This article is based on an official press release from GE Aerospace.

In early April 2026, a highly specialized Boeing 747-400 touched down at the Cincinnati/Northern Kentucky International Airport (CVG). According to an official press release from GE Aerospace, the massive flying laboratory arrived to celebrate the company’s second anniversary as an independent, publicly traded entity.

Taking up residence inside a 100,000-square-foot hangar at CVG, the aircraft opened its doors to the company’s workforce. The press release notes that 1,300 GE Aerospace employees were granted access to tour the plane on April 7 and 8, offering them a rare glimpse into the inner workings of the company’s engine testing operations. The visit concluded on April 9 with a low-altitude flyover of the GE Aerospace campus in Evendale, Ohio.

For a company that relies on rigorous real-world testing to certify commercial engines, the 747 Flying Test Bed is an invaluable asset. We have reviewed the details of the aircraft’s visit, its technical capabilities, and its recent operational history to understand the significance of this corporate milestone.

A Flying Laboratory with a Fresh Look

The Aircraft’s History and Livery

The current Flying Test Bed is a Boeing 747-400 that was previously operated by Japan Airlines before GE acquired it in 2010. According to the company’s statements, it replaced an older Boeing 747-100, formerly owned by Pan Am, which served as a test bed for 24 years before being retired in 2018 to the Pima Air & Space Museum in Tucson, Arizona.

To align with GE Aerospace’s recent launch as an independent brand, the Flight Test Operations (FTO) team updated the plane’s exterior. The new design features a pristine white fuselage bisected diagonally, with the tail painted in a striking “Atmosphere Blue” and the iconic GE Monogram trademark showcased on the rudder.

“Everyone [at FTO] is really energized by the new look,” said Jon Ohman, Chief Test Pilot for GE Aerospace, in the company’s release.

Ohman, a former Marine fighter pilot, is part of a highly trained team that operates the modified aircraft under extreme conditions out of the FTO center in Victorville, California, located on the edge of the Mojave Desert.

Inside the Airborne Test Bed

Engineering and Redundancy

Before the Federal Aviation Administration (FAA) certifies a new commercial aircraft engine, it must undergo rigorous testing in real-world conditions. GE Aerospace achieves this by attaching the new test engine to the wing of the 747, replacing one of the aircraft’s four standard CF6 engines.

This configuration is designed with safety and operational stability in mind. The remaining three CF6 engines provide massive redundancy during test flights.

Having three additional CF6 engines on the wing “means three other sources of electrical power, three other sources of thrust, three other sources to drive the hydraulic systems. There’s lots and lots of redundancy,” explained Nathan Kamps, Principal Test Flight Engineer, according to the press release.

Data Collection at Altitude

The interior of the 747 is far from a standard commercial jet. The press release details that most coach-class seats on the main deck have been removed to make room for heavy-duty computer racks and individual engineering workstations. Only one forward galley and a couple of lavatories remain on board.

During a typical test flight, the aircraft carries a crew of 8 to 20 people. The test director sits with the two pilots in the cockpit on the upper deck. As the aircraft flies, onboard computers gather massive amounts of data, up to a terabyte per flight. This data is subsequently sent back to the Evendale headquarters for post-processing and analysis.

Advancing Sustainable Aviation

The CODEX Project and RISE Program

Beyond testing for speed and power, the Flying Test Bed is actively contributing to the future of sustainable, lower-emission aviation. In 2024, the aircraft played a crucial role in the Contrail Optical Depth Experiment (CODEX) project in partnership with NASA.

According to GE Aerospace, these flights studied contrail formation, the ribbons of ice formed when jets fly through cold, humid air, to deepen the aviation industry’s understanding of emissions. The data gathered from the CODEX tests is now helping establish a baseline for future engine testing under GE’s Revolutionary Innovation for Sustainable Engines (RISE) program.

AirPro News analysis

We view the recent visit of the Flying Test Bed to Cincinnati as a highly symbolic milestone for GE Aerospace. By bringing the California-based test aircraft to its Ohio manufacturing and corporate headquarters, the company effectively bridges the gap between theoretical engineering and real-world aviation safety.

Allowing 1,300 employees to physically walk through the aircraft serves as a powerful morale booster, connecting the daily work of engineers in Ohio with the extreme-condition testing executed by pilots in the Mojave Desert. Furthermore, the aircraft’s involvement in the 2024 NASA CODEX project underscores a critical industry shift: engine testing is no longer solely about thrust and reliability, but increasingly about environmental impact and emissions reduction.

Frequently Asked Questions (FAQ)

What is the GE Aerospace Flying Test Bed?
It is a modified Boeing 747-400 used as an airborne laboratory to test new commercial aircraft engines in real-world conditions before they receive FAA certification.

Why did the aircraft visit Cincinnati?
The aircraft visited the Cincinnati/Northern Kentucky International Airport (CVG) in early April 2026 to celebrate GE Aerospace’s second anniversary as an independent, publicly traded company, allowing 1,300 employees to tour the plane.

What happens to the data collected during test flights?
The aircraft’s onboard computers can collect up to a terabyte of data per flight. This information is transmitted back to GE Aerospace’s headquarters in Evendale, Ohio, for detailed post-processing and engineering analysis.

Sources

• GE Aerospace

This article is based on an official press release from Hexagon AB.

Hexagon AB has announced a definitive agreement to acquire Waygate Technologies from Baker Hughes in a transaction valued at approximately $1.45 billion. The Acquisitions marks a significant expansion for the metrology and measurement specialist, moving its capabilities deeper into the non-destructive testing (NDT) market.

According to the official press release, the deal will integrate Waygate’s inspection technologies with Hexagon’s existing precision measurement hardware and software. This move extends Hexagon’s quality assurance reach from surface-level component inspection to interior geometry analysis.

We note that this acquisition broadens Hexagon’s footprint beyond the traditional production floor, opening new opportunities in the maintenance, repair, and operations (MRO) sectors across aerospace, automotive, energy, and industrial Manufacturing.

Expanding Manufacturing Intelligence

Waygate Technologies, headquartered in Germany, operates across 25 locations worldwide and employs approximately 1,500 people. The company is recognized as a global market leader in computed tomography (CT), radiography, and remote visual inspection (RVI).

In its press release, Hexagon stated that Waygate generated around $630 million in revenue during fiscal year 2025, with an operating margin of 10 percent. Specifically, the radiography and RVI platforms accounted for approximately $330 million of that revenue, operating at a 16 percent margin. Hexagon plans to classify these high-performing segments as profitability and growth assets within its operating model.

Strategic Vision and Integration

The integration of Waygate into Hexagon’s Manufacturing Intelligence (MI) division is viewed by the company as a natural evolution of its core competencies. By combining Waygate’s NDT expertise with Hexagon’s software and global infrastructure, the combined entity aims to offer comprehensive quality control throughout the entire product lifecycle.

Hexagon’s leadership emphasized the complementary nature of the two businesses.

“This acquisition is a natural and exciting evolution of Hexagon Manufacturing Intelligence’s Strategy,” said Anders Svensson, President and CEO of Hexagon, in the company’s press release.

AirPro News analysis

We view this $1.45 billion acquisition as a strategic maneuver by Hexagon to capture a larger share of the aerospace and industrial MRO markets. By bringing non-destructive testing in-house, Hexagon can offer a more unified hardware and software ecosystem to manufacturers who increasingly require end-to-end quality assurance.

The transaction, which is expected to close in the second half of 2026 subject to customary regulatory approvals, also presents a clear pathway for margin improvement. Hexagon’s stated plans to apply its operating model to Waygate suggest that we may see manufacturing optimization and localization strategies implemented in the medium term.

Frequently Asked Questions

What is the value of the Hexagon and Waygate Technologies deal?

The transaction is valued at approximately $1.45 billion.

When is the acquisition expected to close?

The deal is expected to close during the second half of 2026, pending customary regulatory approvals and closing conditions.

What does Waygate Technologies do?

Waygate Technologies is a leading provider of non-destructive testing (NDT) solutions, specializing in computed tomography (CT), radiography, and remote visual inspection (RVI) for various industrial sectors.

Sources: Hexagon AB

EASA Approves 3,000-Hour TBO Extension for Airbus H160 Main Gearbox

The European Union Aviation Safety Agency (EASA) has officially granted an extension to the time between overhaul (TBO) for the main gearbox (MGB) on the Airbus Helicopters H160. According to reporting by Vertical Mag, the new TBO limit is set at 3,000 flight hours. This regulatory approval marks a significant milestone for the medium-twin helicopter, bringing the manufacturer exactly halfway to its ultimate design goal of a 6,000-hour TBO for the critical component.

The extension is expected to yield substantial operational benefits for current and future fleet operators. By increasing the interval between mandatory teardowns and overhauls, operators will see a direct reduction in maintenance costs and a corresponding increase in aircraft availability, making the platform more competitive in the commercial rotorcraft market.

Rigorous Testing and the “Dynamic Helicopter Zero”

Achieving this 3,000-hour benchmark required a comprehensive technical evaluation. Vertical Mag reports that Airbus utilized a combination of real-world in-service data and advanced ground testing to prove the gearbox’s durability to European regulators. Specifically, the manufacturer conducted physical inspections on three customer MGBs that had successfully reached the 1,000-flight-hour mark in active service.

In addition to field data, Airbus relied heavily on simulated endurance testing. The company successfully completed 2,500-hour tests using multipurpose test benches and its specialized “dynamic helicopter zero” test cell.

Understanding the Test Platforms

Based on industry research reports, the “dynamic helicopter zero” is a highly advanced ground-based test rig designed to replicate the helicopter’s dynamic systems, including engines, gearboxes, and rotors. This platform allows engineers to run mechanical components continuously in a controlled environment, simulating thousands of hours of flight, wear, and stress without the aircraft ever leaving the ground. This ensures a high level of mechanical maturity and safety before the aircraft even enters service.

Economic Impact and Market Competitiveness

The main gearbox is one of the most critical and expensive dynamic components on any rotorcraft. Extending its TBO directly correlates to lower direct maintenance costs (DMC) and higher dispatch reliability. Regarding the financial impact on operators, Vertical Mag notes:

Airbus believes the extension will enhance the medium-lift aircraft’s competitiveness, thanks to the improvement to direct maintenance costs for operators.

As noted in recent industry research, a longer TBO means the aircraft spends less time in the maintenance hangar and more time generating revenue. This is particularly attractive to commercial-aircraft operators in high-demand sectors such as offshore oil and gas transport, emergency medical services (EMS), and VIP transport. By lowering operating costs, the H160 strengthens its financial viability against established competitors in the 5.5 to 6-ton medium-twin class, such as the Leonardo AW139.

AirPro News analysis

We observe that Airbus’s methodology for securing this TBO extension, blending early-adopter in-service data with exhaustive ground simulations, represents a forward-looking approach to aerospace engineering. Vertical Mag notes that Airbus considers this process a new testing standard that will serve as a model for future aircraft programs. By leveraging the “dynamic helicopter zero,” manufacturers can fast-track component maturity and prove reliability to regulators like EASA much earlier in an aircraft’s lifecycle than traditional flight-testing alone would allow. This proactive approach to maintenance data will likely become an industry standard for next-generation rotorcraft development.

Future Milestones and H160 Background

With EASA approval secured, Airbus is now looking toward the North-America market. According to Vertical Mag, the manufacturer hopes to achieve validation for the 3,000-hour TBO extension from the U.S. Federal Aviation Administration (FAA) in the second half of 2026.

Technological Innovations of the H160

To provide context on the aircraft benefiting from this extension, industry research highlights that the Airbus H160 is designed to carry up to 12 passengers and is powered by two Safran Arrano 1A turboshaft engines. The aircraft integrates 68 different patents.

Key technological features include the Blue Edge rotor blades, a double-swept design that research indicates reduces exterior noise by up to 50% (3-4 dB) while increasing payload capacity. Furthermore, it is the first civilian helicopter to feature a canted Fenestron (an angled, shrouded tail rotor) for additional lift, and it utilizes the Helionix avionics suite to reduce pilot workload. The H160 received its initial EASA certification in July 2020 and FAA certification in July 2023.

Frequently Asked Questions (FAQ)

What is Time Between Overhaul (TBO)?

According to industry standards, TBO is an aviation metric dictating the manufacturer’s recommended maximum running time (in flight hours or calendar months) a component can operate before it must be removed, completely disassembled, inspected, repaired, and reassembled to factory standards.

When is FAA validation expected for the H160 MGB TBO extension?

Airbus anticipates receiving FAA validation for the 3,000-hour extension in the second half of 2026, according to reporting by Vertical Mag.

Sources

• Vertical Mag
• Industry Research Report (April 13, 2026)