Summer 2027

Engineering and Tech Intern

Posted on 8/16/2026

Boom Supersonic

Boom Supersonic

201-500 employees

Designs and manufactures commercial supersonic aircraft

Compensation Overview

$35 - $40/hr

+ $2,000 housing allowance

No H1B Sponsorship

Centennial, CO, USA

In Person

100% on-site at Boom's headquarters in Centennial, Colorado.

Category
Hardware Engineering (1)
Required Skills
Propulsion
Data Analysis

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Requirements
  • Applicants must have a track record of building real hardware, leading a competitive design team, or executing high-impact technical work.
  • Applicants must be comfortable taking ownership of complex, ambiguous problems and working independently.
  • Applicants must be willing and able to work 100% on-site in Centennial, Colorado.
  • For Materials and Processes, applicants need solid fundamentals in metallic and ceramic materials science, including nickel superalloy strengthening mechanisms and thermal processing of ceramics used as coatings and molds.
  • For Materials and Processes, applicants need hands-on materials-and-processes laboratory experience testing, categorizing, and evaluating high-performance materials, including creep testing, low-cycle fatigue testing, and superalloy metallography.
  • For Materials and Processes, applicants need exposure to advanced processes such as printing nickel superalloys and fabricating ceramics for investment casting.
  • For Manufacturing, hands-on manufacturing experience in a machine shop, assembly line, or real-hardware environment is required.
  • For Manufacturing, applicants should be familiar with machining processes, tooling, work instructions, or quality control in a production or research-and-development environment.
  • For Electrical or Embedded Controls, applicants need experience designing, integrating, or testing electrical systems.
  • For Electrical or Embedded Controls, applicants should be familiar with electrical design, controls, instrumentation, embedded systems, or hardware integration.
  • For Mechanical, applicants need experience designing, analyzing, or building mechanical hardware through industry, research, internships, Formula SAE, or personal projects.
  • For Mechanical, applicants should be familiar with computer-aided design, mechanical design principles, manufacturing processes, or structural analysis.
  • For Turbomachinery, applicants need experience with propulsion, turbomachinery, thermodynamics, fluid mechanics, combustion, or heat transfer through coursework, research, internships, or industry.
  • For Software, applicants need experience building real software used by people, such as personal projects with users, open-source contributions, hackathon projects, production code, or software from prior internships or research.
  • For Software, applicants need strong fundamentals in at least one programming language and fluency with modern artificial intelligence development tools.
  • For Special Projects, applicants need strong analytical ability, spreadsheet proficiency, and the ability to turn messy data into a clear answer.
  • Applicants must be eligible to access export-controlled information and technology under applicable U.S. export control laws, or be eligible to obtain the required authorizations from the U.S. Department of State.
Responsibilities
  • Work as an embedded member of a core engineering or business team on real, high-stakes problems.
  • For Materials and Processes, work on material selection, process development, laboratory categorization, coupon-to-part testing, and the production path from ingot to forged disks and single-crystal castings.
  • For Manufacturing, support engine assembly, machining, tooling, and process development as the program advances toward production.
  • For Electrical or Embedded Controls, design, build, and validate electrical or control systems, including instrumentation, controls, wiring architecture, and test systems.
  • For Mechanical, translate requirements into an integrated system while balancing performance, reliability, manufacturability, and testability across design, analysis, manufacturing, and test.
  • For Turbomachinery, perform engine design, performance modeling, and detailed analysis spanning thermodynamic cycle analysis, aerodynamics, aeromechanics, internal cooling flow, mechanical and structural component design, combustion, and testing.
  • For Software, build and ship tools used by engineering teams on the shop floor and at test stands to improve engineering, manufacturing, and testing workflows.
  • For Special Projects, own a cross-functional, high-stakes problem such as recovering a delayed project, building analysis for a major decision, establishing a durable business process, or determining the operational ground truth.
Desired Qualifications
  • For Mechanical, strong analytical and problem-solving skills and the ability to make thoughtful engineering tradeoffs are desirable.
  • For Mechanical, enthusiasm for cross-disciplinary collaboration on first-of-their-kind engineering challenges is desirable.
  • For Turbomachinery, strong analytical skills and the ability to connect theory to real hardware and experimental data are desirable.
  • For Turbomachinery, the ability to create analysis tools and script multidisciplinary workflows is desirable.
  • For Special Projects, experience solving or leading a substantial real-world effort, such as a competition team, research project, or role beyond the applicant's experience level, is desirable.
  • For Special Projects, comfort working both in spreadsheets and directly on a shop floor is desirable.
  • For Special Projects, comfort with ambiguity and ownership is desirable.

Boom Supersonic designs, manufactures, and sells commercial supersonic aircraft. Its flagship Overture is built to run on 100% sustainable aviation fuel, aiming to cut long-haul flight times and reduce carbon emissions. The company derives revenue from selling aircraft to major airlines and through strategic industry partnerships, supported by the building of its Overture Superfactory to scale production. Its differentiators include a clear path to SAF-powered supersonic travel, agreements with large customers such as American Airlines, United Airlines, and Japan Airlines, and the development of a dedicated manufacturing facility to enable scale. The goal is to make faster, more efficient long-distance air travel while pursuing net-zero carbon operations and broad adoption of supersonic passenger service.

Company Size

201-500

Company Stage

Late Stage VC

Total Funding

$709.8M

Headquarters

Englewood, Colorado

Founded

2014

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Simplify Jobs

Simplify's Take

What believers are saying

  • FAA’s June 30, 2026 rulemaking explicitly favors Boom’s boomless overland flight thesis.
  • Crusoe ordered 29 Superpower turbines in December 2025, creating immediate commercial traction.
  • Boom said in December 2025 that 95% of Symphony core parts are manufacturing.

What critics are saying

  • FAA’s June 30, 2026 proposal is not final until mid-2027, inviting lawsuits.
  • Overture still lacks certification; any Symphony failure freezes the entire passenger-aircraft roadmap.
  • Superpower distraction can hollow out Boom’s aviation identity if turbine orders slip or stall.

What makes Boom Supersonic unique

  • Boom’s Boomless Cruise targets FAA’s 0.11-psf limit, not Concorde-style loudness.
  • Symphony powers both Overture and Superpower, sharing one core across aviation and data centers.
  • Overture’s 65-to-88-seat design narrows to premium routes airlines already sell.

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Benefits

Performance Bonus

Unlimited Paid Time Off

Long Term Incentives/Equity

Growth & Insights and Company News

Headcount

6 month growth

0%

1 year growth

0%

2 year growth

-1%
Engadget
Aug 13th, 2026
The largest battery-electric plane ever made has flown for the first time.

The largest battery-electric plane ever made has flown for the first time. Heart Aerospace's X1 demonstrator flew for 27 minutes on $5 of electricity Heart Aerospace has announced the successful first flight of its prototype all-electric aircraft, the X1 demonstrator. X1 took off from Plattsburgh International Airport in Upstate New York and flew for 27 minutes, reaching an altitude of 1,100 feet, running entirely on its batteries. Heart added the flight, including takeoff and landing, consumed less than $5 worth of electricity, a useful selling point given the price of fuel. It has already earned praise from executives at United Airlines and Air Canada, who are interested in adding electric planes to its fleets. If Heart is successful, the X1 will be followed by the ES-30, a fixed-wing 30-seat hybrid model designed to service regional airports. The company's hope is that its planes can offer a far cheaper service for hopper flights currently operated by turboprop planes like the Embraer ERJ. It is aiming for an all-electric range of 125 miles, with that figure climbing to 500 miles with the hybrid engine. Heart's broader pitch is that it won't just be in the cheaper cost of electricity versus jet fuel that will make its plane affordable. Naturally, the cheaper maintenance and operation cost of electric motors, their better reliability will add to the balance sheet. Of more concern, perhaps, is Heart's belief that the ES-30, while operated by a single pilot initially, will enable autonomous service in the future. Right now, the company is aiming for the ES-30 to enter service by 2031, a date Engadget, Inc.'ll only say is "ambitious" by most plane development standards. The next decade does appear to be one in which a number of aviation startups are looking to offer their vision for the future of flight. Heart will be jostling for space alongside Boom Supersonic, Harbour Air, ZeroAvia, and Rolls-Royce. But, as Engadget, Inc. opined back in 2021, the future of electric flight is entirely dependent on batteries getting a lot denser and lighter compared to their current-day equivalents.

TCT Magazine
Aug 7th, 2026
Application spotlight: Boom Supersonic achieves 92% cost reduction in drill guide manufacture with FDM.

Application spotlight: Boom Supersonic achieves 92% cost reduction in drill guide manufacture with FDM. How Boom Supersonic is using Stratasys FDM technology to cut costs and time in fixture manufacturing. Boom Supersonic is aiming to redefine commercial air travel by bringing about a return of supersonic commercial flight. Following the XB-1 demonstrator aircraft, rolled out in 2020 and retired in mid-2025, Boom Supersonic is now ramping up the pace of the development of Overture. Overture is being designed to unlock industry-leading standards of speed, safety, and sustainability. The company is aiming to run it on 100% sustainable aviation fuels (SAF) at 'twice the speed of today's fastest passenger jets', and is hoping to commence flights in the next couple of years. To get there, and to get there on time, every second counts. And so, the company is turning to additive manufacturing to enhance its assembly processes. The week's biggest stories from this industry, direct to your inbox. Personal information

WJR
Aug 7th, 2026
FAA proposes new rules on sonic booms, opening door for return of supersonic flights.

FAA proposes new rules on sonic booms, opening door for return of supersonic flights. Aug 7, 2026 | 11:16 AM Aug. 7, 2026 ~ Mary Schiavo, former U.S. Department of Transportation inspector general, joins the show to discuss how supersonic flights are making a comeback. Over 20 years after international supersonic flights were suspended, and over 50 years after domestic supersonic flights were banned, the Trump administration is pushing for their return. The Federal Aviation Administration is looking to repeal the outright ban on supersonic aviation in favor of regulations on noise restraint for supersonic travel. The FAA banned supersonic flights back in 1973 following public pushback over noise complaints. But recently, a company called Boom Supersonic is working on plane technology that would reduce noise when breaking the sound barrier. The aim is to use this technology for commercial flights.

T3
Jul 4th, 2026
This new airline rule just made way for supersonic flight, minus the sonic boom.

This new airline rule just made way for supersonic flight, minus the sonic boom. The US plans to replace a 53-year-old supersonic flight ban with new noise-based rules Published 7 hours ago Quick summary. The US government has proposed new rules that could allow civilian aircraft to fly faster than the speed of sound over land without producing a disruptive sonic boom. If approved, the move could pave the way for a new generation of supersonic passenger jets and dramatically shorter journey times. Supersonic jets, that Titanfall 3 can use, might be coming back to the skies for real. The US Department of Transportation has announced plans to replace its 53-year ban on civilian supersonic flight over land with a new regulatory framework based on noise rather than speed. Instead of automatically prohibiting aircraft from exceeding Mach 1, the proposed rules would allow manufacturers to certify aircraft that can operate without creating a disruptive sonic boom. Meaning, if they can go that fast and keep relatively quite, there is no longer a speed limit in the skies. The current restriction dates back to 1973, when the sonic booms produced by aircraft such as Concorde made overland supersonic travel impractical. Advances in aircraft design have changed that. Latest Videos From 5 exercises that are better than push-ups for a stronger chest If you're determined to become a pro, there are hacks you can do to make push ups easier. However, if you'd rather focus your attention elsewhere then there are plenty of alternative exercises out there that can provide you with exact same benefits. These are the five Titanfall 3'd recommend... 0 seconds of 1 minute, 31 seconds Volume 0% Companies including Boom Supersonic are developing aircraft designed to reduce the boom to a much quieter "thump", while NASA's X-59 research aircraft is helping validate low-boom technology. If the new rules are adopted, they could eventually make much faster domestic flights possible across the US. The announcement is only the first step, with detailed noise standards still to be developed before commercial aircraft can be certified. Manufacturers will also need to prove their designs comply before passengers ever board a flight. But replacing the speed limit with a performance-based standard removes one of the biggest regulatory barriers facing supersonic aviation. While the change won't see Mach 1 passenger flights return overnight, it marks one of the most significant shifts in aviation policy for decades. If aircraft makers can deliver on their promises, journeys that currently take five or six hours could eventually be completed in half the time - without the window-rattling sonic boom that grounded the idea more than 50 years ago. Get all the latest news, reviews, deals and buying guides on gorgeous tech, home and active products from the T3 experts

AirInsight
Feb 16th, 2026
Artificial Intelligence (AI) and Aircraft Engine MRO

Artificial Intelligence (AI) and aircraft engine MRO. Care to share? This is not a story on how Artificial Intelligence (AI) can change aircraft engine maintenance processes or make maintenance more efficient - rather, it is about how a new use for older aircraft engines may disrupt the engine MRO market. New use for jet engines is growing rapidly. Aircraft jet engines are being repurposed to power Artificial Intelligence data centers, as demand for power outstrips utility companies' ability to ramp capacity. The need for additional electricity is growing, as data centers require megawatts of power to run the computers needed for Artificial Intelligence processing. Even the new entrant Boom Supersonic, which is developing a supersonic passenger aircraft and a new engine to meet its aircraft's unique needs, is considering engines for Artificial Intelligence data centers as an alternative to fund the development of its new aircraft. There is currently a major shortfall. For the aviation industry, this is a double-edged sword. There is currently a shortfall in aircraft engines, particularly new engines, following major maintenance issues with the Pratt & Whitney GTF engine and less severe but still significant issues with the CFM LEAP. As a result, spare engines and repair parts are in short supply, exacerbating the shortage. The shortfall in new aircraft and engines has led to longer in-service lives for the prior generation, with airlines having to decide how much to spend to maintain older aircraft and engines, and how long to keep them in service after a major overhaul. Because parts and engine spares are in such short supply, the economics have changed, with engines increasing in value because of production shortfalls. Those changes are large enough that industry players are "parting out" relatively young new aircraft because they are worth more from parts than as a whole. IATA has warned that aircraft demand is set to outpace production capacity, even without any added demand from AI. What would demand for another 200-300 aircraft engines for data centers do to pricing and aircraft values? The answer is simple: it would increase engine prices and further dislocate an already disrupted MRO market, which is not expected to return to a normal supply-demand balance before 2030. The bottom line. Artificial Intelligence is growing fast, with large data centers requiring tremendous levels of power for computing and water for cooling. With utilities unable to meet those requirements in the near term, using generating capacity from aircraft engines is among the quickest feasible solutions. Unfortunately, this could disrupt the aircraft engine MRO market, which is already out of balance in the post-pandemic environment. It is difficult to find parts to repair aircraft engines today, and OEMs are producing new engines as quickly as they can while repairing those that have failed. Unfortunately, airlines can find themselves with aircraft on the ground due to durability problems with the new engines, and be forced to overhaul older aircraft to maintain lift. The supply-demand problems for aircraft engines are about to get much worse as AI data center expansion continues in 2026. President AirInsight Group LLC Ernest Arvai President AirInsight Group LLC Your email address will not be published. Required fields are marked * http://eepurl.com/cOygdP