Full-Time
Electric aircraft maker and charging infrastructure
$125k - $155k/yr
South Burlington, VT, USA
In Person
Bachelor's
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BETA Technologies develops electric vertical take-off and landing (eVTOL) aircraft and the charging infrastructure to support them. Its eVTOLs can be used for both passenger and cargo transport, and the company also installs and maintains the required charging systems. The revenue model includes selling aircraft, providing charging infrastructure installation and maintenance, and offering pilot and maintainer training. The company differentiates itself by delivering an integrated solution: both the aircraft and the accompanying charging network, plus ongoing services, to help clients shift to electric flight. Its goal is to move air travel toward greener, safer, and more efficient operations by enabling sustainable, scalable electric aviation for commercial airlines, logistics providers, and other organizations.
Company Size
1,001-5,000
Company Stage
IPO
Headquarters
South Burlington, Vermont
Founded
2017
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Health Insurance
Paid Sick Leave
Paid Holidays
Flexible Work Hours
Beta is turning its eVTOL competitors into customers. Component sales boosted Beta's second-quarter revenue August 14, 2026 Beta Technologies has built a business selling motors, batteries, propellers, and flight control computers to other aircraft manufacturers, several of which compete directly with the electric airplanes Beta is still working to certify. Founder and CEO Kyle Clark and chief financial officer Herman Cueto laid out that business on the company's second-quarter earnings call on August 12. Cueto said those component sales carry gross margins of 40% to 60%. "When you get into flight control computers, the margin is actually a lot higher," he said. Component sales, alongside charging hardware and engineering services, help explain a quarter in which Beta reported revenue of $14.7 million - above its own guidance range of $8 million to $11 million and 146% higher than the $6 million it recorded a year earlier. Beta raised full-year revenue guidance to a range of $42 million to $50 million. Clark listed off what the company has sold to outside customers so far: motors, propellers, inverters, high-voltage systems, flight control computers, batteries, data acquisition systems, chargers, and flight test engineering services. Buyers named on the call include Eve Air Mobility, Horizon Aircraft, and General Dynamics - a defense contractor alongside two companies developing eVTOL aircraft that will compete with Beta's own Alia aircraft. All of that revenue arrives while Beta's own aircraft - the Alia 250 eVTOL and CX300 electric airplane - and the electric pusher motor that powers them have yet to be certified. The South Burlington, Vermont-based company intends to certify the H500A motors and CX300 airplane with the FAA this year, followed by the eVTOL model about a year later. Eve Air Mobility, the Embraer subsidiary developing an eVTOL air taxi, is using Beta's electric motors. For Virginia-based General Dynamics, Clark said Beta has moved into a second phase of classified work and a first phase of a separate hardware program, and that undersea applications have become a growing area. Shortly after the quarter closed, Beta announced a sale of flight control computers and software licensing to Ontario-based Horizon Aircraft for its Cavorite X7 eVTOL aircraft. Clark described Horizon as the third major aircraft program flying Beta flight control computers, leaving at least one customer unnamed. Asked by Bank of America analyst Ronald Epstein about Heart Aerospace, which flew its X1 electric demonstrator from Plattsburgh International Airport in New York on August 12, Clark said he could not comment on the extent of Beta's supply to that company. A customer that designs its flight control software around Beta motors cannot easily swap in a rival's system, Clark said, because that software is tuned to parameters such as motor torque and ramp rates. Changing the motor means changing what the flight control computer runs. Clark called those sales "extremely sticky." Beta's aim, he said, is to get its parts selected while a customer's aircraft is still being designed, because a component chosen at that stage keeps earning revenue on every aircraft that program later builds. Selling parts to rivals is not itself unusual in electric aviation. Everett, Washington-based MagniX has built its business supplying electric propulsion without developing an aircraft of its own. What separates Beta is that it is attempting both at once, while its own certification programs remain unfinished. Beta is also buying capability. Its quarterly report filed with the SEC identifies the acquisition behind a $16.1 million research-and-development charge as Biocogniv, a fellow South Burlington company that applies agentic artificial intelligence to safety-critical software development. Biocogniv began in medical diagnostics before turning its AI tooling toward compliance documentation for regulated industries. The filing says the purchase - Class A stock valued at $10.8 million plus cash - will help accelerate software development supporting aircraft certification. In addition to electric aircraft and components, Beta builds aircraft charging infrastructure that its competitors use as well. The company ended the quarter with 138 charging sites and began delivering a 34-charger order for the Florida Department of Transportation, which Cueto said contributed to the revenue beat. Last month, Beta joined San Jose, California-based Archer Aviation and Macquarie Capital in America's Consortium for Electric Skyways, which aims to deploy up to 250 charging sites across California, Texas, Florida, and New York. Archer, developing the Midnight eVTOL air taxi and competing for many of the same customers as Beta, identifies where the chargers go. Clark said Archer knows which locations matter in major cities, Macquarie Capital brings financing, and Beta builds the hardware. What comes next. Beta posted a second-quarter net loss of $148.8 million, and its maximum demonstrated production rate was unchanged from the prior quarter. Clark called the flat rate deliberate, saying the most valuable work on the floor now is securing long-lead materials, qualifying suppliers, and staging production lines so the factory is ready when the ramp comes. The company expects to begin flying in Louisiana and Texas within four to six weeks under the FAA's eVTOL Integration Pilot Program (eIPP), with operators including Metro Aviation, Bristow, and FutureFlight Global. Beta flew the eIPP's first operations in July, carrying manufactured organs for United Therapeutics under Part 91 rules. A second phase moves that flying to Part 135, the rules governing commuter and on-demand operations. Beta's defense business leans on the same parts. The MV250, an autonomous hybrid-electric military aircraft unveiled at the Farnborough International Airshow on July 20, draws on the batteries, motors, and flight control computers already flying on the company's civil aircraft, along with its wings, booms, and tail. Its turbogenerator comes out of a joint technology development agreement with GE Aerospace, and Beta has integrated Sikorsky's Matrix autonomy suite for military missions. Clark said the MV250 on display at the Farnborough show drew interest from senior U.S. military leaders and from foreign militaries. On August 4, Beta and the Export-Import Bank of the United States announced their intent to expand an existing financing relationship to up to $1 billion in net financing, roughly $830 million of which is incremental. Beta said proceeds would go toward doubling manufacturing throughput and scaling propulsion production for international customers. Cueto cautioned that the parties have not signed definitive documents and said they plan to meet in the coming weeks.
BETA Technologies raised its full-year 2026 revenue guidance to $42 million–$50 million, driven by the launch of early integration pilot programme operations with United Therapeutics and increased demand for its MV250 military variant. The company resolved critical FAA policy issues regarding its H500A motor, clearing a path to certification without requiring engine redesign. BETA unveiled the MV250, which shares 80% commonality with its civilian aircraft, reducing development costs for military logistics missions. The company expanded its component sales business to include flight control computers, securing Horizon Aircraft as a third major OEM customer. The company targets a $4 billion aircraft backlog by year-end 2026, supported by a current pipeline of 1,001 aircraft valued at $3.9 billion. BETA formed the ACES consortium with Archer and Macquarie to deploy up to 250 charging sites.
Lockheed Martin has partnered with BETA Technologies to integrate Matrix autonomy technology into the MV250 aircraft. The collaboration aims to enable autonomous defence missions for the Pentagon. BETA Technologies CEO Kyle Clark explained that the partnership will focus on high-risk autonomous operations for military applications. The Matrix autonomy system is being developed specifically to serve the US Department of Defense's operational requirements. The MV250 is an electric vertical take-off and landing aircraft. By incorporating advanced autonomous capabilities, the partnership seeks to enhance the aircraft's utility for defence purposes.
Aero News Network Archer, BETA and Macquarie build foundation for future eVTOL operations. July 30, 2026 A new partnership aims to establish the charging infrastructure needed to support electric aviation across the United States. Archer Aviation, BETA Technologies and Macquarie Capital are combining aircraft technology, infrastructure expertise and investment resources to create a shared network. The effort highlights the growing importance of interoperability as advanced air mobility moves closer to commercial operations. Archer Aviation, BETA Technologies and Macquarie Capital have launched America's Consortium for Electric Skyways (ACES), a plan to deploy interoperable electric aviation charging infrastructure at more than 250 aviation sites across the United States over the next decade. The consortium will focus on airports, vertiports and metropolitan areas where electric vertical takeoff and landing (eVTOL) operations are expected to develop, including markets in California, Texas, Florida and New York. BETA Technologies will provide charging systems built on the Combined Charging Standard (CCS), an open charging standard supported by the General Aviation Manufacturers Association and widely adopted throughout the eVTOL industry. Archer intends to use the network to support future passenger air taxi operations, while BETA customers will utilize the infrastructure for applications including cargo and medical transport. The shared charging model could also support airport ground vehicles and other electric aviation uses. "The eVTOL Integration Pilot Program is about more than just getting electric aircraft flying in American cities," said Dan Edwards, Principal Deputy Assistant Secretary for Aviation and International Affairs at the U.S. Department of Transportation. "It's about building the infrastructure ecosystem needed to support commercial operations." By creating a shared charging foundation, ACES aims to help shape the infrastructure needed for advanced aviation operations while allowing multiple aircraft manufacturers and operators to participate in a unified network.
Successful test of hybrid aircraft at over 9,100 metres altitude. In collaboration with NASA, Beta Technologies, and Boeing, GE Aerospace has conducted the world's first hybrid-electric flight at 30,000 feet (9,144 meters) - becoming the first provider to reach the same altitude as kerosene-powered passenger aircraft using a hybrid aircraft. By Florian Treiss 27.07.2026 - 11:00 For years, the aviation industry has been developing solutions to reduce or even eliminate CO[2] emissions from flights. While fully electric options currently seem feasible only for small air taxis, larger aircraft and longer routes are likely to depend on hybrid powertrains for the foreseeable future. A project led by NASA, e-aircraft developer Beta Technologies, aircraft manufacturer Boeing, and propulsion specialist GE Aerospace has now demonstrated that such systems could be viable for daily operations. The partners conducted a hybrid-electric flight at a typical cruising altitude of 30,000 feet (approximately 9,144 metres) - a milestone previously unachieved by any hybrid aircraft. H. Lawrence Culp Jr., CEO of GE Aerospace, stated: "The aviation industry's first high-altitude hybrid electric flight is one for the history books. GE Aerospace is grateful to NASA, BETA Technologies and Boeing for their collaborative partnership to accelerate hybrid electric technology to meet customer needs for greater efficiency, durability and range." The project utilised a modified Saab 340B regional aircraft, which typically seats up to 39 passengers. The right side of the aircraft was equipped for flight tests with a hybrid-electric system housed in an inverted engine nacelle, which also provided additional ventilation. The system includes motor-generators, power converters, and inverters developed by GE Aerospace, control units, gearboxes from Avio Aero, propellers from Dowty, and a CT7 engine. BAE Systems supplied the batteries, while Boeing's subsidiary, Aurora Flight Sciences, provided the complete engine nacelle. Pilots from GE Aerospace and Beta Technologies supported the flight tests in the USA, where the milestone of flying at 30,000 feet was achieved for the first time. Beta Technologies served as the system integrator and ferried the aircraft to the Farnborough International Airshow in the UK, operating in hybrid-electric mode for every flight segment. Kyle Clark, CEO of Beta Technologies, said: "This hybrid electric system improved the high-altitude performance and climb capability while creating a flying laboratory to inform all future hybrid designs. The GE Aerospace team brought rigorous design, test and operational expertise. The ground and safe flight test campaigns, capped by a flight across the North Atlantic, is the first of many important milestones for hybrid electric technology." 0 comments. about "Successful test of hybrid aircraft at over 9,100 metres altitude"