The Overture supersonic airliner was supposed to be Boom's reason for existing. Now the company's primary revenue driver is a product it conceived, funded, and sold in a matter of months.

The Pivot That Changed Everything

Boom Supersonic spent a decade trying to bring back supersonic passenger flight. In December 2025, the company raised $300 million for something else entirely: a natural-gas turbine business called Superpower.

The scale of the shift is hard to overstate. Crusoe, an AI infrastructure company, agreed to buy 29 of Boom's 42-megawatt turbines, a deal covering 1.21 gigawatts of generating capacity with deliveries starting in 2027. TechCrunch reported the backlog at more than $1.25 billion before the company had shipped a single unit. Darsana Capital Partners led the funding round, with Altimeter Capital, Ark Invest, Bessemer Venture Partners, Robinhood Ventures, and Y Combinator participating.

CEO Blake Scholl framed the move as the kind of self-funding engine that SpaceX found in Starlink. "I've been kind of keeping my eyes open for 10 years for what could be our Starlink," Scholl told TechCrunch. "I said no to a thousand things because I concluded they were distractions. This one we're saying yes to because it's so clearly on path." Profits from Superpower are earmarked to fund the Overture supersonic airliner's continued development.

The turbine shares 80% of its parts with Boom's Symphony jet engine — the same engine designed to power Overture to Mach 1.7. It's a 42-megawatt aeroderivative unit shipped in a 40-foot container, capable of running on natural gas or diesel without a dedicated water supply. Boom claims it maintains full output at 110°F, a detail that matters in the hot climates where data centers are proliferating.

Production targets are aggressive: 1 GW of annual capacity by 2028, 2 GW by 2029, and 4 GW by 2030. If Boom hits those numbers, it would represent a significant expansion of the aeroderivative turbines available for deployment in the US. The first units will come out of Boom's existing facilities in Denver while the company builds a larger factory.

Crusoe is paying roughly $1,033 per kilowatt of generating capacity. That's on the high side for a simple-cycle aeroderivative turbine, though the comparison is imperfect because Crusoe handles pollution controls, electrical connections, and gas hookups separately. Boom targets 39% efficiency, comparable to competitors but well below combined-cycle gas turbines that recover exhaust heat to push efficiency above 60%. Scholl said Boom is developing a field upgrade to convert its turbines from simple cycle to combined cycle, though he acknowledged that such conversions are typically construction projects.

What makes the pivot remarkable is its speed. Boom was founded in 2014 to build a successor to Concorde. After Rolls-Royce, Pratt & Whitney, and General Electric all passed on supplying an engine (the capital costs were too high), Boom decided in 2021 to develop Symphony itself. The XB-1 demonstrator became the first privately developed civil aircraft to break the sound barrier in January 2025. Overture test flights are scheduled for 2027, with commercial service targeted for 2030. And now, two years before those test flights, the company's primary revenue driver is a product it conceived, funded, and sold in a matter of months.

Boom still makes the Overture timeline contingent on Superpower's success. Whether a turbine business born from jet-engine parts can scale fast enough to fund a supersonic airliner is the question the next several years will answer.

A Hiring Surge Nobody in Aerospace Saw Coming

Boom Supersonic's careers page now lists roughly 30 open roles, and the split tells a story the company's marketing doesn't. The Superpower section, its natural gas turbine division, has 12 positions posted, nearly 40% of all openings. That's a unit that didn't exist as a commercial business until late 2025.

The roles themselves look nothing like a standard aerospace hiring sheet. Yes, there are propulsion engineers: combustion systems, turbine aerodynamics, secondary air systems, bearing design. But the fastest-growing category sits outside engineering entirely. Boom posted a Project Manager role for the Superpower program in February 2026, with a salary band of $89,000 to $151,000 depending on level. The job description reads like it came from an energy infrastructure firm, not an aircraft company: integrated master schedules, earned value management, budget forecasting, supplier accountability, stakeholder alignment.

The electrical engineering roles reinforce that pattern. Boom is hiring both low-voltage and medium-voltage electrical engineers under the Superpower division, titles that map directly to power distribution and grid integration work, not avionics. These are the people who connect a turbine to a data center's electrical backbone and, ultimately, to the grid.

Compare that to Boom's traditional aerospace needs. The manufacturing group still dominates the company's overall hiring, with CNC programmers, machinists, quality engineers, and a head of supply chain, all roles tied to building Overture airliner hardware in Centennial, Colorado. The propulsion engineers working on combustion and cooling systems could plausibly serve either the jet engine or the turbine program. But the project managers and medium-voltage electrical engineers have no obvious application to building a supersonic airliner. They exist because Boom is now, in effect, an energy company.

The Superpower division's own description confirms the scope. The Symphony engine, originally designed for the Overture airliner, now "powers the Overture supersonic airliner and the Superpower natural gas turbine for AI." That single sentence on Boom's careers page is the entire pivot compressed into 20 words.

What's striking is the speed. The division's job postings cluster in early 2026, coinciding with the Baker Hughes generator order announced in February, 1.21 GW of generation capacity that is the commercial backbone of the whole effort. You don't hire medium-voltage electrical engineers and program managers for a PowerPoint. You hire them because turbines are going to be installed somewhere, connected to something, and someone needs to manage the schedule.

The talent profile has shifted accordingly. Boom's aerospace engineers tend to hold patents and, in some cases, pilot licenses; the company's own careers page notes that some staff have flown inverted. The Superpower project manager posting asks for "startup or growth-stage aerospace experience" but emphasizes the ability to "build structure in fast-moving, resource-constrained environments." That's a job spec designed to pull people from energy project development, not from Boeing or Lockheed.

Boom is still an aerospace company. But its hiring data shows it's becoming something else at the same time — and the two identities are competing for headcount inside a 30-person open reqs list.

Why AI Data Centers Need Jet-Engine Turbines

The core problem is timing. AI compute clusters go from zero to full power in seconds, and they run 24/7. The grid can't keep up.

US electricity demand is projected to rise by 83 terawatt-hours in 2025 alone, the equivalent of adding 7.7 million homes. Data centers are the largest driver. But transmission infrastructure is decades behind: at the current build rate, it would take 80 years to deliver the high-voltage lines needed for the next decade.

That gap is why operators are turning to onsite gas turbines, and why aeroderivative turbines (derived from jet-engine technology) have become the preferred option.

Speed and load flexibility. AI workloads are not steady. Training runs spike power draw unpredictably; inference clusters cycle between idle and peak. Aeroderivative turbines can ramp to full output in minutes and handle rapid load changes without the efficiency penalties that plague heavy-duty industrial turbines at partial load. Carter Palmer of Forecast International said aeroderivative units are popular with AI data centers specifically because of "speed, flexibility, and reliability in providing on-site power."

Behind-the-meter deployment. Hyperscale data centers now require hundreds of megawatts, some approaching a gigawatt. In many regions, the local grid was never built for that density. Rather than wait years for interconnection queues, operators are building co-located power plants on the data center site itself. GE Vernova's LM2500XPRESS, an aeroderivative package based on its TF39 jet engine heritage, has become the default hardware.

Reliability as the non-negotiable. Data center operators target 99.9% to 99.9999% uptime. Even brief outages disrupt workloads and cost real money. Gas turbines increasingly replace or supplement diesel generators for backup, offering lower emissions with the same reliability. They also pair with battery storage in hybrid systems that handle transient spikes while the turbine ramps.

The bridge fuel argument. OEMs and operators frame gas as a near-term necessity while longer-duration storage, small modular reactors, and hydrogen-capable turbines mature. GE Vernova's strategy rests on the assessment that intermittent renewables alone cannot meet the projected increase in data center power demand by 2030. Natural gas fills the gap, for now.

The market reflects this logic. Lead times for some models now stretch into 2030.

The technical case is straightforward: AI loads are too big, too fast, and too variable for the existing grid. Jet-derived turbines are the only proven technology that matches all three constraints at scale.

The Talent War With Energy and Defense Primes

Boom Supersonic's new turbine business didn't just create jobs — it dropped the company into one of the tightest talent markets in the industrial economy. The roles it needs most, project managers and field engineers who can deploy power-generation hardware on-site, are the same people Siemens Energy, GE Vernova, and defense primes have been fighting over for years.

Those are the people Boom now needs to recruit, and they're not sitting on the bench. Indeed lists 1,972 energy infrastructure project manager openings across the country. Siemens Energy has 242 field engineer positions posted on Indeed and 158 field-service roles on LinkedIn.

The competition isn't just about salary. Established energy companies offer institutional knowledge, career ladders built over decades, and project portfolio depth. Defense primes add security clearances to the mix, which narrows the talent pool further. Boom is asking candidates to choose a 12-year-old supersonic startup over companies whose power divisions bring in tens of billions annually.

Boom's pitch is speed and upside. The company's turbine orders are tied directly to AI data center buildout, a market growing fast enough that project managers can point to visible, near-term deployment rather than multi-year government procurement cycles. But the energy sector knows how to respond: Airswift's 2025 salary data shows contract roles in energy infrastructure commanding premium day rates, and firms like ICF and Citi are hiring analysts focused specifically on power and energy infrastructure.

The project management labor market is tight globally. A 2025 salary report from APMIC, based on over 28,000 verified responses across 65 countries, found that certifications like PMP adding 10–20% on top of base pay. Those certified, experienced professionals have options, and Boom isn't the only company calling.

What This Means for the Overture Jet Program

Boom says the Superpower turbine exists to fund the Overture. The company's own website states the natural gas turbine is "intended to generate revenue for Boom while collecting operational data for the Symphony engine." On paper, the logic is clean: the turbine shares 80% of its components with Symphony, so every hour a Superpower unit runs in a Crusoe Energy data center is an hour of free flight-test data for the engine that will eventually power a Mach 1.7 airliner.

The revenue side looks real. Crusoe Energy ordered 29 Superpower units totaling 1.21 GW in a deal worth roughly $1.25 billion, with deliveries expected in 2027. That single order represents more committed capital than Boom's entire aerospace order book: 35 firm Overture orders from United Airlines and 20 from American Airlines, plus pre-orders from Japan Airlines, totaling 130 aircraft. At an estimated $6 billion to develop and certify the Overture and its engine, the turbine backlog alone doesn't close the gap, but it changes the company's survival math.

The question is whether the two businesses can share a balance sheet without one starving the other. Boom has roughly 150 employees. The Overture program is still in active development; the company began manufacturing parts for the Symphony engine test core at its Denver facility in July 2025, with prototype testing planned for 2026. First flight is targeted for 2028, type certification for 2029. Those milestones require the same propulsion engineers, the same test infrastructure, and the same senior attention that the Superpower turbine business now demands at industrial scale.

There's a precedent for this kind of tension. When a startup's secondary product line grows faster than its founding mission, the founding mission doesn't usually die — it gets resourced like a legacy program. The Overture still has airline customers, a completed XB-1 demonstrator that broke the sound barrier in January 2025, and a Superfactory in Greensboro ready for production. None of that is going away. But the center of gravity at Boom has shifted. Six months ago, the company was an aerospace startup that happened to have turbine technology. Now it's a power-generation company with an aerospace program attached.

The Overture's timeline has already slipped multiple times, from 2023 to 2025 to 2027 for first flight, now 2028. Each slip was explained by technical complexity. The next one, if it comes, will have a different explanation.

One Active Hub, One Empty Factory

Boom Supersonic's open roles tell a story about where the company actually operates, and it's not the story its marketing tells. The careers page lists every single open position in Centennial, Colorado, a Denver suburb. Propulsion engineers, CNC programmers, electrical engineers, software engineers, all 30 roles on LinkedIn, all in the same metro area. The company's own site describes Denver as home base: "300 days of sunshine, Rocky Mountains out your window."

Then there's Greensboro. The 179,000-square-foot Superfactory at Piedmont Triad International Airport was built to manufacture the Overture airliner. North Carolina poured more than $50 million into the facility. As of early 2026, it sits mostly idle, with a December 31, 2026 deadline forcing state officials to decide whether to keep Boom's incentives alive. The Raleigh News & Observer reported the factory faces a job deadline, and Prism News confirmed the hangar is quiet.

The hiring data backs this up. None of the 30 Denver-area listings on LinkedIn reference North Carolina. The Built In job posting, a general "dream job" catch-all, lists the location as Denver. Every hardware, propulsion, and manufacturing role the company is actively trying to fill is in Colorado.

This matters because the turbine order with Baker Hughes is a 1.21-gigawatt generator deal. If that business scales, someone needs to project-manage installations, commission equipment, and maintain field operations. Those roles don't appear in the current job listings either. Either Boom is hiring for them under different titles, the work is being contracted out, or the turbine revenue is still too new to have generated its own workforce.

For now, the map is simple: one active hub in the Denver suburbs, one empty factory in North Carolina, and a turbine business that hasn't yet shown up in the hiring data.

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