Rocket Lab Is Hiring 44 People in Seven Days for a Maryland Factory That Hasn't Built a Rocket Yet

What Rocket Lab Is Actually Building in Middle River

Rocket Lab is renovating 113,000 square feet of the former Lockheed Martin Vertical Launch Building at 2323 Eastern Boulevard in Middle River, Maryland, into a dedicated Space Structures Complex that will produce the full range of carbon composite structures for both its own launch vehicles and external customers across the space industry.

The announcement came on November 17, 2023, at a ribbon-cutting event attended by Senator Ben Cardin, Congressman Dutch Ruppersberger, Baltimore County Executive John Olszewski, and Rocket Lab CFO Adam Spice. Governor Wes Moore's office confirmed the project the same day, framing it as a major expansion of Maryland's space-manufacturing base.

The complex will produce carbon composite spacecraft buses, structural panels and assemblies, satellite dispensers, aerostructures and heat shields, composite overwrap pressure vessels, solar panel substrates, and launch vehicle structures. The site is also expected to play a role in the long-term supply of composite structures for Neutron, Rocket Lab's medium-lift launch vehicle still in development.

The choice of building is not incidental. The Vertical Launch Building has hosted aerospace manufacturing since 1929, originally under Lockheed Martin. Rocket Lab's move into the site is an adaptive renovation rather than ground-up construction, which likely accelerates the timeline. The company has said it expects to create 65 permanent full-time jobs at the location by December 2025.

The Middle River complex extends a composite manufacturing capability Rocket Lab has already built across four other sites: Long Beach, California; Albuquerque, New Mexico; Auckland, New Zealand; and Warkworth, New Zealand. Composite work will continue at those locations. But the Maryland facility adds something the others don't: proximity to Rocket Lab's growing assembly, integration, and test complex at NASA's Wallops Flight Facility and the Mid-Atlantic Regional Spaceport in Virginia, where Electron and Neutron rockets are produced and launched. It also builds on an existing Rocket Lab footprint in Maryland, as the company already operates a manufacturing facility for satellite separation systems and CubeSat dispensers in Silver Spring.

CEO Peter Beck framed the expansion as a natural extension of the company's vertical-integration strategy. "Rocket Lab is a world leader in advanced composites through our launch and spacecraft programs," Beck said in the announcement, pointing to Electron, the world's first carbon composite orbital launch vehicle, and the Photon spacecraft bus that delivered NASA's CAPSTONE satellite to lunar orbit in 2022. "We have the experienced team, manufacturing and test equipment, established supply chain, and heritage to deliver reliable composite products to the space industry at scale, and because we're deeply vertically integrated, we can do it fast and at competitive prices."

The Maryland Department of Commerce is backing the project with a $1.56 million repayable loan through the Advantage Maryland program. Rocket Lab is also eligible for the Partnership for Workforce Quality program, the More Jobs for Marylanders program, and the state's Job Creation Tax Credit.

The Hiring Signal: Roles, Salaries, and Skills in Demand

Rocket Lab's Middle River complex is pulling in a specific kind of worker, and the job postings make that clear. Indeed lists 17 open positions at the Maryland facility, spanning production supervisors, composite technicians, and senior operations engineers. Zero G Talent's board shows 44 Rocket Lab roles added in the past week alone, with several tied directly to the Middle River site. The hiring velocity is not subtle — this is a production ramp, not a research outpost.

The most revealing posting is the Composite Technician I–Senior requisition, which lays out exactly what the company needs to scale Neutron's airframe production. The base pay range is $22–$40 per hour, with equity on top. That hourly band is wide by design: the posting explicitly states it can hire at four levels, from Technician I through Senior, with experience requirements that climb steeply at each rung.

The day-to-day work is hands-on and physical. Technicians lay up composite laminates, fit honeycomb and syntactic core, run vacuum bag processing, and cure parts in ovens and autoclaves. They read drilling, laminating, and assembly prints. They use calipers, micrometers, precision scales, and torque wrenches. The job requires standing for eight-hour shifts, climbing ladders, working in tight spaces, and lifting up to 25 pounds unassisted. This is factory-floor work, not a lab.

The "nice to have" qualifications tell their own story. Rocket Lab wants people with core bond and splicing experience, prepreg manufacturing knowledge, and resin infusion skills. These are the processes that matter for building large-scale composite structures like Neutron's fuselage and fairings at production volume. The company is not looking for generalists — it wants technicians who have worked in aerospace composite manufacturing and can step into an autoclave workflow on day one.

Beyond the technician tier, the company is also hiring manufacturing engineers and AFP (automated fiber placement) operators at the Middle River site, according to LinkedIn listings. The Manufacturing Engineer I–Composites role is based at the Space Structures Complex directly, signaling that Rocket Lab is building out the engineering layer that sits above the production floor (the people who will define the processes the technicians execute).

One constraint runs through every U.S. posting: ITAR. Rocket Lab requires employees at the facility to be U.S. citizens, lawful permanent residents, or individuals granted asylum or refugee status, in compliance with International Traffic in Arms Regulations. That requirement shapes the talent pool before a single resume is reviewed.

The benefits package is competitive for the region: three weeks paid vacation, 11 paid holidays, 401(k) with company match, paid parental leave, and a company-sponsored HSA option. For a facility in Baltimore County competing against defense contractors in Aberdeen and Hanover, that package is part of the pitch.

What the postings collectively reveal is a company staffing up for serial production of a launch vehicle structure. The skill sets are narrow, the physical demands are real, and the experience ladder is clearly defined. Rocket Lab is not hiring for exploration. It is hiring to build.

Why Advanced Composites Are the New Battleground in Space Manufacturing

The material science case settled years ago. Carbon fiber-reinforced polymers are about 100 times stronger than steel and roughly eight times lighter. NASA's Superlightweight Aerospace Composites project at Langley Research Center estimates that high-strength carbon nanotube yarn could deliver a 25 percent mass savings over conventional carbon fiber reinforced polymers and up to 50 percent over aluminum. In an industry where every kilogram of structure is a kilogram of payload lost, that math drives every new program decision.

Rocket Lab's 99-ton, 12-meter-tall automated fiber placement machine at Middle River, built by Electroimpact and capable of laying 100 meters of carbon fiber reinforced polymer per minute, is the physical expression of that shift. It exists to produce the airframe and payload fairing for Neutron, Rocket Lab's 8-ton payload-class launch vehicle, which is designed from the ground up as an all-carbon fiber composite rocket. The company's smaller Electron has been doing this since 2019 and is now the second most frequently launched rocket in the U.S. Neutron scales the same philosophy to a vehicle meant for mega-constellation deployment and, eventually, human spaceflight.

The broader market numbers back up the bet. BIS Research forecasts the global advanced space composites market growing from $1.47 billion in 2023 to $4.61 billion by 2033, a compound annual growth rate of 12.11 percent. 360iResearch puts the 2025 market at $1.73 billion, reaching $3.86 billion by 2032. Launch vehicles led the platform segment in 2023 with a 40.25 percent share, and carbon fiber dominated materials at 31.1 percent. These are not experimental numbers — they reflect production-rate decisions already made.

The reason is straightforward and it is not just mass. Spacecraft structures must maintain dimensional stability across temperature swings that would warp most metals. They must resist radiation degradation, micrometeoroid impact, and the mechanical violence of launch vibration, all while meeting outgassing requirements that protect sensitive optics and instruments. High-modulus carbon fiber laminates with low-moisture-absorption cyanate ester resins have become the default for optical benches, radio frequency reflectors, and solar array substrates precisely because they hold shape when the environment tries to change it.

The industry's move toward reusable vehicles has added a new requirement: fatigue resistance over multiple thermal and mechanical cycles. Sierra Space's Dream Chaser uses a carbon fiber-reinforced silicon-carbide ceramic matrix composite thermal protection system designed in cooperation with Oak Ridge National Laboratory. Firefly Aerospace builds its Blue Ghost lunar lander, core panels, struts, legs, thrusters and all, from the same flight-proven carbon fiber composites used in its Alpha rocket and Elytra orbital vehicle. Intuitive Machines' Nova-C lunar lander, which achieved the first U.S. commercial lunar landing in 2023, relies on Type 5 carbon fiber composite pressure vessels and landing struts from Rock West Composites.

The manufacturing side is shifting just as fast. Automated tape laying and fiber placement machines are replacing hand layup for primary structures. Additive manufacturing with continuous carbon fiber is producing satellite components that snap together without metal screws. Sidus Space demonstrated this with its LizzieSat satellite launched in March 2025 using Markforged's Onyx FRA material. Kerberos Engineering in Spain has reduced manufacturing resources for deployable solar array structures by 90 percent compared to traditional unidirectional prepreg layup by using ultra-thin woven spread-tow fabrics with vacuum-assisted resin transfer molding.

None of this means composites are simple to work with. Specialized manufacturing techniques, including filament winding, autoclave curing, and additive manufacturing with high-performance polymers, involve complex machinery, precise environmental control, and skilled labor that keep production costs high. Quality control and testing requirements for space-grade composites add expense and limit how fast a company can iterate. That is exactly why Rocket Lab is spending on a machine that eliminates 150,000 manufacturing hours: the material advantage only compounds if you can afford to build with it at scale.

For engineers watching the Middle River expansion, the signal is clear. The material is no longer the bottleneck — the manufacturing process is. The jobs Rocket Lab is hiring for are the ones that solve how to lay down carbon fiber at production speed, inspect it in real time, and qualify it for flight without breaking the cost model. That is where the industry's composite advantage will either hold or collapse.

Maryland's Quiet Rise as a Space-Talent Hub

Rocket Lab's decision to build its Space Structures Complex in Middle River didn't happen in a vacuum. The company is moving into a state that already has the highest density of aerospace engineers in the country, more than 9,000 aerospace companies, and a supply chain that stretches from satellite dispensers in Silver Spring to composite layup in Baltimore County. Maryland was already an aerospace state. Rocket Lab just made it harder to ignore.

The company's Middle River expansion builds on a manufacturing legacy that goes back to 1929, when the Glenn L. Martin Company set up one of the nation's first full-scale aircraft plants at the same site. That facility has been in continuous aerospace use for nearly a century. Rocket Lab is now retooling it for carbon-fiber composite structures for the Neutron rocket, bringing robotic additive manufacturing to a site that once built bombers.

But the deeper story is the ecosystem that surrounds the site. Maryland's aerospace workforce is anchored by NASA Goddard Space Flight Center in Greenbelt, the Johns Hopkins Applied Physics Laboratory in Laurel, and Naval Air Station Patuxent River in Southern Maryland. NOAA's Satellite Operations Facility in Silver Spring commands the nation's environmental satellite constellations. The Space Telescope Science Institute on the Johns Hopkins campus in Baltimore runs science operations for Hubble and James Webb. These aren't just employers — they're talent factories that produce engineers and technicians who then flow into the commercial sector.

The state's universities reinforce that pipeline. The University of Maryland College Park's A. James Clark School of Engineering ranks #16 nationally for undergraduate engineering, with its aerospace program at #11 among public institutions. UMBC has built particular strength in cybersecurity and Earth observation. Johns Hopkins' Whiting School sits at #13 for graduate engineering. The Pittsburgh Institute of Aeronautics in Hagerstown was ranked the #1 two-year trade school in the nation by Forbes. Maryland's 16 community colleges are ranked #1 nationally by WalletHub.

This concentration of federal assets, universities, and specialized suppliers is what the Maryland Aerospace and Technology Commission organized into its SMART Aerospace Hub framework: Systems & Missions, Materials & Manufacturing, Autonomy, Resilient Navigation, and Talent. The framework is an attempt to give the state a coherent brand, something it has historically lacked. As Senator Alonzo Washington noted at the commission's first meeting in October 2024, Maryland is home to world-class research but is not well known for it. Other states, including Texas, California, and Colorado, market their aerospace identities more aggressively.

The competition is real. Space Florida reported $5.9 billion in total economic impact since 2007, with nearly 20% of the state's aerospace workforce tied to its projects. Virginia opened Rocket Lab's Launch Complex 3 on Wallops Island, just across the state line, and is investing in spaceport infrastructure. The MATC's own strategic plan acknowledges that several of Maryland's federal anchors, NOAA, NIST, and NASA Goddard, face uncertain or reduced growth trajectories, which means the state can't rely on federal expansion alone.

That's where Rocket Lab's Middle River bet matters beyond the jobs it directly creates. Each of those hires draws on and reinforces the local talent pool. Cedric Jacob, Rocket Lab's Director of Operations for the Space Structures Complex, sits on the MATC as an appointed member, a sign that the company is embedding itself in the state's governance, not just its real estate.

The MATC is asking the General Assembly for grantmaking authority, a dedicated aerospace program line in the Commerce Department budget, and the power to designate aerospace economic zones. At its February 2025 meeting, commissioners discussed studying why commercial companies have passed Maryland in the past and where those firms relocated. The goal is to stop the bleeding and start competing for the kind of high-visibility wins that Rocket Lab represents.

Maryland may never match Florida's launch cadence or Huntsville's missile heritage. But it doesn't have to. The state's advantage is density: of engineers, of federal missions, of universities, and now of commercial manufacturers willing to put down roots. Rocket Lab saw it. The question is how many others follow.

The Vertical-Integration Play: Why Rocket Lab Is Bringing Structures In-House

Rocket Lab's decision to build a dedicated space-structures complex in Middle River isn't just about adding factory floor. It's the physical manifestation of a strategy that has reshaped the company's entire business model: control every critical layer of the stack, from raw carbon composite to orbiting spacecraft, and let everyone else deal with the margin compression of being a subcontractor.

The logic starts with what Rocket Lab already proved on Electron. The vehicle was the world's first carbon composite orbital launch vehicle, and the company has since built composite spacecraft buses, satellite dispensers, solar array substrates, and structural panels across its Long Beach, Albuquerque, and New Zealand facilities. CEO Peter Beck framed the Middle River expansion as a "natural progression" of that heritage, one that lets the company deliver composite products to the broader space industry at scale while feeding its own internal demand. The 113,000-square-foot facility at 2323 Eastern Boulevard will produce carbon composite spacecraft buses, structural panels, satellite dispensers, aerostructures, heat shields, composite overwrap pressure vessels, and launch vehicle structures. It also plays a direct role in the development and long-term supply of composite structures for Neutron, the medium-lift vehicle that represents Rocket Lab's single biggest upside variable in 2026.

The strategic rationale breaks into three parts.

Supply-chain resilience. Rocket Lab's 2025 annual report and third-quarter results make the company's segment mix clear: Space Systems is now the larger revenue engine, contributing the majority of the $602 million in record annual revenue. That division depends on a steady flow of composite structures, separation systems, solar cells, and avionics, much of which the company already manufactures in-house through acquisitions like SolAero, Planetary Systems Corporation, and Advanced Solutions. Adding dedicated composite-structures capacity in Maryland reduces dependence on external suppliers for a material class where qualified aerospace vendors are few and lead times are long. It also positions the facility within reach of Rocket Lab's growing assembly, integration, and test complex at the Mid-Atlantic Regional Spaceport and NASA Wallops Flight Facility in Virginia, where Electron and Neutron integration and launch operations are based.

Cost and speed. Beck has said that because Rocket Lab is "deeply vertically integrated," it can deliver composite products "fast and at competitive prices." The company's own analysis supports this: by eliminating intermediate suppliers, Rocket Lab recaptures margin at each layer and compresses the iteration cycle between design, test, and production. For Neutron, where the first-stage carbon composite structure must be manufactured repeatedly and eventually at scale for a reusable vehicle, owning that process internally is the difference between a cost structure that works and one that doesn't.

Defense-program credibility. The $816 million Space Development Agency Tracking Layer Tranche 3 award, announced in December 2025, requires Rocket Lab to design, manufacture, and operate 18 missile-warning satellites. That contract, combined with the earlier $515 million Transport Layer Tranche 2 award, means the company is now a prime contractor on programs with total captured value approaching $1.3 billion. Defense customers care about schedule confidence and supply-chain security as much as unit cost. A company that builds its own composite structures, solar arrays, separation systems, flight software, and payloads can tell the Pentagon it controls the critical path. A company that buys those layers from a patchwork of vendors cannot.

The Middle River facility is the manufacturing backbone that makes that pitch credible. It doesn't replace the composite work already happening in Long Beach, Albuquerque, or New Zealand. It expands it, and it does so in a location that shortens the logistics chain to the Virginia launch site where Neutron will fly. For Rocket Lab, bringing structures in-house isn't a bet on any single rocket or contract. It's the infrastructure play that ties the whole vertical-integration thesis together.

Political and Economic Backing: State and Federal Support for the Middle River Bet

When Rocket Lab cut the ribbon on its Middle River Space Structures Complex on November 17, 2023, the guest list read like a roster of Maryland's political establishment. Senator Ben Cardin, Congressman Dutch Ruppersberger, and Baltimore County Executive John Olszewski Jr. handled the ceremonial scissors. Delegates Ryan Nawrocki and Kathy Szeliga, Senator J.B. Jennings, and Councilman David Marks were all on site. Governor Wes Moore announced the project from Annapolis the same day.

The turnout was not symbolic. The Maryland Department of Commerce committed a $1.56 million repayable loan through the Advantage Maryland program to help cover renovation costs on the 113,000-square-foot former Lockheed Martin Vertical Launch Building. Rocket Lab also qualified for the Partnership for Workforce Quality program, the More Jobs for Marylanders program, and the state's Job Creation Tax Credit. Baltimore County added its own layer of support, though the county has not disclosed a specific dollar figure.

Moore framed the project in workforce terms. "Renovating this significant Baltimore County site and creating dozens of new jobs will stimulate opportunity for the region," he said in the state's press release. Rocket Lab has committed to creating 65 permanent full-time positions at the facility by December 2025.

The federal delegation tied the investment to broader competitiveness arguments. Cardin said the facility would "allow Maryland to continue to stand out as a global competitor and stimulate economic growth throughout the state." Van Hollen called it a step that would "further cement Maryland's status as a leader in American and international space exploration." Ruppersberger, whose district includes Middle River, pointed to the site's history (aerospace manufacturing has operated there since 1929) and said he hoped the Rocket Lab move would "generate a domino effect of innovation and economic development across the region."

Local officials leaned into the same legacy angle. Nawrocki, a Middle River resident, called the announcement "personally gratifying," noting his family's ties to aircraft building at the site during World War II. Szeliga said her father had worked at the former Glenn L. Martin facility. Councilman Marks said the project continued "the proud tradition of aviation and aeronautics in eastern Baltimore County."

Peter Beck, Rocket Lab's founder and CEO, acknowledged the political support directly in his statement, thanking Moore, Cardin, Van Hollen, Ruppersberger, the Maryland Department of Commerce, and Baltimore County. The company's decision to locate composite structures production near its existing Silver Spring facility and its growing assembly complex at NASA Wallops Flight Facility in Virginia gave the state's pitch a logistical logic that matched the political enthusiasm.

The incentive package and the bipartisan attendance at the ribbon cutting signal that Maryland is willing to spend to compete for space-manufacturing jobs. Whether the 65 positions Rocket Lab has committed to materialize on schedule, and whether they seed the cluster effect Ruppersberger described, is the next question.

What This Means for Engineers: How to Position Yourself for the Maryland Space Boom

Rocket Lab's Middle River complex is hiring, and the roles tell you exactly what the company needs to scale. Zero G Talent's board lists 44 Rocket Lab positions added in the past seven days alone, spanning manufacturing engineers, quality inspectors, systems engineers, and a dedicated talent acquisition partner based in Middle River. The hiring velocity is a signal: this isn't a ribbon-cutting exercise. The production lines need people now.

What Rocket Lab actually wants

The open roles at Middle River and across Rocket Lab's U.S. sites point to a specific profile. The company needs manufacturing engineers with hands-on machining and fluid-systems experience, quality inspectors who can work to aerospace tolerances, and systems engineers who can hold together complex, multi-subsystem programs. A senior digital payload engineer role in Long Beach pays $130,000–$190,000 a year. A Tucson-based senior systems engineer role requires an active Secret clearance. The compensation bands match what the broader market is offering: mid-career aerospace engineers earn $110,000–$150,000, while senior and principal engineers at top employers exceed $200,000, according to SpaceNexus's 2026 career guide.

For manufacturing and production roles specifically, the Bureau of Labor Statistics reports a median annual wage of $79,140 for aircraft and avionics technicians, but the space sector pays more. GE Aerospace's Lafayette, Indiana engine plant, a useful proxy for advanced aerospace manufacturing compensation, averages $80,000–$90,000 in base pay, with top technicians at major airlines reaching $130,000 within nine years. Rocket Lab's Middle River roles, which involve composite layup, autoclave cure cycles, and precision assembly for flight structures, sit at the higher end of that range.

The skills that matter most

Three capability clusters separate candidates who get callbacks from those who don't.

First, composites and advanced materials. Rocket Lab's entire Middle River investment is built around carbon-fiber-reinforced polymer structures for Neutron and satellite platforms. Engineers with hands-on experience in automated fiber placement, out-of-autoclave cure processes, or honeycomb-core sandwich construction are the ones filling these roles. A bachelor's in aerospace or mechanical engineering remains the baseline, but what wins interviews is demonstrated work with composite layup, NDT inspection methods (ultrasonic, thermographic), or tooling design for large bonded assemblies.

Second, software-adjacent hardware skills. Protingent's 2026 skills analysis notes that even hardware-focused aerospace roles increasingly require fluency in embedded systems, Python scripting, and data-driven test engineering. Rocket Lab's manufacturing engineer listings ask for people who can develop and mentor machinists daily, which means writing and optimizing CNC programs, interpreting GD&T callouts on engineering drawings, and automating inspection workflows. Engineers who can bridge the gap between the machine shop floor and the digital thread are in short supply.

Third, systems thinking. The days of optimizing a single component in isolation are over. Protingent identifies model-based systems engineering (MBSE), familiarity with SysML or MATLAB/Simulink, and the ability to reason about cross-subsystem interfaces as top differentiators. Rocket Lab builds launch vehicles, spacecraft, and satellite buses under one roof. Engineers who understand how a structural design decision ripples into thermal, propulsion, and integration constraints will advance faster than those who don't.

Clearances and compliance: the hidden filter

Rocket Lab's Tucson listing explicitly requires a Secret clearance, and the broader defense-space overlap means cleared candidates hold a significant advantage. Blue Signal's 2026 hiring analysis notes that only about 2 million people in the U.S. hold an active federal security clearance, less than 0.6% of the population. TS/SCI-cleared software engineers command $135,000–$160,000, and the premium extends to manufacturing and quality roles on classified programs. If you're eligible for a clearance and don't yet have one, start the process now. Timelines stretch past 12 months, and employers can't wait.

On the compliance side, familiarity with AS9100 quality management systems, ITAR export controls, and FAA/AST licensing frameworks signals that you can operate in a regulated production environment from day one. These aren't skills you pick up on the job at a startup that's never built flight hardware.

How to break in from outside the space sector

The aerospace industry's retirement wave is real. The average age of a certified aircraft mechanic in the U.S. is 54, with 40% over 60, according to a joint 2024 report from the Aviation Technician Education Council and Oliver Wyman. That attrition is creating openings for mid-career engineers from adjacent fields, including automotive manufacturing, defense contracting, and even oil and gas, who can map their experience onto space applications.

The playbook is straightforward. If you're a manufacturing engineer in automotive, emphasize your experience with automated production lines, statistical process control, and high-mix/low-volume production, all directly transferable to satellite and launch-vehicle manufacturing. If you're a structural engineer from civil or marine, highlight your FEA and composite analysis work. If you're a software engineer from any sector, learn basic orbital mechanics and get comfortable with real-time data pipelines. SpaceNexus recommends building a GitHub portfolio with telemetry-processing scripts or small autonomy demos.

Veterans have a direct pipeline. Military experience in avionics maintenance, propulsion systems, or quality assurance on defense programs translates almost one-to-one. Blue Signal notes that many active clearance holders come from military backgrounds, and companies like Rocket Lab actively recruit from that talent pool.

The timeline to act

Aerospace engineering roles take 58 to 62 days to fill on average, according to Spectrum Recruiting Solutions, and specialized positions requiring clearances or niche expertise take longer. But the best roles at companies like Rocket Lab are often filled through internal networks or direct outreach before they ever hit a public board. If you're serious about Middle River, find Rocket Lab engineers and recruiters on LinkedIn, attend the SmallSat Symposium or Space Symposium, and get visible in the AIAA's manufacturing and structures technical committees.

The window is open now. Rocket Lab is staffing a facility that will produce structures for Neutron and satellite programs at scale. The engineers who get in during this ramp-up phase will shape how the operation runs for the next decade.

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