhere else.

The Bigger Picture

The SpaceX IPO is a once-in-a-generation event for the space sector. It will create wealth, create movement, and create opportunity – for the engineers who cash out and for the companies ready to receive them.

The talent effect won’t be immediate or uniform. But over the next six to eighteen months, the space sector’s talent market will be more fluid than it’s been at any point in the commercial era. The companies that prepare now will build the next generation of teams from the strongest talent pool the sector has ever produced.

This morning, Vast announced a new product line: high-power satellite buses built for communications, Earth observation, national security, and orbital data centers. The first offering is a 15 kW-class bus with a dry mass of 700 kg, capable of hosting payloads of at least 350 kg. They’ve already signed a confidential customer for four satellites, with an option for 200 more. First batch launches are planned for late 2027.

Vast raised $500 million earlier this year to build commercial space stations and they have over 1,000 employees in Long Beach. Haven-1, their first station module, is targeting a 2027 launch. And now they’re entering the satellite bus market.

That pivot tells you something important about where the space sector is heading – and what it means for the people working in it.

The Pattern: Diversify Early, Hire Twice

Vast isn’t the first space company to expand beyond its original product. Rocket Lab started as a launch company and moved into satellite manufacturing. SpaceX went from launch to Starlink to Starshield. Blue Origin is building engines, rockets, and lunar landers simultaneously.

The pattern is consistent: successful space companies diversify earlier than most people expect, and each new product line creates a new wave of hiring.

What Vast’s CEO Max Haot said is worth paying attention to: every successful space company with heritage is diversified. The only questions are when and what. For Vast, the answer is now, and the answer is satellite buses – because nearly all the technology they’ve built for Haven-1 translates directly.

The avionics, power systems, flight computers, sensors, flight software, and GNC – all of it was already developed in-house for the station program and flight-tested on Haven Demo last year. The only major new pieces are deployable solar arrays and electric propulsion, both of which were already in development for Haven-2.

That means the initial engineering team can cover the satellite bus work without a completely separate hiring effort. But here’s where it changes: if the option for 200+ satellites gets exercised, Vast needs to build a production operation. And manufacturing satellites at volume is a fundamentally different workforce challenge than building a one-of-a-kind space station.

From Prototype to Production: The Hiring Shift

Building a space station is a craft operation. Small teams of experienced engineers designing, assembling, and testing a single complex vehicle. The skills that matter most are depth of expertise, the ability to solve novel problems, and comfort with ambiguity.

Building 200 satellites is a manufacturing operation. Production lines, quality systems, supply chain management, and the ability to build the same thing reliably at rate. The skills that matter shift toward manufacturing engineering, production planning, quality assurance, test automation, and supply chain coordination.

This is the transition that every space company faces when it moves from building one of something to building many. And it’s the transition that catches companies off guard if they don’t plan the workforce for it.

The engineers who designed the satellite bus are not the same people who will run a production line building 50 of them a year, but both of these groups are essential. However, the manufacturing and production workforce is the one that needs to be hired, and they’re in short supply across the entire industry.

We’ve seen this pattern across space companies scaling from prototype to production. The engineering talent that gets a company to its first flight is deep but small. The workforce that gets a company to its fiftieth unit is broader and harder to assemble, because manufacturing engineers, production managers, and quality specialists with space hardware experience are one of the tightest candidate pools in the sector.

The Defense Connection

There’s a second angle to this story that’s easy to miss. Vast is positioning these satellite buses for national security applications alongside commercial ones. And they’re entering the market at a moment when the defense sector is struggling with exactly this problem.

Earlier this year, the SDA’s director said that satellite buses – which were supposed to be a commodity – turned out to be one of the biggest challenges in the first tranche of the proliferated constellation. The constraint wasn’t the design. It was building and checking out enough of them at the pace the program needed.

A company like Vast – with over a billion dollars in capital, 1,000+ employees, and an in-house manufacturing facility in Long Beach – entering the bus market is directly relevant to that supply chain gap. If Vast can produce reliable, high-power buses at volume, they become a credible supplier for both commercial constellations and defense programs.

That dual-use positioning means the hiring will reflect both markets. Engineers who can build hardware to commercial timelines and engineers who can work within defense program requirements – and ideally, people who can do both.

The AI Layer

One detail from the announcement that stands out: Vast is offering an optional NVIDIA Vera Rubin Space-1 module for orbital data centers, AI edge compute, and autonomous space operations.

That’s not a standard satellite bus feature; it signals that Vast sees its platform as infrastructure for compute-heavy missions, not just traditional comms or EO payloads. The engineers who build and integrate AI processing systems for space applications sit at the intersection of two talent markets – space hardware and AI/ML – and they’re among the hardest profiles to find because the combination barely existed as a career path five years ago.

As more space companies add AI and edge compute capabilities to their platforms, this crossover talent pool will become one of the most contested in the sector.

What This Tells You

Vast’s move from stations to satellite buses is one company’s announcement. But it reflects something bigger happening across the sector.

Space companies are diversifying faster, leveraging technology they’ve already built to enter adjacent markets. Each expansion creates new hiring demand – sometimes for the same engineers, sometimes for entirely different ones. And the companies that plan their workforce around both the current product and the next one are the ones that scale successfully.

For engineers: the companies worth watching aren’t just the ones building one thing well. They’re the ones that are about to build the next thing. That’s where the new roles open up, the teams are forming, and the opportunity to get in early is real.

For companies: if your product roadmap includes a second product line in the next 18 months, the workforce plan for it should start now. The manufacturing, production, and quality engineers you’ll need aren’t sitting on job boards. And by the time you announce the product, the companies that planned ahead will have already hired them.

The Space Force just raised the contract ceiling for its Andromeda program from $1.8 billion to $6.2 billion. That’s an additional $4.4 billion for a program that builds the next generation of satellites designed to watch what’s happening in space.

Andromeda replaces two existing programs: GSSAP, the “neighborhood watch” satellites that inspect objects in geosynchronous orbit, and the classified SILENTBARKER space surveillance constellation. The Space Force described the expansion as a response to an escalating threat environment projected for 2030 and beyond.

Fourteen companies are eligible to compete for task orders under the contract. The list includes defense primes like Lockheed Martin, L3Harris, and Northrop Grumman alongside growth-stage companies like Anduril, True Anomaly, and Quantum Space.

What Andromeda Actually Needs

Space domain awareness

Knowing what’s in orbit, where it’s going, and whether it’s a threat – is one of the fastest-growing mission areas in defense space. Andromeda is the biggest single investment in that capability.

The satellites this program builds will need to do things that are technically demanding: detect and track objects at extreme distances, maneuver close to other spacecraft, process sensor data in real time, and operate in orbits where servicing isn’t an option. That translates to specific engineering disciplines.

Sensor and payload engineers

Sensor and payload engineers who can design and build the optical and infrared systems that detect objects in space. These are the eyes of the satellite, and the performance requirements for a space surveillance mission are different from a standard Earth observation payload. The targets are smaller, farther away, and sometimes deliberately trying not to be seen.

GNC engineers

GNC engineers who can design maneuver and proximity operations capabilities. If Andromeda satellites need to inspect other objects – which the GSSAP replacement mission implies – they need GNC systems that can safely approach, station-keep near, and characterize another spacecraft. That’s a skillset that overlaps directly with satellite servicing, debris removal, and the Golden Dome interceptor prototypes.

Orbital mechanics analysts

Orbital mechanics analysts who can plan and optimize the observation campaigns. Where does the satellite need to be, when does it need to be there, and how do you maximize coverage of the objects you’re tracking? This is applied math at a level that requires years of experience.

Systems engineers with clearances

Systems engineers with clearances who can integrate all of this into a functioning spacecraft that meets defense reliability standards. The systems engineering role on a classified space surveillance program is one of the hardest hires in the sector – you need someone who understands the full spacecraft, has experience with defense program management, and holds an active clearance. That combination narrows the pool significantly.

Flight software and autonomy engineers

Flight software and autonomy engineers who can build the onboard processing systems. A surveillance satellite that has to detect, track, and respond to threats in real time needs software that makes decisions faster than a ground operator can. The autonomy requirements for Andromeda are likely more demanding than for most commercial missions.

Fourteen Vendors, One Talent Pool

The vendor list is what makes this interesting from a hiring perspective.

Lockheed Martin, L3Harris, Northrop Grumman, and Raytheon have deep benches of cleared engineers. They’ll compete for task orders with existing teams, supplemented by targeted hires for specific technical gaps.

The growth-stage companies on the list – Anduril, True Anomaly, Quantum Space, and others – are in a different position. They’re competing for the same work but with smaller teams. Winning a task order means they need to staff up, often quickly, for a program that requires clearances, specific technical expertise, and defense program experience.

And here’s the squeeze: all fourteen vendors are drawing from the same candidate pool. A mid-career systems engineer with a TS/SCI clearance and space vehicle experience is relevant to every company on this list. That person is also relevant to the Golden Dome interceptor program, the SDA’s proliferated constellation, the Artemis supply chain, and the commercial companies building satellite servicing vehicles.

The demand for this profile was already intense. Adding $4.4 billion to a single program makes it tighter.

The Space Domain Awareness Career Path

For engineers thinking about where to build a career in defense space, space domain awareness is worth paying attention to.

Five years ago, SDA (the mission area, not the agency) was a niche within a niche. A handful of GSSAP satellites, some ground-based radars and telescopes, and a relatively small workforce managing it all. The career path was limited and mostly lived inside a few prime contractors.

That’s changed, and the Andromeda expansion to $6.2 billion is one data point. The Golden Dome program – which depends on knowing what’s in orbit before you can intercept anything – is another. The SDA’s proliferated constellation, which includes space domain awareness sensors alongside its communications and missile tracking payloads, is a third. And the commercial sector is building its own SDA capabilities, with companies like LeoLabs, ExoAnalytic, and others offering tracking services to both government and commercial customers.

The combined investment in knowing what’s happening in space is now measured in tens of billions of dollars. The workforce that supports it needs to grow accordingly.

For engineers with clearances and experience in sensor systems, orbital mechanics, GNC, or spacecraft autonomy, this is a sector where demand will be sustained for the foreseeable future. The programs are funded, the threat environment is driving urgency, and the number of companies competing for the work – and for the people – is growing.

The Takeaway

$6.2 billion for a single space surveillance program is a sign of where defense space is heading. The Space Force is investing at a scale that reflects how seriously the US government takes the space domain as a contested environment.

For the fourteen companies on the Andromeda vendor list, the opportunity is significant. For the engineers those companies need, the market just got more competitive in their favor. And for anyone hiring cleared space professionals in 2026, Andromeda is one more program pulling from a pool that was already stretched thin.

SpaceX is aiming for May 19 for the first flight of Starship Version 3 – a bigger, more powerful version of the rocket that NASA is counting on to land astronauts on the Moon.

The numbers are hard to ignore. V3 can carry over 100 metric tons to low Earth orbit while being fully reusable. That’s nearly three times what earlier Starship versions could do, and it’s more than NASA’s Space Launch System. The rocket stands 124 meters tall, runs on new Raptor 3 engines, and completed a full propellant loading test on May 11 with over 5,000 metric tons of fuel.

It’s the twelfth Starship flight overall, but the first from a brand new launch pad at Starbase and the first time V3 hardware flies. No booster catch is planned – both stages will splash down – but if the vehicle performs, it validates the platform that nearly everything else in SpaceX’s roadmap depends on.

The launch will get a lot of attention, but the workforce story behind it won’t. But it should.

Why V3 Changes the Hiring Picture

Every version of Starship creates engineering jobs – that’s been true since the first test flights. But V3 is different because of what it enables downstream.

Starship V3 doesn’t just improve on what came before; it opens up missions that weren’t practical with smaller rockets: Deploying next-generation Starlink satellites three times faster per launch, sending more fuel to lunar orbit ahead of Artemis missions, carrying payloads heavy enough to make space stations, in-space manufacturing, and Mars cargo flights realistic rather than theoretical.

Each of those applications needs people. Not just at SpaceX, but across the companies building payloads, systems, and infrastructure designed around what Starship can carry.

A satellite company that can now launch hardware three times heavier needs engineers who can design at that scale. A commercial station builder whose modules no longer have to be squeezed into a smaller fairing can rethink their entire architecture – and needs the systems engineers to do it. A lunar program that can deliver more supplies per mission changes its surface operations plan and needs the operations team to match.

The SpaceX Workforce Itself

SpaceX employs over 13,000 people, and V3 introduces new demands across nearly every engineering discipline.

Raptor 3 engines are a significant redesign – higher thrust, lower weight, integrated sensors and controllers, a new ignition system. The propulsion engineers who developed and tested these engines at McGregor, Texas, represent some of the most specialized talent in the sector. Scaling Raptor 3 production for the flight rate SpaceX is targeting means that the team needs to grow.

The new launch pad (Pad 2 at Starbase) is an entirely separate infrastructure build – launch mount, propellant systems, catch tower, ground support equipment. Ground systems engineers, pad technicians, and facilities specialists are all part of the workforce that makes a new pad operational.

The thermal protection system has been redesigned based on lessons from previous flights. Every reentry generates data that the thermal engineers use to refine the heat shield for the next vehicle. As V3 flies more frequently, that team’s workload scales with the flight rate.

And flight software – the code that manages 33 engines on the booster and 6 on the ship, controls autonomous landing sequences, and handles the new docking and propellant transfer systems – is being written and tested by a software team that is perpetually hiring.

The talent pressure at SpaceX compounds because the company is simultaneously operating Falcon 9 (which launches roughly every three days), building Starlink satellites, supporting NASA crew missions, and now ramping V3 production. Each program draws from the same internal engineering pool.

The Artemis Connection

Starship is NASA’s selected Human Landing System for the Artemis program. The plan is for a modified Starship to carry astronauts from lunar orbit to the surface and back. V3’s increased performance is directly relevant – more payload capacity means more margin for crew systems, surface equipment, and the propellant needed for lunar descent and ascent.

But here’s the workforce detail that often gets missed: the Artemis HLS contract doesn’t just create jobs at SpaceX. It creates jobs at every company in the supply chain that supports the modified lunar Starship – from the life support systems that keep astronauts alive during descent to the surface hardware they’ll use on the Moon.

As V3 proves out the platform, the downstream Artemis work gets closer to reality. And the companies that are part of that ecosystem need to start staffing for it now, not after the first lunar landing attempt.

What This Means for the Rest of the Sector

For companies that aren’t SpaceX, V3 matters for two reasons.

First, it raises the bar on what’s possible.

When the most capable rocket in history is available for commercial and government customers, the missions people are planning get more ambitious. More ambitious missions need more engineers. The companies designing payloads, stations, and lunar systems for a V3-enabled future are hiring now for hardware that won’t fly for two or three years.

Second, SpaceX’s growth absorbs talent from the broader market.

Every engineer SpaceX hires for V3 production, Raptor 3 manufacturing, or pad operations is an engineer who isn’t available to other space companies. In a market where experienced propulsion, flight software, and ground systems engineers are already scarce, SpaceX’s expansion makes the pool tighter for everyone else.

For candidates, V3 is a reminder that SpaceX remains the highest-tempo engineering environment in the sector. If you want to work on hardware that flies frequently and at a scale nobody else is attempting, it’s hard to compete with what SpaceX offers. But the companies building around Starship’s capability – designing the payloads, the stations, the lunar systems – offer something SpaceX doesn’t: the chance to own the mission, not just the ride.

The Takeaway

Starship V3 launching next week is a technical milestone. But the bigger story is what it unlocks – for SpaceX, for the Artemis program, and for every company planning missions around a rocket that can put 100 tons in orbit and do it again.

The teams building that future are being hired right now. The question for companies and candidates is whether they’re paying attention to what V3 makes possible – and moving fast enough to be part of it.

Last week, an Ariane 6 rocket launched 32 Amazon Leo satellites into low Earth orbit from French Guiana. It was the seventh Ariane 6 flight, the second using the heavy-lift four-booster configuration, and the second launch dedicated to Amazon’s broadband constellation.

Three days earlier, an Atlas V launched another 29 Amazon Leo satellites from Cape Canaveral. Two launches in four days. Over 300 production satellites now in orbit.

Amazon is building a 3,200-satellite constellation to compete with SpaceX’s Starlink, which already operates more than 10,000 spacecraft. The gap is enormous. And Amazon is under pressure – the FCC requires half the constellation to be deployed by July 2026, and they’re nowhere close to that number yet.

What that means for the space talent market: two mega-constellations are now building simultaneously, on aggressive timelines, and they need a lot of the same people.

The Scale of What’s Being Built

Amazon has booked 18 Ariane 6 launches, 38 Vulcan Centaur flights, and multiple Atlas V missions – over 80 launches total to complete the constellation. Each launch requires satellite manufacturing, integration, testing, and mission operations support. Multiply that across years of sustained production and you get a workforce requirement that looks more like automotive manufacturing than traditional space.

Starlink, meanwhile, isn’t slowing down. SpaceX has launched more than 10,000 Starlink satellites and continues to add capacity. The company recently proposed a million-satellite data center network. Whether or not that number materializes, the operational scale of Starlink already requires a manufacturing and operations workforce measured in thousands.

Two constellations of this size running in parallel creates demand across every stage of the satellite lifecycle: design, manufacturing, testing, launch integration, on-orbit operations, and ground segment development.

Where the Talent Pressure Shows Up

The engineering disciplines that mega-constellations need overlap heavily with the rest of the space sector – which is the problem.

RF and communications engineers are at the top of the list

Both Amazon Leo and Starlink are broadband networks. The satellites are communications payloads first, and the engineers who design, test, and optimize RF systems for LEO broadband are a small and heavily contested group.

Satellite manufacturing and integration engineers are the production backbone

Building 3,200 satellites isn’t a one-at-a-time operation. It requires production lines, quality systems, and manufacturing engineers who can maintain output at rates the space sector has never sustained before. Amazon’s satellite production facility in Kirkland, Washington is built for this kind of volume, but staffing it at scale means competing with every other hardware company in the region.

Ground segment software developers build the systems that manage the constellation

Tracking, telemetry, command, spectrum management, and the customer-facing network infrastructure. This is where the line between space company and tech company blurs completely. The engineers doing this work could just as easily be at a cloud provider or a telecom company, and the competition for them reflects that.

Mission operations and launch integration roles grow with every launch

Eighteen Ariane 6 missions alone require sustained operations support in French Guiana – a location that adds its own recruiting challenge. Launch cadence at this scale needs dedicated teams, not ad hoc support.

The Competitive Landscape for Engineers

If you’re an RF engineer, a satellite systems engineer, or a manufacturing specialist, the Amazon Leo buildout changes your market position. There’s now a second well-funded program competing for your skills alongside Starlink, the SDA’s military constellation, and the commercial communications companies that were already hiring.

Amazon brings something to the competition that most space companies can’t match: big tech compensation. Amazon’s total compensation packages – base salary, RSUs, signing bonuses – are benchmarked against the broader tech market, not against aerospace averages. An RF engineer who might earn $160,000 at a traditional space company could command $200,000 or more at Amazon, with stock that trades publicly.

That pulls the entire market upward. Space companies competing for the same engineers have to either match the numbers or offer something Amazon doesn’t – mission variety, technical ownership, smaller team dynamics, or roles that involve more than a single subsystem on a production line.

For candidates weighing the choice, it comes down to what kind of work you want. Amazon Leo is a production environment – high volume, standardized systems, optimized for throughput. The engineering challenge is in scaling and reliability, not in designing something from scratch. Starlink operates similarly. If you want to build one thing really well at a massive scale, these programs are compelling.

If you want to design a novel spacecraft, work on a first-of-its-kind mission, or own a technical problem end-to-end, the growth-stage companies in the sector offer something the mega-constellations don’t. The tradeoff is real, and it’s worth thinking through before you take the call.

The Ariane 6 Side of the Story

There’s a secondary talent story in this launch that’s easy to miss. Ariane 6 is Europe’s new heavy-lift rocket, and its launch cadence is ramping quickly. Seven flights in less than two years, with 18 more Amazon launches booked. Arianespace needs to scale its launch operations workforce – mission planners, range engineers, integration specialists, and the operations teams at the Kourou spaceport.

For engineers in Europe, this is one of the most significant launch programs on the continent. For US-based engineers, it’s a reminder that the space talent market is increasingly global – the companies building and launching the satellites may be American, but the rockets carrying them come from Europe, and the workforce serving those rockets is growing accordingly.

The Takeaway

The broadband space race now has two well-funded lanes running at the same time, on timelines that don’t wait for the talent market to catch up. Amazon needs to get from 300 satellites to 1,600 in a matter of months to meet its FCC deadline. Starlink is building toward a scale that dwarfs anything the sector has seen.

The engineers who can build, test, and operate communication satellites at production volume are some of the most in-demand professionals in the space sector right now. The question for companies and candidates alike is straightforward: who’s offering the work you want to do, and who can move fast enough to get you there?

In the space of a few weeks, Golden Dome sent two very different messages.

First, the Space Force handed $3.2 billion across 20 contracts to 12 companies to prototype space-based interceptors. The list includes Lockheed Martin, Northrop Grumman, RTX, SpaceX, and Anduril, alongside smaller companies such as True Anomaly, Turion Space, Quindar, and GITAI USA. The deadline was to demonstrate a working capability by 2028.

Then, Space Force Gen. Michael Guetlein (the person running Golden Dome) told Congress that space-based interceptors might not make it into the final plan if they’re too expensive to build at scale.

$3.2 billion in funded contracts and a public acknowledgment that production isn’t guaranteed. If you’re hiring in defense space right now, the question is how to plan around that.

What’s Actually Happening

The prototype work is funded and moving. The 12 companies are building teams, building hardware, and working toward a 2028 demonstration. That part isn’t in question.

What’s in question is what comes after.

Guetlein was direct: if space-based interceptors can’t be built affordably at scale, the Pentagon will go a different direction. The full Golden Dome program is estimated at $175 to $185 billion, and that number has to hold up in front of Congress for decades. A technology that works in a prototype but costs too much to mass-produce won’t survive that scrutiny.

So the work is real for now, but the long-term commitment depends on what the prototypes prove.

Who Needs to Hire – and Who Doesn’t

The primes on this list (Lockheed, Northrop, RTX, General Dynamics Mission Systems) probably already have most of the people they need. They’ll pull experienced engineers from adjacent programs or move them internally since that’s how large defense contractors operate.

The pressure lands on the smaller companies. True Anomaly recently closed a $650 million round at a $2.2 billion valuation, so they have the money to hire aggressively. Turion Space, Quindar, GITAI USA, and Sci-Tec are earlier in their growth and have smaller teams. For them, delivering on a program of this size means adding experienced engineers fast – systems engineers, GNC engineers, propulsion specialists. People who can build hardware that works in orbit and meets weapons-grade reliability standards.

The problem: those are the same engineers that every other defense space program wants. The Space Force budget just doubled, Artemis is accelerating, and the SDA’s constellation is scaling. The candidate pool for cleared engineers with relevant experience was already small before Golden Dome contracts were announced.

What If the Plan Changes?

Here’s the part that matters most for the long term.

If space-based interceptors don’t move to production, the money behind Golden Dome doesn’t disappear, it moves to whatever replaces them – directed energy weapons, ground-based intercept supported by space-based tracking, hypersonic tracking systems, or something else entirely.

Each of those options needs a different mix of engineers. Directed energy pulls from a different talent pool – laser systems, beam control, high-power thermal management. Hypersonic tracking needs sensor specialists and signal processing engineers.

But for the people currently working on SBI prototypes, a change in direction wouldn’t mean starting over. The core skills (systems integration, GNC, space vehicle design, orbital mechanics) apply across defense space. An engineer who spent two years building an interceptor prototype can work on satellite servicing, space domain awareness, or proliferated constellations. The experience translates. The specific program label changes, but the skills stay valuable.

In a market where there aren’t enough cleared space engineers to go around, the people who worked on Golden Dome prototypes will be in demand regardless of what happens to the program itself.

Why This Matters Beyond Golden Dome

The $3.2 billion in interceptor prototypes is one piece of a much bigger picture. The proposed Space Force budget is $71.2 billion – more than double this year’s funding. Defense space spending is at a scale the sector has never seen.

What Guetlein’s testimony adds is something the sector doesn’t always get from government programs: honesty about cost constraints. The Pentagon wants the capability, but not at any price. That’s a more mature approach than “build it regardless,” and it creates a more honest planning environment for companies and candidates alike.

For the companies building teams right now, the practical takeaway is this: don’t hire for a single program – hire for capability. The engineer who can design interceptor GNC algorithms can also design proximity operations algorithms. The systems engineer who can integrate a weapons platform can integrate a commercial space station.

The Bottom Line

If you’re adjacent to the program – a subcontractor, a supplier, a company hoping to win follow-on work – plan for both outcomes. If interceptors move to production, the hiring demand will be significant. If they don’t, the demand shifts to whatever replaces them. Either way, cleared engineers with space systems experience will be needed.

If you’re an engineer thinking about joining one of these programs, the work is real and the experience carries weight across the sector. The production decision will take years to play out. In the meantime, the prototype work is some of the most technically demanding and career-defining work in defense space right now.

Golden Dome is a $185 billion question about the future of space-based defense. The teams that will answer it are being assembled now.

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A Long-Term Talent Ecosystem

EVONA’s ambition extends beyond individual placements. The company has set an objective to support the next generation of space unicorns and place 50,000 people into space roles – focusing on execution and outcomes rather than volume hiring.

Tom Kelly, CEO of EVONA, said:

Global Presence, Sector Commitment

Launched in Bristol, UK, EVONA expanded to Florida in 2023 and has since made its mark at the highest levels, including an invitation to speak at the White House.

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