MRO & Manufacturing
Airbus Tests Exoskeletons to Boost Worker Safety and Efficiency
Airbus pilots industrial exoskeletons in global facilities to reduce physical strain by up to 40%, with plans to expand across aerospace manufacturing sites.

Powering Production and Protecting People with Exoskeletons: Airbus’s Ergonomic Revolution
In the high-stakes world of aerospace manufacturing, precision, safety, and endurance are critical. Workers on final assembly lines perform physically demanding tasks that can lead to fatigue and musculoskeletal disorders (MSDs). To address these challenges, Airbus is testing industrial exoskeletons, wearable devices that support workers by reducing muscle strain and enhancing comfort. Once a sci-fi concept, exoskeletons are now being evaluated in Airbus facilities to protect workers and boost productivity.
Airbus’s pilot program is a data-driven, operator-focused initiative to integrate exoskeletons into manufacturing. With 118 units currently under evaluation in France, Spain, and Canada, and plans to expand to Germany, the UK, and the U.S., the program is setting a new standard for ergonomic innovation in aerospace.
The Evolution of Industrial Exoskeletons
Exoskeletons have progressed from bulky, powered devices in the early 2000s to lighter, passive systems today. Initially met with skepticism due to limited data and concerns about shifting pain points, their credibility has grown thanks to studies from organizations like INRS (France) and IRSST (Canada). These studies provide guidelines for safe deployment and highlight benefits like reduced muscle strain.
Airbus focuses on passive exoskeletons, which are mechanical, battery-free, and easier to integrate into workflows. These devices are lighter, more reliable, and cost-effective compared to powered exoskeletons. The pilot program tests their ability to relieve stress on shoulders, lumbar regions, and knees—areas most prone to strain in assembly line work.
Scientific Backing and Ergonomic Benefits
Airbus’s medical team uses electromyography to measure muscle activity, alongside heart rate monitoring, to assess exoskeleton performance. In May 2025, a test showed a 10% to 40% reduction in shoulder and upper back muscular strain for paint shop operators sanding with exoskeletons. These operators, handling 2–3 kg sanders above their heads, reported less fatigue and discomfort.
Operators test exoskeletons for 2–3 months, performing tasks with and without the devices for comparison. Feedback is collected via questionnaires, ensuring the program remains operator-centric. According to Dr. Delphine Bouvet, who led the study, “These results confirm that an exoskeleton can in some cases provide support and comfort to the operator, all while reducing the arduousness of certain tasks such as sanding.”
“They confirm that an exoskeleton can in some cases provide support and comfort to the operator, all while reducing the arduousness of certain tasks such as sanding,” Dr. Delphine Bouvet, Airbus
Task-Specific Design and Voluntary Use
Airbus tests exoskeletons tailored to specific tasks, such as sanding or fuselage assembly, focusing on support for shoulders, lumbar regions, or knees. This task-specific approach enhances effectiveness and user comfort. Use of exoskeletons is voluntary, considered a last resort when other ergonomic solutions—like task rotation or assistive devices—are insufficient, ensuring they complement existing workflows.
By involving operators in testing and feedback, Airbus refines the devices for better fit and usability, addressing issues like restricted movement or discomfort. This collaborative approach fosters acceptance and ensures the technology supports workers without disrupting production.
Challenges and the Road Ahead
Despite promising results, challenges remain. Some operators report discomfort from rigid frames or restricted mobility in tight spaces. The time needed to put on or remove exoskeletons (3–5 minutes) can also disrupt fast-paced assembly lines. Psychological barriers, such as perceptions of exoskeletons as “disability aids,” may lead to reluctance among some workers.
Airbus addresses these issues through a co-design approach, working with operators and ergonomists to improve device design and usability. Voluntary participation ensures exoskeletons are seen as supportive tools, not mandatory equipment, fostering greater acceptance.
Economic and Strategic Implications
Exoskeletons offer economic benefits by reducing injury-related costs, such as those from back or shoulder strain. Passive exoskeletons, with their lower cost and reliability, provide a viable solution for minimizing these expenses. As the manufacturing workforce ages—over 25% of EU manufacturing workers are over 50—exoskeletons could extend productive work life and reduce early retirement due to physical strain.
Airbus’s initiative could serve as a model for other industries, combining exoskeletons with other ergonomic tools like FlexTrack robots and zero-gravity arms to create safer, more efficient workplaces.
Conclusion
Airbus’s exoskeleton pilot program demonstrates how technology can enhance worker safety and efficiency. By focusing on passive, task-specific designs and prioritizing operator feedback, Airbus is pioneering ergonomic innovation in aerospace manufacturing. As the program expands and refines, it could drive broader adoption of exoskeletons, creating safer, more sustainable workplaces across industries.
FAQ
What is an industrial exoskeleton?
An industrial exoskeleton is a wearable device that supports specific body parts during physically demanding tasks, reducing muscle strain and preventing injuries.
Are exoskeletons mandatory for Airbus workers?
No, Airbus’s exoskeleton program is voluntary, allowing operators to choose whether to use the devices for comfort and autonomy.
What types of tasks benefit most from exoskeleton use?
Tasks like sanding or fuselage assembly, involving repetitive overhead work or lifting, benefit most from exoskeleton support.
How are exoskeletons tested at Airbus?
Each device is tested by a single operator for 2–3 months, with performance and physiological data collected and feedback gathered via questionnaires.
What are the future plans for Airbus’s exoskeleton program?
Airbus plans to expand testing to Germany, the UK, and the U.S., refining devices and planning for potential large-scale deployment.
Photo Credit: Airbus
MRO & Manufacturing
Textron Aviation Earns CASA Part 145 Approval in Australia
Textron Aviation secures CASA Part 145 certification for three Australian service centers supporting 1,400+ aircraft.

Textron Aviation has secured Part 145 approval from Australia’s Civil Aviation Safety Authority (CASA), authorizing the manufacturer to provide factory-direct maintenance and overhaul services across its three company-owned Australian facilities.
Announced in a press release on August 26, 2026, the certification establishes one of the most comprehensive original equipment manufacturer (OEM) support networks in the country. The approval covers Textron Aviation service centers in Melbourne, Perth, and the Gold Coast, enabling the company to support a regional fleet of more than 1,400 Cessna, Beechcraft, and Hawker aircraft.
Expanding the Asia-Pacific footprint
The CASA Part 145 certification represents the culmination of a multi-year expansion strategy in the Asia-Pacific market. On January 6, 2020, Textron Aviation acquired Australian maintenance, repair, and overhaul (MRO) provider Premiair Aviation Maintenance.
The manufacturer officially rebranded the acquired facilities to Textron Aviation Australia on June 12, 2024, integrating them into a global network that includes more than 300 authorized service facilities and over 40 mobile service units.
Earlier this year, on May 5, 2026, the company opened a purpose-built, 35,000-square-foot service center at Essendon Fields Airport in Melbourne. This new facility more than doubled the company’s previous maintenance capacity in the city, setting the stage for the regulatory approval required to operate as a fully certified OEM maintenance organization.
Factory-direct service capabilities
With the regulatory approval now in place, Textron Aviation can perform a wider range of services directly rather than relying on third-party MRO providers. The CASA Part 145 certificate verifies that the company’s maintenance organization meets Australia’s stringent aviation safety and quality standards.
The authorization permits the facilities to conduct routine maintenance, complex modifications, and full overhauls. It also enhances the company’s ability to dispatch aircraft-on-ground (AOG) support for operators experiencing unscheduled maintenance events across the continent.
AirPro News analysis
We view this regulatory milestone as a critical step in Textron Aviation’s strategy to capture more aftermarket revenue while tightening its relationship with Asia-Pacific operators. By bringing former third-party MRO operations fully under the corporate umbrella and securing the necessary CASA approvals, the manufacturer ensures that Australian owners of Cessna, Beechcraft, and Hawker aircraft remain within the factory service ecosystem. This localized, factory-direct model reduces downtime for operators and provides Textron Aviation with a stable, long-term revenue stream in a geographically isolated but highly active business aviation market.
Sources: Textron Aviation
Photo Credit: Textron Aviation
MRO & Manufacturing
Electra Invests $850M in Ohio Plant for EL9 Aircraft
Electra commits $850M to build an EL9 hybrid-electric aircraft facility in Springfield, Ohio, targeting 400 aircraft per year.

Electra has committed $850 million to build its first scaled manufacturing facility in Springfield, Ohio, where the company will produce its EL9 Ultra Short hybrid-electric aircraft. The investment is projected to generate 1,975 jobs in Clark County and marks the transition of the nine-passenger aircraft from development to commercial production.
Announced on July 21, 2026, at the Farnborough International Airshow, the agreement with JobsOhio and state officials places the new plant at AirPark Ohio, adjacent to the Springfield-Beckley Municipal Airport. The EL9, which traces its origins to a Massachusetts Institute of Technology (MIT) class project, utilizes blown-lift technology to operate from unconventional spaces.
Production capacity and regional impact
The Springfield facility will initially support a production rate of 400 aircraft per year. Electra plans to eventually double this capacity to 800 airframes annually as the program matures and market demand dictates.
Ohio Governor Mike DeWine highlighted the state’s historical ties to aviation and its current focus on advanced air mobility (AAM) manufacturing.
“Ohio is where flight began, and the Dayton-Springfield area has become the national epicenter for advanced air mobility,” DeWine stated in a press release. “Electra’s decision to bring nearly 2,000 new jobs to Springfield will be transformative for Clark County.”
Electra CEO Marc Allen emphasized the importance of the Ohio site selection for the program’s next phase, noting the region’s established aerospace and defense ecosystem.
“This agreement is the moment that our vision moves from demonstration into reality,” Allen said. “In Springfield and Clark County, we found the rare combination this next era requires: a ready site, a skilled workforce, a deep aerospace and defense ecosystem, and state and local leaders with the commitment and vision to build it with us.”
Aircraft capabilities and recent milestones
The EL9 Ultra Short is designed to carry nine passengers and requires a minimum runway length of just 150 feet for takeoff and landing. Electra refers to this operational model as “Direct Aviation,” targeting point-to-point transport using infrastructure such as parking lots, barges, and sports fields rather than traditional airport runways.
The aircraft’s development has accelerated in recent weeks. On July 10, 2026, Electra reached an initial certification milestone with the Federal Aviation Administration (FAA). Five days later, the manufacturer finalized an agreement with Safran to develop and produce the TG600 Turbogenerator, which will power the EL9.
An August 25, 2026, feature published by MIT News detailed the aircraft’s academic roots, noting its evolution from a classroom concept to a fully funded commercial program.
AirPro News analysis
We view Electra’s $850 million manufacturing commitment as a critical indicator of maturity in the hybrid-electric aviation sector. While much of the advanced air mobility industry has focused on electric vertical takeoff and landing (eVTOL) designs, Electra’s blown-lift, fixed-wing approach offers a distinct payload and range profile while still minimizing infrastructure requirements. Securing a dedicated production facility with substantial state backing suggests the company is successfully navigating the transition from prototyping to industrialization, a phase that has historically challenged new aerospace entrants.
Sources: MIT News, Electra Newsroom
Photo Credit: Electra
MRO & Manufacturing
GE Aerospace CNC Apprenticeship Graduates 80 in First Year
GE Aerospace marks one year of its Wilmington, NC CNC machinist apprenticeship, graduating 80+ participants trained to produce jet engine components.

GE Aerospace announced on August 25, 2026, that more than 80 participants have graduated from its Computer Numerical Control (CNC) machinist apprenticeship program in Wilmington, North Carolina, during the initiative’s first year of operation. The milestone highlights the manufacturer’s ongoing efforts to alleviate aerospace supply chain constraints by accelerating the training of skilled labor for critical jet engine component production.
In a press release issued to mark the program’s anniversary, GE Aerospace detailed that the eight-week training pipeline was developed in partnership with Cape Fear Community College (CFCC). The initiative supports the production of precision core engine parts, including blisks, spools, and high-pressure turbine disks, which are currently in high demand across both commercial and military aviation sectors.
Workforce development and training structure
The apprenticeship model condenses the initial skills acquisition phase into an eight-week window. Participants undergo five weeks of intensive instruction at CFCC facilities before moving to the GE Aerospace plant floor for applied training. The curriculum is designed to transition individuals with no prior aviation manufacturing experience into capable CNC machinists. The program is also supported by funding from North Carolina’s NCEdge initiative.
Mark Moon, the GE Aerospace site leader in Wilmington, stated that the program is essential for growing the local workforce required to deliver critical engine parts to customers. The initiative targets candidates from diverse professional backgrounds who are looking to enter the aerospace manufacturing sector.
“I joined the apprenticeship program to pursue a new career path and create a better future for myself and my family. It’s a great way to step into this field where you can thrive and make a career out of it,” said Joseph Knox, a recent graduate of the program.
Broader manufacturing investments
The Wilmington apprenticeship program operates within the context of a $1 billion U.S. manufacturing investment planned by GE Aerospace for 2026. Of that total, the company allocated $160 million to its North Carolina facilities, with $60 million specifically directed to the Wilmington site to expand capacity and upgrade equipment.
The educational partnership builds on prior philanthropic investments in the region. The GE Aerospace Foundation awarded a $100,000 grant to CFCC in 2024 to support machining bootcamps and scholarships. Additionally, the foundation donated $500,000 in 2025 to the Manufacturing Institute’s Heroes MAKE America initiative. CFCC President Jim Morton noted that the collaboration illustrates the function of community colleges in building the talent pipelines necessary to support regional economic and industrial expansion.
AirPro News analysis
We view the rapid scaling of the Wilmington apprenticeship program as a direct response to the persistent skilled labor shortages bottlenecking global engine production and maintenance, repair, and overhaul (MRO) networks. By vertically integrating the training process and partnering directly with local educational institutions, original equipment manufacturers (OEMs) like GE Aerospace can bypass traditional, slower labor acquisition methods. The specific focus on CNC machining for high-pressure turbine disks and blisks targets the exact components that have historically paced engine delivery schedules and constrained aftermarket support.
Sources: GE Aerospace
Photo Credit: GE Aerospace
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