<candidate>Rocket Lab Is Building Solar Cells for Satellites in Albuquerque — and the Workers Who Make Them Need Skills From Two Separate Trades</candidate>

The Albuquerque Bet: Why Solar Cells, Not Just Rockets

Inside a compound semiconductor plant in Albuquerque's Sandia Science and Technology Park, more than 370 workers produce the solar cells that power spacecraft, including the James Webb Space Telescope, NASA's Artemis lunar explorations, the Ingenuity Mars Helicopter, and the Mars InSight Lander. The site has done this for 25 years, first as SolAero Technologies, which Rocket Lab acquired in 2022, and now as the company's dedicated space-grade solar-cell manufacturing hub.

The distinction matters because it reveals what Rocket Lab actually is: not a launch company that also builds spacecraft components, but a vertically integrated space systems manufacturer that happens to launch rockets. The Albuquerque plant produces compound semiconductors (radiation-hardened solar cells that convert light to electricity in the vacuum of space). Rocket Lab is one of only two companies in the United States, and three outside Russia and China, that specializes in this technology. Those cells have powered more than 1,100 satellites in orbit to date, and the company has manufactured over four megawatts of solar-cell energy so far.

In June 2024, the Department of Commerce signed a preliminary memorandum of terms to award Rocket Lab up to $23.9 million in direct funding under the CHIPS and Science Act. The State of New Mexico committed an additional $25.5 million in incentives. The goal: expand and modernize the Albuquerque facility to increase compound semiconductor production by 50% within three years, creating more than 100 direct manufacturing jobs. Deputy Secretary of Commerce Don Graves, Senator Martin Heinrich, Congresswoman Melanie Stansbury, and Governor Michelle Lujan Grisham all attended a July 2024 celebration at the site to mark the agreement.

The funding is not speculative. Rocket Lab plans to claim the Treasury's Investment Tax Credit, expected to cover up to 25% of qualified capital expenditures, and the NIST project page lists the award at the final stage with an expected capital expenditure of $97.5 million. The company will also contribute $2 million over three years to NewSpace Nexus, a New Mexico nonprofit, to sponsor internships and co-innovation programs in underserved communities.

For the broader space-industry talent market, the Albuquerque expansion signals something larger than a single company adding headcount. It shows that the demand side of the space economy (the satellites, constellations, and national security payloads that need power) is pulling manufacturing capacity and specialized labor into regions that aren't the usual aerospace corridors. The facility operates cleanrooms rated Class 1,000 for cell production and Class 10,000 to 100,000 for panel manufacturing, alongside a 24,000-square-foot composite manufacturing operation that produces satellite panel structures and carbon-fiber-reinforced polymer substrates. The skill set required (semiconductor fabrication, composites layup, cleanroom protocol, photovoltaic testing) doesn't map neatly onto any single existing job category.

That mismatch is the real story. And the specific roles Rocket Lab is hiring for in Albuquerque show exactly how the company is trying to fill it.

Roles That Don't Exist Anywhere Else

Rocket Lab's Albuquerque facility is hiring for positions that don't map neatly onto any single industry's job board. The titles sound familiar (Composites Engineer, Material Planner, Production Operator) but the work they describe sits at a crossroads that few other employers occupy: composites manufacturing, photovoltaic cell production, and satellite assembly, all under one roof.

The Composites Engineer II/Senior role, listed on SimplyHired and LinkedIn, captures this directly. The job description says the position exists to "facilitate and optimize production of solar products and sub-systems" in what it calls a "high-growth, high-consequence production environment." That phrasing matters. This isn't a composites role that happens to be at a solar company, or a solar role that uses composites on the side. The engineer must bring manufacturing-process expertise (layup, curing, quality assurance) to the specific problem of building solar arrays that will fly on spacecraft. The "high-consequence" language is Rocket Lab's way of saying these aren't terrestrial panels; a defect means a satellite that doesn't generate power in orbit.

The Material Planner I role, based at Rocket Lab's Long Beach headquarters rather than Albuquerque, manages MRP (material requirements planning) for "every part that Rocket Lab makes or buys." That scope is unusual. Most aerospace material planners handle either make or buy, and most solar manufacturers don't also build launch vehicles. This person has to track components flowing into both the Long Beach spacecraft assembly line and the Albuquerque solar-cell production site, across two very different manufacturing processes.

The Production Operator roles at the Albuquerque site are the hardest to benchmark because the available postings are sparse. What's clear from Rocket Lab's own careers page is that the facility handles "space solar cell production" and that "solar panels and solar arrays are built and tested" there before integration onto spacecraft. An operator in that environment needs cleanroom discipline from photovoltaics, handling protocols from composites, and traceability standards from aerospace. That combination doesn't show up in any single vocational training program.

Zero G Talent's board currently lists 28 Rocket Lab roles added in the past week, spanning both sites. The Albuquerque postings include a Payroll Accountant II, which signals the site is scaling headcount enough to need dedicated back-office support (a quiet indicator that the production floor is growing).

What makes these roles genuinely hybrid isn't just that they require skills from multiple domains. It's that the domains themselves are being fused. A composites engineer at a Boeing plant works on airframes. A solar-cell technician at a First Solar factory works on ground-mounted panels. At Rocket Lab's Albuquerque site, the same person is building the power system for a satellite that will launch on a rocket the company also built. The job title says "Composites Engineer." The actual work doesn't have a name yet.

Nasdaq-100 Entry Meets a Record Launch Blitz

Rocket Lab's June 12 announcement that it will join the Nasdaq-100 Index on June 22 didn't arrive as a standalone PR moment. It landed in the middle of the busiest launch period in the company's history, and the hiring surge in Albuquerque is a direct consequence.

The numbers behind the index inclusion tell the story. Rocket Lab posted record first-quarter revenue of $200.3 million, up 63.5% year over year, and closed the quarter with a $2.2 billion backlog, a 20.2% increase from the prior quarter. The company projected second-quarter revenue between $225 million and $240 million. Shares climbed more than 64% from January through the announcement. Simply Wall St noted the stock had returned 334.8% over the prior twelve months, with the company carrying a market capitalization of roughly $60 billion.

That financial trajectory is what forced the Nasdaq's hand. The index tracks the 100 largest non-financial companies on the exchange, and Rocket Lab's growth pushed it past the threshold. More than 200 investment products with over $800 billion in assets under management track the index, meaning index funds worldwide had to buy RKLB shares on June 22 regardless of short-term price action. The company entered alongside Astera Labs, CoreWeave, Nebius, and Teradyne, replacing Charter Communications, Cognizant, Insmed, Verisk Analytics, and Zscaler.

But the index entry is a lagging indicator. What's actually driving the urgency on the ground is launch cadence. Stocktwits reported that Rocket Lab has more Electron rockets in its New Zealand hangar than ever before ahead of what the company calls a launch blitz. The Electron is the world's most frequently launched orbital small rocket, and Rocket Lab has now completed more than 80 successful launches deploying over 250 satellites. The timing aligns with the rollout of the company's 100th Electron rocket, with launch pads on two continents (New Zealand and Virginia) supporting active missions.

Each of those launches needs satellites, spacecraft, and subsystems, and that's where Albuquerque comes in. The facility produces the solar cells and composite structures that feed Rocket Lab's vertically integrated supply chain. More launches mean more spacecraft in production, which means more solar cells, more composite layup, and more cleanroom processing. The 28 roles Rocket Lab added to its board in the past week alone (including manufacturing engineers, materials planners, and inventory coordinators) reflect the pressure that launch demand puts on upstream manufacturing.

The company is also developing Neutron, a medium-class rocket tailored for constellation deployment, national security missions, and exploration. Neutron's first launch is expected later this year, and contracts are already signed. Rocket Lab finished Q1 with $1.5 billion in cash and has said it won't break even until Neutron is in service. The Albuquerque workforce is building the components that will determine whether that timeline holds.

CEO Sir Peter Beck called the Nasdaq-100 inclusion "a landmark moment" that reflects the company's journey "from a small company with big ambitions to a global space leader." The ambition is visible in the hiring. The backlog is visible in the numbers. The launch blitz is visible in the hangar. What connects all three is a factory in New Mexico that has to keep pace with a launch schedule accelerating faster than the company's headcount.

The Talent Pool Problem: Composites Meets Photovoltaics

The hardest part of staffing Rocket Lab's Albuquerque factory isn't finding composites technicians. It isn't finding solar-cell production workers either. It's finding people who can do both, inside the same facility, on the same satellite programs, often on the same shift.

Composites layup and processing is a mature trade. Aerospace programs have trained autoclave operators and hand-layup specialists for decades. Cleanroom photovoltaics manufacturing has its own deep labor pool, fed by the semiconductor and solar-energy industries. But the overlap between those two skill sets is thin. A composites technician who understands prepreg cure cycles and ply orientation may have never worked in a cleanroom. A solar-cell production operator trained in thin-film deposition and cell-stringing may never have touched a vacuum bag. Rocket Lab's Albuquerque site needs both, on the same production line, building solar arrays that go straight onto satellites the company will launch itself.

That scarcity puts Rocket Lab in a bidding war with employers that have much larger recruiting budgets. Defense primes (Northrop Grumman, Lockheed Martin, Raytheon) hire composites technicians in volume for aircraft and missile programs. EV manufacturers like Tesla and Rivian are pulling the same workers into battery-enclosure and body-panel production. Those companies can offer name recognition, established training pipelines, and in many cases higher base pay than a mid-cap space company. Rocket Lab is competing for a slice of a labor pool that isn't growing fast enough to meet demand from all three sectors at once.

The problem compounds in Albuquerque specifically. The city has a strong defense-manufacturing workforce: Kirtland Air Force Base and Sandia National Laboratories have trained generations of technicians in precision manufacturing and materials science. But solar-cell cleanroom experience is rarer in that market. Rocket Lab is essentially asking the local labor market to produce a hybrid worker that few employers have needed before, and doing it at a pace set by a launch manifest that keeps accelerating.

The company's own hiring activity reflects the pressure. Zero G Talent's board shows Rocket Lab added 28 roles in the past week alone, spanning Long Beach and Albuquerque. That pace suggests the company is filling gaps as fast as it can source candidates rather than building a deep bench. When a company hires this quickly across multiple sites and functions, demand is usually outrunning the available talent supply, not waiting to be found.

What Rocket Lab is really doing in Albuquerque is proving whether a vertically integrated space company can manufacture its own way out of a supply-chain bottleneck — not just in parts, but in people. If it can train and retain a workforce that bridges composites and photovoltaics, it gains a capability that almost no competitor has. If it can't, the bottleneck simply moves from the parts shelf to the staffing roster.

The Vertical-Integration Trend Behind the Hiring Push

Rocket Lab's Albuquerque hiring push isn't an isolated staffing decision. It's a symptom of a structural shift running through the space industry: the move toward owning the entire production chain, from raw materials to orbit.

For decades, most satellite manufacturers bought solar cells from specialized suppliers, sourced composite structures from separate vendors, and contracted out integration and testing. The model worked when launch was rare and satellites were bespoke. But the economics of constellation-scale deployment (hundreds or thousands of identical spacecraft) punish every handoff between companies. Each interface adds schedule risk, quality overhead, and margin stacking. Owning more of the stack lets a company compress timelines, control quality at each step, and capture margin that would otherwise go to subcontractors.

Rocket Lab has been building toward this for years. The Albuquerque facility, acquired through the 2022 purchase of SolAero Technologies, gave the company in-house solar-cell production. Those photovoltaic arrays power every Electron and Neutron rocket's payloads, as well as the satellites Rocket Lab builds for third parties and its own missions. The composites capability layered on top means the company can now fabricate structural components, produce the power systems that go on them, integrate them into spacecraft, and launch the finished product on its own rockets. That's four links in the value chain under one roof.

The workforce implications are significant. When a company outsources a manufacturing step, it doesn't need to recruit for that skill set. When it brings that step in-house, it suddenly needs technicians and engineers who can operate in that specific process and ideally understand how their work connects to the steps before and after. A composites technician at a traditional layup shop doesn't need to think about cleanroom protocols. A solar-cell production operator at a pure-play photovoltaic fab doesn't need to care about spacecraft integration. At that New Mexico site, those boundaries collapse. The job postings reflect that: roles demand fluency across process domains that used to live in separate facilities, often at separate companies.

This pattern is repeating across the industry, though Rocket Lab is further along than most. SpaceX manufactures its own engines, avionics, and fairings, and has vertically integrated Starlink satellite production to a degree that few competitors match. Blue Origin is building out in-house capability across propulsion, structures, and lunar systems. Even smaller companies are acquiring or building manufacturing capacity rather than relying on the traditional aerospace supply chain.

The talent market hasn't caught up. Universities and trade programs still train composites technicians, semiconductor process engineers, and aerospace assembly workers as distinct career tracks. The hybrid roles Rocket Lab is hiring for (people who can move between layup, cleanroom, and integration environments) don't map neatly onto any single degree program or certification. That's part of why the company is competing with defense primes and EV manufacturers for the same narrow pool: those industries also need workers who can cross traditional process boundaries at volume.

Companies like Rocket Lab are, by necessity, doing significant internal training, building the hybrid skill sets they can't find on the open market. Over time, that pressure may push community colleges and technical programs to design curricula that bridge composites and photovoltaics, or cleanroom operations and aerospace assembly. For now, the workers who can operate across those domains are scarce, and the companies that need them are writing the job descriptions themselves.

What the Job Postings Reveal About Rocket Lab's Next Phase

The language in Rocket Lab's open roles reads less like a company filling gaps and more like one building a production line it hasn't yet announced. The specifics (where the jobs sit, what they require, and how they're sequenced) point to a company preparing to scale satellite manufacturing throughput while tightening control over its most constrained supply chain: the solar cells that power every spacecraft it builds.

Start with location. Of those 28 new postings on Zero G Talent's board, the Albuquerque cluster includes a Payroll Accountant II, a role that sounds mundane but signals something concrete. Companies don't hire payroll infrastructure for a site they plan to wind down. The position anchors the Albuquerque facility as a permanent cost center, not a temporary project office. That matters because Albuquerque is where Rocket Lab manufactures its own solar cells and composite structures, the two components most likely to bottleneck satellite production if left to outside suppliers.

Now look at the Long Beach roles. The salary spread tells its own story: Rocket Lab is hiring at the mid-level while simultaneously bringing in senior manufacturing leadership. That's the pattern of a company transitioning from prototyping to repeatable production (it needs experienced hands on the line now and a lead who can standardize the process before volume ramps).

The Director, Manufacturing Finance role is the most telling. A director-level finance hire embedded in manufacturing, not corporate, suggests Rocket Lab is building the internal cost-tracking and capacity-planning apparatus that precedes a major production increase. Companies create this role when unit economics start mattering more than technical milestones, when the question shifts from "can we build it?" to "can we build 50 of them at a viable cost?"

Taken together, the postings sketch a company about to push hard on satellite delivery cadence. The Albuquerque site is being staffed for sustained composites-and-photovoltaics output. Long Beach is being tooled for propulsion manufacturing at scale. The finance hire is being brought in to make the numbers work. None of these roles are for launch operations. They're all upstream, the supply chain that feeds the rockets.

If Rocket Lab's Nasdaq-100 inclusion and record launch tempo are the public story, these job postings are the private one: the company is building the factory floor it needs to turn launch demand into a production business. The 28 roles added in a single week aren't a hiring surge. They're the first visible layer of a workforce that has to exist before the next phase of satellite manufacturing can begin.

Working in space? Zero G Talent tracks the openings: browse space jobs, openings at Rocket Lab, and the people building the field.