Technology & Innovation
GE Aerospace Türkiye Tech Center Marks 25 Years of Innovation
Türkiye Technology Center drives aerospace advancements with $200M investment, sustainable aviation R&D, and workforce development in global engineering hub.

Introduction
The Türkiye Technology Center (TTC) by GE Aerospace marks a pivotal chapter in the global aerospace narrative as it celebrates 25 years of engineering excellence. What began in 2000 as a modest design office in Gebze with fewer than 40 engineers has transformed into a high-impact innovation hub employing over 500 engineers, scientists, and researchers. This evolution reflects Türkiye’s growing role in the global aerospace ecosystem, driven by strategic investments, talent development, and cutting-edge research.
With the recent inauguration of its Kartal campus in June 2024 and an overall $200 million investment in Türkiye’s technological infrastructure, TTC is now one of GE Aerospace’s five global engineering centers. Its contributions span across commercial engine programs and military engine programs, sustainable aviation initiatives, and advanced manufacturing, positioning it at the forefront of aviation’s future. This article explores the center’s historical development, technical capabilities, sustainability leadership, and economic impact.
Historical Development and Strategic Growth
The Origins of Innovation
GE’s relationship with Türkiye dates back to 1948, with the establishment of a light bulb factory in collaboration with the Koç Group. This early industrial engagement laid the groundwork for deeper aerospace collaborations, including the 1985 formation of TUSAŞ Engine Industries (TEI), a joint venture with Turkish Aerospace Industries. TTC officially began in 2000 as the Marmara Technology Center, a satellite office supporting U.S.-based engineers.
Initial operations were modest, but the enthusiasm and capability of the early team set the tone for future growth. As early engineer Huriye Akıncı recalls, “There were only 38 people. It was a tiny office, but what I remember most is that the people were so happy to be working there.” The 2007 engineering agreement between TTC, TEI, and GE MTC catalyzed its transformation into a full-fledged R&D hub.
By 2009, TTC had moved into a permanent facility within TUBİTAK’s Gebze campus. Strategic expansions followed, including the 2012 Repair Development Center and the 2014 Aviation Coating Primary Laboratory. The 2018 launch of the GE Additive Technology R&D Center marked a significant leap into the future of digital and additive manufacturing.
“What began as a thermal spray engineering office has transformed into an environmental stewardship center,”, Huriye Akıncı, Program Leader at TTC.
Scaling Up: Kartal Campus and Global Integration
The June 2024 opening of the Kartal campus in Istanbul represents a $50 million investment and a strategic consolidation of R&D capabilities. This four-story facility houses nearly 400 GE Aerospace engineers and technicians, focusing on next-gen propulsion technologies like open fan architecture and hybrid-electric systems.
With this expansion, TTC becomes a central node in GE Aerospace’s global innovation network. It contributes to flagship engine programs such as GEnx, CFM LEAP, and GE9X, and plays a role in Türkiye’s defense initiatives, including the KAAN and HÜRJET aircraft.
Leadership from Türkiye’s Ministry of Industry and Technology has been instrumental in this growth. Minister Mehmet Fatih Kacır emphasized TTC’s role in national industrial strategy, stating, “We are ready to collaborate with GE Aerospace to establish our country as a global and regional production base.”
Technical Capabilities and Sustainable Aviation
Engineering Excellence Across Sectors
TTC’s engineering portfolio is robust and diverse. In the Gebze facility, three advanced laboratories, the Additive Research Lab, Thermofluid Lab, and Advanced Manufacturing and Repair Shop, drive innovation in propulsion system design and validation. These labs support the development of commercial engines like the GEnx and GE9X, and military applications such as the Catalyst engine.
Digital engineering is another cornerstone. TTC develops GE Aerospace’s proprietary 3D simulation and modeling platforms, which reduce prototyping costs by up to 30%. Integration of AI and machine learning has enabled predictive maintenance solutions that cut unscheduled engine removals by 15% globally.
Defense sector contributions are equally significant. TTC supports Türkiye’s indigenous military programs, offering technical expertise that enhances both national defense and commercial aviation. Metallurgical advances from military projects have been adapted for commercial engines, showcasing the center’s cross-sector versatility.
Sustainability and the CFM RISE Program
TTC plays a leading role in the CFM RISE program, a $1 billion initiative aimed at reducing fuel burn and CO2 emissions by 20% compared to current-generation engines. Engineers at the Kartal campus focus on open fan architecture, compact core designs, and hybrid-electric propulsion systems, technologies critical to the aviation industry’s net-zero emission goals by 2050.
The center also conducts sustainable aviation fuel (SAF) compatibility testing, supporting GE Aerospace’s goal to enable 100% SAF operation by 2030. Hydrogen combustion research, including cryogenic fuel systems, is scheduled to begin in 2026, further diversifying TTC’s sustainability portfolio.
Software teams contribute by developing flight optimization algorithms that reduce fuel use by 2–5% per flight. This holistic approach, spanning hardware, fuels, and operations, positions TTC as a leader in aviation decarbonization.
“The RISE program represents a new set of engineering ambitions… We are proud to collaborate with colleagues here and around the world in making progress toward the industry’s goal of net zero emissions by 2050.”, Dr. Aybike Molbay, General Manager, TTC.
Economic and Workforce Impact in Türkiye
Driving National Industrial Growth
TTC’s designation as an official R&D center by Türkiye’s Ministry of Industry and Technology unlocks tax incentives and highlights its strategic importance. With a $150 million annual operational budget, TTC supports about 1,200 indirect jobs through local supply chains and contributes to Türkiye’s aerospace sector, projected to reach $16.35 billion by 2030.
Minister Kacır has emphasized TTC’s role in making Türkiye a global production base for sustainable aviation technologies. The center’s presence has resulted in technology transfer that elevates domestic manufacturing capabilities and strengthens Türkiye’s position in global aerospace supply chains.
Turkish Airlines, operating more than 150 GE-powered aircraft, benefits directly from TTC’s localized support, further integrating the center into the country’s aviation infrastructure.
Building the Next Generation of Engineers
TTC partners with Istanbul Technical University and Sabancı University through programs like the Edison Engineering Development Program. Over 70% of participants transition into full-time roles, ensuring a steady pipeline of skilled engineers.
Under Dr. Molbay’s leadership, TTC has achieved 35% female representation in engineering roles, three times the global aerospace average. This is the result of targeted university partnerships, unconscious bias training, and mentorship programs aimed at underrepresented groups.
These initiatives not only support workforce diversity but also ensure that Türkiye’s aerospace sector has the talent foundation needed for sustainable growth and innovation.
Conclusion
The GE Aerospace Türkiye Technology Center’s 25-year journey from a small satellite office to a global innovation hub is a testament to Türkiye’s strategic rise in aerospace engineering. TTC’s contributions to commercial and military engine programs, digital engineering, and sustainability initiatives have positioned it as a critical player in GE Aerospace’s global operations.
With its new Kartal campus, expanded workforce, and leadership in next-gen propulsion technologies, TTC is poised to shape the future of aviation. Its alignment with national industrial strategy, commitment to inclusive workforce development, and focus on environmental sustainability make it a model for how global corporations can drive local innovation while addressing global challenges.
FAQ
What is the GE Aerospace Türkiye Technology Center?
It is a global engineering hub established in 2000, currently employing over 500 engineers and researchers, contributing to both commercial and military aerospace programs.
What role does TTC play in sustainable aviation?
TTC leads in the CFM RISE program and conducts research in SAF compatibility, hybrid-electric propulsion, and hydrogen combustion to support net-zero emissions goals.
How does TTC support Türkiye’s economy?
Through a $150 million annual budget, technology transfer, workforce development, and partnerships with local suppliers and universities, TTC significantly contributes to Türkiye’s aerospace sector.
Sources
Photo Credit: GE Aerospace
Technology & Innovation
FAA Grants First eVTOL Market Survey Certificate to BETA Technologies
BETA Technologies receives the first FAA market survey authorization for an eVTOL aircraft, the ALIA A250, ahead of full type certification.

The Federal Aviation Administration (FAA) has granted BETA Technologies a Special Airworthiness Certificate for market surveys for its ALIA VTOL (A250) aircraft, marking the first time an electric vertical takeoff and landing (eVTOL) aircraft has received this specific authorization.
Announced in a company press release on October 21, 2026, the certification allows BETA to conduct flight operations with prospective customers, operators, and stakeholders. The authorization expands the geographic scope of the manufacturer’s operations and represents a regulatory milestone toward full type certification and commercial adoption in the Advanced Air Mobility (AAM) sector.
Inaugural flight and operational scope
On October 20, 2026, BETA conducted the first flight under the new authorization. The A250 aircraft departed from Plattsburgh International Airport (PBG) in New York and landed at Patrick Leahy Burlington International Airport (BTV) in Vermont. The flight covered a distance of 34 nautical miles and lasted 20 minutes.
Kyle Clark, Founder and Chief Executive Officer of BETA Technologies, stated that the authorization brings vertical flight closer to practical application and builds on the company’s previous testing milestones.
“Operators can now experience the VTOL firsthand and begin planning how it fits into their businesses, from connecting communities to moving people and goods at a lower cost,” Clark said. “This is an important step toward commercial adoption, and we’re grateful to the FAA for developing the regulatory framework that makes these operations possible.”
U.S. Transportation Secretary Sean P. Duffy called the certification a critical step toward enabling the future of flight in the United States. FAA Administrator Bryan Bedford emphasized the agency’s commitment to integrating new aircraft into the national airspace while maintaining rigorous safety standards.
Aircraft specifications and testing history
The ALIA VTOL (A250) is an all-electric aircraft featuring dual pilot controls. It is designed to accommodate up to five passengers and carry a minimum of 1,200 pounds of cargo. The A250 shares a common architecture, flight control computers, batteries, and propulsion systems with BETA’s conventional takeoff and landing aircraft, the ALIA CTOL (CX300).
BETA previously secured a similar market survey authorization for the CX300. Combined, the manufacturer’s CTOL and VTOL platforms have accumulated more than 250,000 nautical miles of flight time. The company completed the first crewed electric VTOL transition flight in 2024.
Expanding integration and emergency response testing
The market survey authorization follows a series of operational demonstrations by BETA Technologies. On October 7, 2026, the company completed operations in the Utah eVTOL Integration Pilot Program (eIPP), focusing on radiopharmaceutical delivery and treatment support.
Prior to that, on September 24, 2026, BETA partnered with Metro Aviation and Washington County EMS to fly an electric aircraft in an emergency response demonstration in Texas. The FAA and the U.S. Department of Transportation have selected BETA to participate in seven of the eight eIPP programs alongside government and operator partners. According to the company, this represents the highest participation rate of any original equipment manufacturer (OEM) in the initiative.
Regulatory pathway and market context
The FAA issued the Special Airworthiness Certificate for market surveys under Part 21 of its regulations. This framework allows manufacturers to demonstrate aircraft capabilities to potential buyers and operators before achieving full type certification.
BETA Technologies (NYSE: BETA), headquartered in South Burlington, Vermont, designs and manufactures electric aircraft alongside advanced electric propulsion and charging systems. The company is currently working toward full FAA type certification and commercial operations for the A250. The ability to conduct customer demonstration flights is intended to accelerate market adoption within the broader AAM industry.
AirPro News analysis
The FAA’s decision to grant a market survey authorization for an eVTOL aircraft marks a distinct shift in the regulatory treatment of Advanced Air Mobility platforms. Until now, eVTOL manufacturers have largely been restricted to experimental research and development flights, limiting prospective operators to simulators or ground-based evaluations. By allowing BETA to fly the A250 with actual stakeholders, the FAA is signaling increased confidence in the safety and maturity of the aircraft’s design.
We view this as a critical commercial catalyst. The ability to demonstrate real-world payload, noise profiles, and operational economics in flight will likely accelerate firm orders and infrastructure planning among early AAM adopters, setting a precedent that other eVTOL developers will undoubtedly seek to follow as they mature their own flight test programs.
Photo Credit: BETA Technologies
Technology & Innovation
Reliable Robotics Raises $115M, Valuation Tops $1 Billion
Reliable Robotics extends its Series D to $275M and crosses a $1B valuation as FAA certification work advances.

Reliable Robotics has secured $115 million in new capital, pushing the autonomous aviation startup’s valuation past the $1 billion mark and accelerating its push toward Federal Aviation Administration certification.
The Mountain View, California-based company announced the funding extension on October 20, 2026, in a press release. The capital injection upsizes its Series D round to $275 million and will fund the expansion of its aircraft fleet and production capacity for its Reliable Autonomy System.
Funding structure and strategic expansion
The new funding consists of $90 million in equity and a $25 million term loan provided by Silicon Valley Bank. This extension follows the initial $160 million Series D round announced on April 21, 2026. The latest injection brings the company’s total equity capital raised to date to more than $380 million.
A broad coalition of investors participated in the round, including Nimble Partners, Gideon Capital, RockCreek, Geek Ventures, Gold Hill Capital, Sparkwave Capital, Island Green Partners, and Allen & Company.
The company will use the funds to scale its operations and expand its physical footprint. Reliable Robotics is opening a new engineering hub in Bothell, Washington, which will serve as a center of excellence for its radar program by tapping into the established aerospace talent pool in the Seattle area. The company is also expanding with a new office in San Diego, California, supporting a workforce that now exceeds 250 employees.
Crossing $1 billion in valuation is a significant milestone in Reliable’s mission to deliver certified autonomous flight systems that make aviation safer and more accessible.
Certification timeline and technology
Reliable Robotics is actively submitting evidence to the FAA for the certification of its continuous autopilot engagement system. The technology is designed to manage engine startup, taxiing, takeoff, and landing while a pilot remains onboard the aircraft. The company expects to achieve FAA certification for this system within 18 to 24 months.
Robert Rose, co-founder and chief executive officer of Reliable Robotics, noted that the company continues to make steady progress and deliver evidence to the FAA, moving closer to certification with each submission.
The company is also developing its solid-state collision-avoidance technology, known as Reliable Radar. Certification for the radar system is expected by the end of 2027. These systems are engineered to prevent the leading causes of aviation accidents, specifically loss of control (LOC) and controlled flight into terrain (CFIT).
A secondary certification phase, which would remove the pilot from the cockpit entirely to enable fully remote operations, is projected to take at least three years.
Retrofitting the existing cargo fleet
Founded in 2017 by former SpaceX and Tesla engineers Robert Rose and Juerg Frefel, Reliable Robotics has adopted a distinct strategy within the autonomous flight sector. Rather than designing and manufacturing clean-sheet aircraft, the company focuses on certifying autonomous systems for integration into existing, proven airframes.
The initial target for commercial certification is the Cessna 208B Grand Caravan, a widely used turboprop in the regional Cargo aircraft market. By retrofitting certified aircraft, Reliable Robotics aims to integrate its technology into the existing National Airspace System without requiring new infrastructure or entirely new regulatory frameworks.
This approach has generated significant market interest. The company has secured over 200 commitments from commercial and military customers. In the defense and government sectors, Reliable Robotics holds a $17.4 million contract with the United States Air Forces and participates in National Aeronautics and Space Administration (NASA) Small Business Innovation Research (SBIR) Phase III agreements.
AirPro News analysis
We view the equity-plus-debt structure of this Series D extension as a calculated move by Reliable Robotics to secure necessary runway while minimizing ownership dilution. The autonomous aviation sector is highly capital-intensive, and reaching the certification finish line often requires more funding than initial projections suggest. By securing a $25 million term loan alongside the $90 million in equity, the founders are protecting their cap table while ensuring they have the resources to complete the rigorous FAA certification process.
Furthermore, the company’s strategy of retrofitting the Cessna 208B Grand Caravan provides a clearer path to revenue than competitors attempting to certify entirely new aircraft designs. By focusing on the autonomy system rather than the airframe, Reliable Robotics bypasses the aerodynamic and structural certification hurdles that clean-sheet manufacturers face. The military contracts and NASA agreements also provide non-dilutive capital and operational validation, which likely contributed to the company’s ability to achieve a valuation over $1 billion in a challenging venture capital environment.
Photo Credit: Reliable Robotics
Technology & Innovation
Norway Selected for Electra EL2 eSTOL Demo Flights in 2027
Bristow, Electra, Avinor, and CAA Norway select five sites for hybrid-electric eSTOL demonstration flights in Q3 2027.

Bristow Group Inc., Electra, Avinor, and the Civil Aviation Authority of Norway (CAA Norway) have selected five locations across Norway to host demonstration flights of Electra’s hybrid-electric ultra-short takeoff and landing (eSTOL) technology demonstrator in the third quarter of 2027.
Announced in a joint press release on October 19, 2026, the initiative will test infrastructure, airspace integration, and regulatory frameworks across three distinct operating environments to prepare for the commercial introduction of hybrid-electric aircraft.
Testing eSTOL capabilities across diverse environments
The demonstration flights will take place at Horvnes quay near Sandnessjøen, Kongsbergporten Business Park, Trondheim Airport, Oslo Airport, and Mosjøen Airport. These locations were chosen to represent a cross-section of Norwegian aviation infrastructure, ranging from novel landing sites without established runways to short-runway regional facilities and major international aviation hubs.
The site selection follows an April 21, 2026 partnership agreement among the four organizations to use Norway as an international test arena for zero- and low-emission aviation technologies. Avinor, a state-owned company responsible for 43 airports and Norway’s air navigation services, is facilitating the infrastructure integration.
What matters is not the individual location itself, but that we are able to test the technology under different conditions and in different parts of the aviation system. This will give us insight into what is required in terms of infrastructure, airspace, procedures and regulations when new types of aircraft are ready to enter service in Norway.
The statement was provided by Karianne Helland Strand, Executive Vice President of Sustainability and Infrastructure at Avinor.
Bristow Group Inc., a global provider of aviation services, will operate the flights. Dave Stepanek, Executive Vice President and Chief Transformation Officer at Bristow, noted that the selected locations will allow the partners to demonstrate the operational flexibility of the aircraft across varied environments. He added that detailed planning for the 2027 flight demonstrations will now begin.
Regulatory integration and the path to commercial service
A primary objective of the 2027 flights is to generate data for regulatory authorities. FAA Norway will use the demonstrations to evaluate how eSTOL aircraft can safely share airspace with conventional air traffic and whether current aviation regulations require modification to accommodate hybrid-electric operations.
When we test new aircraft technologies in such a range of different scenarios, we will be able to assess whether the existing regulatory framework is fit for purpose. It is also valuable for us to build knowledge about how a new type of aircraft with specific characteristics can be safely integrated with other air traffic.
The remarks were made by Jan Petter Steinland, Director of Innovation, Research and Sustainability at CAA Norway.
Electra views the Norwegian demonstrations as a foundational step toward a new operational model. Diana Siegel, Vice President of Commercial Programs at Electra, stated that the flights will lay the groundwork for a “Direct Aviation ecosystem” that connects major airport hubs directly with communities lacking traditional runways.
Electra’s eSTOL development and market positioning
The aircraft slated for the Norwegian demonstrations is the Electra EL2, also known as the Goldfinch. The EL2 is a two-seat technology demonstrator that utilizes blown-lift aerodynamics and distributed electric propulsion to achieve takeoffs and landings in under 170 feet (approximately 50 meters). The demonstrator previously completed its first urban flight on June 2, 2026, landing on a pier in downtown Charleston, South Carolina.
Data gathered from the EL2 flights will inform the development of the Electra EL9, the company’s planned nine-passenger commercial variant. The EL9 combines electric propulsion with a turbogenerator powered by SAF. According to Electra, this hybrid approach aims to deliver 2.5 times the payload and 10 times the range of pure electric vertical takeoff and landing (eVTOL) aircraft, with 70 percent lower operating costs than traditional helicopters.
Electra has secured more than 2,200 letters of intent from over 60 commercial customers for the EL9. To meet this anticipated demand, the company announced an $850 million investment on July 21, 2026, to build a manufacturing facility in Springfield, Ohio. The factory is projected to produce up to 800 EL9 aircraft annually and create nearly 2,000 jobs.
On September 15, 2026, Electra signed an agreement with Atlas to manufacture and assemble airframes for the EL9 prototypes at facilities in Wichita, Kansas. The first prototypes are expected to be delivered for flight testing in 2027, aligning with the company’s target to achieve Federal Aviation Administration (FAA) Part 23 type certification in 2029.
AirPro News analysis
The selection of Norway as a testing ground highlights a strategic divergence in the advanced air mobility (AAM) sector. While much of the industry has focused on eVTOL designs for urban air mobility, Electra’s eSTOL approach bypasses the severe battery weight penalties associated with vertical lift. By requiring just 50 meters of runway, the EL9 can operate from repurposed maritime infrastructure, business parks, and the existing network of short-runway regional airports.
We view Norway as the ideal proving ground for this operational model. The country’s challenging geography of fjords and scattered coastal communities relies heavily on a subsidized regional air network managed by Avinor. If Bristow and Electra can successfully demonstrate reliable, low-emission operations in these environments during the 2027 test campaign, it will provide a compelling proof-of-concept for eSTOL technology as a viable replacement for aging regional turboprops and expensive helicopter transport.
Photo Credit: Bristow Group Inc.
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