MRO & Manufacturing
GKN Aerospace Expands Connecticut Facility for Additive Manufacturing Growth
GKN Aerospace expands its Connecticut site to industrialize additive manufacturing of FAA-certified aerospace components, enhancing sustainability and supply chains.

GKN Aerospace Accelerates Additive Manufacturing Revolution with Strategic US Expansion
GKN Aerospace’s recent announcement of its Connecticut facility expansion represents a pivotal moment in the industrialization of additive manufacturing within the aerospace sector, marking the transition from experimental technology to full-scale production capabilities. The company’s investment in expanding its Newington facility with a dedicated production line for the Fan Case Mount Ring (FCMR) component demonstrates the maturation of additive fabrication technologies and their integration into critical aerospace supply chains. This strategic move not only strengthens GKN Aerospace’s manufacturing footprint in the United States but also establishes a new paradigm for sustainable aerospace manufacturing, with the FCMR program representing the largest flight-critical additive component to achieve Federal Aviation Administration certification. The expansion builds upon GKN Aerospace’s substantial $50 million investment in 2024 to enhance additive fabrication capabilities across civil and military engine platforms, positioning the company at the forefront of next-generation aerospace manufacturing technologies.
Background and Historical Context of Additive Manufacturing in Aerospace
The aerospace industry’s relationship with additive manufacturing has evolved dramatically over the past two decades, transforming from a prototyping tool to a production-ready technology capable of creating flight-critical components. GKN Aerospace has been pioneering additive fabrication technologies for nearly twenty years, establishing significant research and technology centers across Sweden, the United Kingdom, and the United States. This long-term commitment to additive manufacturing development has positioned the company as a leader in the field, particularly in the creation of large, complex, and load-bearing aircraft components that were previously impossible to manufacture using traditional methods.
The historical trajectory of additive manufacturing in aerospace has been marked by gradual acceptance and increasing sophistication of applications. Traditional aerospace Manufacturing relied heavily on subtractive processes, where components were machined from large metal blocks or castings, often resulting in material waste rates of up to 80 percent. The paradigm shift toward additive manufacturing represents not just a technological evolution but a fundamental reimagining of how aerospace components can be designed and produced. GKN Aerospace’s proprietary Wire Arc Additive Manufacturing (WAAM) process exemplifies this transformation, enabling the layer-by-layer construction of components using metal wire or powder fused together with advanced laser systems.
The regulatory landscape surrounding additive manufacturing in aerospace has been equally challenging, requiring extensive certification processes to ensure the safety and reliability of flight-critical components. GKN Aerospace’s achievement in securing FAA approval for its first additively fabricated critical structural component represents a significant milestone in the industry’s acceptance of these technologies. This regulatory breakthrough has paved the way for broader adoption of additive manufacturing across aerospace applications, demonstrating that these technologies can meet the stringent safety and performance requirements demanded by aviation authorities.
The global context of aerospace additive manufacturing has been shaped by increasing demand for fuel-efficient aircraft and sustainable manufacturing practices. According to market research, the global aerospace additive manufacturing market is projected to experience strong growth, reflecting the industry’s recognition of additive manufacturing’s potential to address multiple challenges simultaneously, including material efficiency, design flexibility, supply chain resilience, and environmental sustainability.
GKN Aerospace’s Strategic Expansion in Connecticut
GKN Aerospace’s decision to expand its Newington, Connecticut facility represents a carefully calculated strategic investment designed to consolidate and accelerate production capabilities while strengthening both US and global supply chains. The expansion centers on the establishment of a new production line dedicated specifically to the additive fabrication of the Fan Case Mount Ring, a critical component of Pratt & Whitney’s Geared Turbofan (GTF) engine that powers both the Airbus A220 and Embraer E195-E2 aircraft. This geographic consolidation strategy allows GKN Aerospace to bring together previously distributed manufacturing processes, with the core structure currently produced at the company’s Trollhättan facility in Sweden and final machining completed in Newington.
The Connecticut expansion has been facilitated through collaboration with state and local government entities, demonstrating the importance of public-private partnerships in advancing aerospace manufacturing capabilities. The Connecticut Department of Economic and Community Development and the Governor’s Office provided crucial support for the initiative, recognizing the strategic importance of aerospace manufacturing to the state’s economic development. Additionally, GKN Aerospace received a $2.5 million grant from Connecticut’s Strategic Supply Chain Initiative program to help fund the expansion, highlighting the state’s commitment to strengthening aerospace supply chain resilience.
The choice of Connecticut for this expansion reflects several strategic advantages that align with GKN Aerospace’s operational requirements and long-term objectives. The state’s proximity to major aerospace customers, particularly Pratt & Whitney, provides significant logistical advantages and enables closer collaboration throughout the development and production process. Connecticut’s established aerospace ecosystem, including a highly skilled workforce and comprehensive aerospace network infrastructure, creates an environment conducive to the successful implementation of advanced manufacturing technologies. The state currently ranks among the top in the nation for aerospace jobs, demonstrating the depth of expertise available to support GKN Aerospace’s expansion.
GKN Aerospace’s existing presence in Connecticut, with facilities in both Newington and Cromwell employing more than 450 people across the state, provides a solid foundation for the expansion. The company’s decision to build upon this existing infrastructure rather than establishing operations in a new location demonstrates a commitment to maximizing the efficiency of its investment while leveraging established relationships and capabilities. This approach also ensures continuity of operations and minimizes the risks associated with establishing manufacturing capabilities in unfamiliar territories.
The expansion timeline aligns with broader market demands and production schedules, with the Fan Case Mount Ring program scheduled to achieve 100 percent serial production by the end of 2025. This aggressive timeline reflects the urgency of meeting growing market demand for GTF engines while demonstrating GKN Aerospace’s confidence in its ability to rapidly scale additive manufacturing capabilities. The production ramp-up is expected to increase output from the current 30 units per month at the Trollhättan facility to 40 units per month by year-end, with further increases anticipated as the Connecticut facility becomes fully operational.
“The expansion of GKN Aerospace’s additive manufacturing in Connecticut is a testament to the maturation of the technology and its ability to meet stringent aerospace requirements at scale.”
The Fan Case Mount Ring Program: A Manufacturing Breakthrough
The Fan Case Mount Ring program represents a watershed moment in aerospace additive manufacturing, demonstrating the successful transition from experimental technology to full-scale industrial production of flight-critical components. As the largest flight-critical additive component to secure FAA certification, the FCMR program has established new benchmarks for what is possible in aerospace additive manufacturing. The component serves as a critical structural element within Pratt & Whitney’s GTF engine, requiring exceptional precision, reliability, and performance characteristics that must be maintained throughout the component’s operational lifetime.
The technical complexity of the Fan Case Mount Ring is significant, as it must withstand extreme operational conditions including high temperatures, significant mechanical stresses, and dynamic loading throughout the engine’s operational cycle. The component’s core structure, known as the “hot size ring,” is produced using GKN Aerospace’s proprietary WAAM-based additive fabrication process, which builds up the component layer by layer using advanced metallurgical techniques. This manufacturing approach enables the creation of complex geometries and internal structures that would be impossible to achieve using traditional manufacturing methods, while simultaneously reducing material waste and production lead times.
The certification process for the FCMR component required extensive testing and validation to demonstrate compliance with stringent aerospace safety and performance standards. GKN Aerospace’s successful navigation of the FAA certification process represents years of development, testing, and refinement of both the component design and the manufacturing processes used to create it. This achievement has established important precedents for future additive manufacturing applications in aerospace, providing a roadmap for other companies seeking to introduce additively manufactured components into flight-critical applications.
Production milestones achieved by the FCMR program demonstrate the maturation of additive manufacturing from prototype to production scales. GKN Aerospace marked its 200th delivery of an additively fabricated hot size ring earlier in 2025, representing a significant achievement in terms of both production volume and quality consistency. The company’s ability to maintain consistent quality and performance characteristics across hundreds of components demonstrates the reliability and repeatability of its additive manufacturing processes, essential requirements for aerospace applications where component failure can have catastrophic consequences.
The economic implications of the FCMR program extend beyond the immediate production benefits, establishing new paradigms for aerospace supply chain economics. Current production results demonstrate approximately 40 percent material waste reduction per part compared to traditional manufacturing methods, with future projections indicating potential material savings exceeding 70 percent. These material efficiency improvements translate directly into cost reductions and environmental benefits, while also reducing the supply chain complexity associated with sourcing large castings or forgings required for traditional manufacturing approaches.
“The FAA certification of the Fan Case Mount Ring is a landmark achievement, opening the door for broader adoption of additive manufacturing in flight-critical aerospace applications.”
Technology Innovation and Sustainability Impact
GKN Aerospace’s additive fabrication technology represents a fundamental departure from traditional aerospace manufacturing approaches, offering unprecedented levels of design freedom while delivering substantial sustainability benefits. The company’s proprietary WAAM-based process enables the creation of complex, high-performance components through the precise deposition of metal wire or powder, layer by layer, using advanced laser fusion techniques. This manufacturing approach eliminates the need for extensive machining operations that traditionally removed up to 80 percent of the original material, representing a paradigm shift toward more efficient and sustainable production methods.
The Sustainability impact of GKN Aerospace’s additive manufacturing technology extends far beyond material waste reduction, encompassing energy consumption, transportation efficiency, and supply chain simplification. By reducing material consumption by more than 70 percent compared to traditional methods, the technology significantly decreases the environmental footprint associated with raw material extraction, processing, and transportation. The reduced material requirements also translate into lighter components, contributing to improved fuel efficiency for aircraft equipped with these parts, creating a multiplicative effect on environmental benefits throughout the aircraft’s operational lifetime.
Production lead time reductions achieved through additive manufacturing represent another significant advantage, with GKN Aerospace projecting the ability to reduce end-to-end lead times from nine months to as little as four weeks. These dramatic improvements in production speed enable more responsive manufacturing operations and reduce the working capital requirements associated with long production cycles. The faster production times also provide greater flexibility in responding to changing market demand and enable more efficient inventory management throughout the supply chain.
The technological sophistication of GKN Aerospace’s additive manufacturing capabilities has been demonstrated through several landmark achievements, including the successful delivery of the largest ever all-additive component: a large-scale titanium engine case for the CFMI RISE technology demonstrator. This component, produced using fully automated direct energy deposition, met casting-quality standards while demonstrating the full design and build potential of large-scale additive fabrication. Such achievements showcase the technology’s capability to handle increasingly complex and demanding applications across the aerospace industry.
The modular nature of GKN Aerospace’s additive fabrication production concept enables rapid deployment of the technology across multiple sites globally, supporting the company’s expansion strategy while maintaining consistency in quality and performance standards. This scalability represents a crucial advantage in meeting growing market demand while providing flexibility in geographic distribution of production capabilities. The modular approach also enables continuous improvement and technology updates to be implemented across the entire production network, ensuring that all facilities benefit from ongoing innovation and development efforts.
“Additive manufacturing is not just a technological advancement, it’s a catalyst for sustainable aerospace, reducing material use and emissions while unlocking new design possibilities.”
Market Dynamics and Industry Context
The aerospace industry in 2025 faces unprecedented demand pressures combined with supply chain constraints that make GKN Aerospace’s additive manufacturing expansion particularly significant. According to industry analysis, aircraft demand has rebounded to near pre-pandemic levels, but with thousands of aircraft on backorder, it would take over a decade to meet demand at current production rates. This demand-supply imbalance creates substantial opportunities for companies like GKN Aerospace that can deliver innovative manufacturing solutions to increase production efficiency and reduce lead times.
Pratt & Whitney’s GTF engine program, which utilizes GKN Aerospace’s Fan Case Mount Ring components, has experienced remarkable market success with nearly 1,100 engine orders and commitments received in the first half of 2025 alone. The total number of GTF engine Orders and commitments has exceeded 12,000, placed by more than 90 customers worldwide, demonstrating the strong market acceptance of this technology. Airlines that have announced GTF engine orders in 2025 include major carriers such as Aegean Airlines, Air Niugini, ANA, Frontier Airlines, LOT Polish Airlines, and Wizz Air, along with additional undisclosed customers.
The GTF engine’s market success stems from its industry-leading fuel efficiency, delivering up to 20 percent lower fuel consumption and a 75 percent smaller noise footprint compared to previous generation engines. To date, approximately 2,400 GTF-powered aircraft have been delivered to more than 85 customers worldwide, with the newly introduced GTF Hot Section Plus option enhancing durability and nearly doubling time on wing. These performance characteristics align perfectly with industry trends toward more efficient and environmentally responsible aviation technologies.
GKN Aerospace’s parent company, Melrose PLC, has demonstrated strong financial performance that supports continued investment in advanced manufacturing technologies. In 2023, the company achieved substantial revenue and operating profit growth, reflecting the effectiveness of its strategic investments and operational improvements. The engines division experienced particularly strong growth, while structures grew significantly, largely driven by OEM deliveries ramping up across the aerospace industry.
Supply chain challenges continue to impact the broader aerospace industry, creating both opportunities and constraints for companies like GKN Aerospace. Industry analysis indicates that a significant portion of late deliveries are linked to end-customer challenges such as scheduling changes or engineering issues, while parts shortages, extended lead times, and inflation continue to strain recovery efforts. These challenges highlight the value of GKN Aerospace’s additive manufacturing capabilities, which can provide alternative production pathways and reduce dependence on traditional supply chain structures.
Economic Impact and Investment Analysis
GKN Aerospace’s investment in Connecticut additive manufacturing capabilities represents a significant economic commitment with implications extending far beyond the immediate facility expansion. The company’s $50 million investment in 2024 to expand sustainable additive fabrication capabilities across civil and military engine platforms demonstrates the scale of financial commitment required to establish leadership in advanced manufacturing technologies. This investment level reflects both the technical complexity of additive manufacturing systems and the strategic importance the company places on these capabilities for future competitiveness.
The economic benefits of the Connecticut expansion extend beyond GKN Aerospace’s direct operations to encompass broader impacts on the state’s aerospace ecosystem. The expansion will create new jobs at the Newington facility, adding to the company’s existing workforce of more than 450 employees across its Connecticut facilities. These positions span a range of skill levels, from highly skilled operators and technicians to engineers specializing in additive manufacturing technologies, contributing to the development of specialized expertise within the region.
Connecticut’s aerospace industry generates substantial economic impact, with the aerospace and defense sector contributing significant revenue and state and local taxes. The state’s ranking as a leader in aerospace jobs demonstrates the industry’s fundamental importance to the regional economy. GKN Aerospace’s expansion reinforces Connecticut’s position as a leading aerospace manufacturing center while contributing to the continued growth and diversification of the state’s aerospace capabilities.
The return on investment for GKN Aerospace’s additive manufacturing initiatives can be measured through multiple metrics, including material cost savings, production efficiency improvements, and market share gains in critical component categories. The projected material savings of more than 70 percent compared to traditional manufacturing methods provide substantial cost reduction opportunities that compound over the lifetime of production programs. When combined with lead time reductions from nine months to as little as four weeks, these efficiency improvements translate into significant working capital reductions and improved cash flow characteristics.
Supply Chain Transformation and Strategic Implications
GKN Aerospace’s additive manufacturing expansion represents a fundamental transformation in aerospace supply chain architecture, moving from traditional linear supply chains toward more distributed and resilient manufacturing networks. The company’s ability to consolidate Fan Case Mount Ring production from its current split between Sweden and Connecticut into a single US location demonstrates how additive manufacturing can simplify supply chains while improving responsiveness to customer demand. This consolidation reduces transportation costs, minimizes inventory requirements, and provides greater control over production scheduling and quality management.
The strategic implications of additive manufacturing extend beyond operational efficiency to encompass supply chain risk mitigation and competitive differentiation. By developing alternative production pathways for critical components, GKN Aerospace reduces its dependence on traditional supply chain structures that may be vulnerable to disruption from geopolitical tensions, natural disasters, or other external factors. This capability has become increasingly valuable as the aerospace industry grapples with ongoing supply chain constraints and seeks to build greater resilience into its operations.
GKN Aerospace’s modular additive fabrication production concept enables rapid deployment of manufacturing capabilities across multiple geographic locations, providing unprecedented flexibility in supply chain configuration. This approach allows the company to position production capabilities closer to key customers while maintaining consistency in quality and performance standards across all facilities. The modularity also enables continuous improvement and technology updates to be implemented across the entire production network, ensuring that all facilities benefit from ongoing innovation and development efforts.
“Additive manufacturing is redefining supply chain resilience in aerospace, providing alternative pathways and reducing reliance on traditional, complex logistics.”
Future Outlook and Industry Implications
The trajectory established by GKN Aerospace’s additive manufacturing expansion suggests a future where aerospace manufacturing is characterized by greater flexibility, sustainability, and responsiveness than traditional production methods can provide. The company’s achievement of industrial-scale production for flight-critical additive components establishes important precedents that will likely accelerate adoption of these technologies across the broader aerospace industry. As other manufacturers observe GKN Aerospace’s success and seek to capture similar competitive advantages, additive manufacturing is likely to become an increasingly standard element of aerospace production strategies.
The scalability of GKN Aerospace’s additive manufacturing approach, demonstrated through the modular production concept that enables rapid deployment across multiple sites globally, suggests potential for dramatic expansion of these capabilities over the coming decade. The company’s projection that expansion will accelerate from 2026 indicates confidence in both market demand and technological maturity, setting the stage for substantial growth in additive manufacturing applications across aerospace platforms. This expansion timeline aligns with broader industry forecasts indicating continued strong growth in aerospace additive manufacturing markets.
Regulatory evolution will play a crucial role in determining the pace and scope of additive manufacturing adoption across aerospace applications. GKN Aerospace’s success in achieving FAA certification for flight-critical additive components provides valuable precedents that should facilitate certification of future additive manufacturing applications. As regulatory authorities develop greater familiarity with additive manufacturing technologies and establish more streamlined certification processes, the barriers to adoption should continue to decrease, enabling broader application of these technologies across aerospace platforms.
The integration of additive manufacturing with other advanced manufacturing technologies presents additional opportunities for innovation and efficiency improvements. GKN Aerospace’s expertise in additive fabrication positions the company well to explore synergies with other emerging technologies such as artificial intelligence, advanced materials, and automated assembly systems. These technological convergences could enable even greater improvements in manufacturing efficiency, quality consistency, and design optimization than are possible with additive manufacturing alone.
Looking forward, GKN Aerospace’s achievement establishes a foundation for continued innovation and expansion of additive manufacturing applications across aerospace platforms. The company’s projected acceleration of expansion from 2026, combined with growing market demand for GTF engines and broader aerospace applications, suggests substantial growth potential for these technologies. As additive manufacturing capabilities mature and regulatory frameworks evolve, the competitive advantages demonstrated by GKN Aerospace are likely to become increasingly important determinants of success in the global aerospace manufacturing landscape.
Conclusion
GKN Aerospace’s expansion of additive manufacturing capabilities in Connecticut represents far more than a simple facility expansion; it embodies a fundamental transformation in aerospace manufacturing paradigms that will have lasting implications for the industry’s future development. The successful industrialization of the Fan Case Mount Ring program, achieving FAA certification as the largest flight-critical additive component while demonstrating material savings exceeding 70 percent and dramatic lead time reductions, establishes compelling proof points for the viability of additive manufacturing in demanding aerospace applications. This achievement positions GKN Aerospace as a pioneer in the transition from traditional manufacturing methods toward more sustainable, efficient, and flexible production approaches.
The strategic significance of this expansion extends beyond operational improvements to encompass supply chain transformation, competitive differentiation, and market positioning advantages that will compound over time. By consolidating Fan Case Mount Ring production in the United States while maintaining global manufacturing capabilities, GKN Aerospace demonstrates how additive manufacturing can enable more resilient and responsive supply chain architectures. The company’s modular production concept provides a roadmap for rapid global deployment of advanced manufacturing capabilities, suggesting potential for dramatic scaling of these technologies across aerospace applications.
FAQ
What is the significance of GKN Aerospace’s Connecticut expansion?
The expansion marks the industrialization of additive manufacturing for flight-critical aerospace components, consolidates production, strengthens US supply chains, and positions GKN Aerospace as a leader in sustainable aerospace manufacturing.
What is the Fan Case Mount Ring and why is it important?
The Fan Case Mount Ring is a critical structural component in Pratt & Whitney’s GTF engines, and it is the largest flight-critical additive component to achieve FAA certification, demonstrating the viability of additive manufacturing for demanding aerospace applications.
How does additive manufacturing benefit aerospace sustainability?
Additive manufacturing reduces material waste by up to 70 percent, lowers energy consumption, enables lighter components for better fuel efficiency, and shortens production lead times, all of which contribute to a more sustainable aerospace industry.
What are the broader industry implications of this expansion?
GKN Aerospace’s achievements are likely to accelerate the adoption of additive manufacturing across the aerospace sector, reshape supply chains, and influence regulatory frameworks and global manufacturing strategies.
Sources:
GKN Aerospace
Photo Credit: GKN Aerospace
MRO & Manufacturing
Sopra Steria to Acquire Daher’s Aerospace Manufacturing Unit in 2026
Sopra Steria plans to acquire Daher’s Manufacturing Engineering business to expand aerospace production capabilities and strengthen Airbus collaboration.

This article is based on an official press release from Sopra Steria.
On May 28, 2026, European technology and consulting major Sopra Steria announced it has entered into exclusive negotiations to acquire the Manufacturing Engineering business of Daher Industrial Services, a subsidiary of the French aerospace conglomerate Group Daher. According to the official press release, the proposed acquisition aligns with Sopra Steria’s broader strategy to build comprehensive technological and engineering capabilities across the European aerospace sector.
The targeted unit specializes in optimizing aerospace production processes and has served as a strategic partner to Airbus since 1995. Industry research reports indicate that the unit generated more than €42 million in revenue in 2025 and employs over 360 people, primarily based in France. The financial terms of the transaction have not been publicly disclosed.
Subject to customary regulatory approvals and consultations with employee representative bodies, the companies expect to finalize the transaction in the second half of 2026. We view this development as a significant indicator of ongoing consolidation within the aerospace digital engineering space.
Strategic Expansion in Aerospace Engineering
Sopra Steria, which reported a global revenue of €5.6 billion in 2025 and employs approximately 51,000 people across nearly 30 countries, has been actively expanding its footprint in the aerospace and defense sectors. The company previously acquired CS Group to bolster its secure infrastructure and engineering programs, and this latest move signals a continued focus on industrial optimization.
Deepening the Airbus Partnership
The acquisition is designed to elevate Sopra Steria’s aerospace business by expanding its capacity in critical Manufacturing engineering processes. According to industry research, the Daher unit focuses on two vital phases of aerospace manufacturing: the pre-production preparatory phase and production ramp-up efficiency. By integrating these capabilities, Sopra Steria aims to offer end-to-end skills to major European aerospace programs.
“The acquisition allows the company to offer comprehensive, end-to-end skills to major European aerospace programs,” notes recent industry research analyzing the deal.
The global aerospace industry is currently facing immense pressure to accelerate aircraft production to meet post-pandemic travel demand. Sopra Steria is positioning itself as a vital technological partner to help manufacturers, particularly Airbus, meet these accelerating production paces and exacting industrial standards.
Daher’s Strategic Realignment
For Group Daher, the divestment of its Manufacturing Engineering unit represents a strategic realignment toward its core competencies. While the company is stepping away from this specific engineering niche, it remains heavily invested in aerospace logistics and its own aircraft manufacturing operations, which include the TBM and Kodiak aircraft families.
Focus on Logistics and Aircraft Manufacturing
Divesting the engineering unit is expected to allow Daher to concentrate capital on massive logistics and manufacturing scale-ups. In early 2026, Daher renewed and expanded a significant logistics contract with Airbus Atlantic. According to industry data, this contract runs from 2026 to 2031 and involves managing the West Hub in Montoir-de-Bretagne. Daher aims to triple logistics volumes at this site to support the production ramp-up of the Airbus A320, A330, and A350 programs.
Aggressive M&A and Financial Health
The proposed acquisition of Daher’s engineering unit is not an isolated event for Sopra Steria. The announcement follows closely on the heels of another strategic move. Industry research highlights that Sopra Steria recently entered exclusive negotiations to acquire Digital Product Simulation (DPS), a Paris-based digital engineering consulting firm.
DPS, which generated approximately €12 million in revenue in 2025, is being acquired through Sopra Steria’s subsidiary, CIMPA. Alongside these aggressive Mergers and Acquisitions activities, Sopra Steria recently announced a €40 million share buyback program. This follows a previous €150 million buyback concluded in January 2025, signaling strong financial health and a commitment to shareholder returns.
AirPro News analysis
We observe that IT and digital consulting firms like Sopra Steria are increasingly encroaching on traditional industrial engineering spaces. As the aerospace industry grapples with supply chain bottlenecks and ambitious production targets, digitizing and optimizing the factory floor has become a critical prerequisite for success. By acquiring established engineering units with deep-rooted OEM relationships, such as the 30-year partnership between Daher’s unit and Airbus, tech firms are effectively buying their way into the heart of the aerospace supply chain. This multi-pronged consolidation strategy, evidenced by the concurrent moves for Daher’s unit and DPS, suggests that the lines between digital IT consulting and physical manufacturing engineering will continue to blur.
Frequently Asked Questions
When is the acquisition expected to close?
According to the press release, the transaction is expected to be finalized in the second half of 2026, pending Regulations and employee consultations.
How large is the business being acquired?
Industry research indicates the Manufacturing Engineering business of Daher Industrial Services employs over 360 people and generated more than €42 million in revenue in 2025.
Why is Daher selling this unit?
Daher is divesting this unit to focus on its core competencies, specifically its massive aerospace logistics contracts and its own aircraft manufacturing operations (TBM and Kodiak).
Sources
Photo Credit: Sopra Steria
MRO & Manufacturing
Stratasys to Acquire Markforged for $42.5 Million Expanding 3D Printing Tech
Stratasys announces acquisition of Markforged for $42.5M to enhance aerospace and defense 3D printing capabilities, closing in late 2026.

This article is based on an official press release from Stratasys.
On May 27, 2026, Stratasys Ltd. announced a definitive agreement to acquire Markforged, Inc., a wholly owned subsidiary of Nano Dimension, in an all-cash transaction valued at $42.5 million. According to the company’s press release, the acquisitions is strategically designed to bolster Stratasys’s capabilities within the aerospace, defense, and industrial manufacturing sectors.
The deal will see Stratasys integrate Markforged’s advanced composite 3D printing technologies and its comprehensive software ecosystems. Included in the acquisition are Markforged’s polymer, composite, and metal extrusion portfolios, its proprietary Continuous Carbon Fiber (CCF) technology, and “The Digital Forge” software platform. Notably, Nano Dimension will retain Markforged’s Metal Binder Jetting product line.
Subject to customary closing conditions and regulatory approvals, the transaction is projected to close in the second half of 2026. This move marks a significant step in the ongoing consolidation of the additive manufacturing industry, leveraging Stratasys’s strong balance sheet to expand its technological footprint.
Strategic Expansion in Aerospace and Defense
According to the official announcement, Stratasys expects the integration of Markforged’s Continuous Carbon Fiber (CCF) technology to directly support high-requirement use cases in aerospace and defense. CCF technology enables manufacturers to produce parts that are significantly lighter and stronger than traditional Fused Filament Fabrication (FFF) alternatives. Stratasys highlighted that these capabilities are particularly suited for tooling, fixtures, ground support equipment, and select production parts.
Beyond hardware, the acquisition brings “The Digital Forge” into the Stratasys portfolio. This integrated software platform offers complementary capabilities, including advanced simulation, part management, and automated print optimization, which are critical for secure remote printing and rigorous part inspection in highly regulated industries.
Financial Synergies and Market Reach
Industry data indicates that Markforged generated approximately $70 million in revenue in 2025, a figure that includes the Metal Binder Jetting line being retained by Nano Dimension. Stratasys stated in its release that it expects the acquisition to be accretive to gross margins and to deliver meaningful cost synergies. The company projects a positive adjusted EBITDA contribution from the acquisition within the first year following the close of the transaction.
“This acquisition further advances our capabilities to meet customers’ growing needs in critical areas such as defense and aerospace at a time when additive manufacturing continues to displace traditional manufacturing for high requirement applications in production,” said Dr. Yoav Zeif, CEO of Stratasys, in the press release. “We believe that our teams can immediately reinvigorate revenue growth by adding Markforged, Inc.’s products and software systems as we leverage our leading partner networks.”
Industry Consolidation and Restructuring
For Nano Dimension, the divestiture serves primarily as a strategic cost-reduction measure. The company expects the sale to reduce its annualized cash burn by approximately $15 million through direct operating savings and indirect cost reductions. The transaction also highlights the steep valuation adjustments occurring within the 3D printing sector; Nano Dimension originally acquired Markforged in April 2025 for $116 million.
In a statement regarding the sale, Nano Dimension leadership emphasized that the move aligns with their broader corporate restructuring efforts.
“We are pleased to have reached an agreement with Stratasys that we believe positions MarkForged for continued growth and success under its ownership,” stated David Stehlin, CEO of Nano Dimension. “This transaction represents a deliberate step in advancing Nano Dimension’s three phase strategic plan and accelerating Phase 3 execution.”
AirPro News analysis
We observe a profound historic role reversal in this transaction. In 2023, Nano Dimension launched multiple unsolicited, hostile takeover bids to acquire Stratasys, all of which ultimately failed. Today, the negotiating power has entirely shifted. Stratasys recently reported holding $270 million in cash with zero outstanding debt, positioning it as a primary consolidator in the market. By contrast, Nano Dimension has been forced to aggressively divest and restructure, particularly following the July 2025 bankruptcy of Desktop Metal, another major acquisition it had made for $179.3 million.
Stratasys is clearly utilizing its robust balance sheet to capitalize on distressed valuations across the sector. Having recently acquired Nexa3D’s IP portfolio and remaining hardware assets, Stratasys is systematically absorbing complementary technologies at a fraction of their historical market premiums. We anticipate this trend of well-capitalized legacy players absorbing the assets of over-extended newer entrants will continue to define the additive manufacturing landscape through the end of the decade.
Frequently Asked Questions
How much is Stratasys paying for Markforged?
Stratasys is acquiring Markforged in an all-cash transaction valued at $42.5 million, subject to customary adjustments.
Are all Markforged assets included in the sale?
No. While Stratasys is acquiring the polymer, composite, and metal extrusion portfolios, as well as “The Digital Forge” software, Nano Dimension will retain Markforged’s Metal Binder Jetting product line.
When is the acquisition expected to close?
The deal is projected to close in the second half of 2026, pending regulatory approvals and customary closing conditions.
Why is Nano Dimension selling Markforged?
The sale is part of Nano Dimension’s strategic restructuring to reduce costs. The company expects the divestiture to reduce its annualized cash burn by approximately $15 million.
Sources
Photo Credit: Markforged
MRO & Manufacturing
Air Tractor Delivers 5,000th Aircraft Marking Global Milestone
Air Tractor reached a milestone with its 5,000th aircraft delivery, expanding its global footprint and acquiring Thrush Aircraft to boost capacity.

This article is based on an official press release from Air Tractor.
Air Tractor Reaches Historic 5,000-Aircraft Milestone
On May 28, 2026, agricultural aircraft manufacturer Air Tractor, Inc. celebrated a major manufacturing milestone, rolling its 5,000th aircraft out of its Olney, Texas, headquarters. According to the company’s official press release, the milestone highlights the manufacturer’s enduring global footprint and the critical role of purpose-built aerial application aircraft in modern agriculture.
The landmark aircraft, an AT-502B, is destined for the Latin America market, underscoring the heavy reliance on aerial application in Brazil’s expansive agricultural sector. The delivery comes at a time of significant momentum for the Texas-based manufacturer, which recently concluded its 50th-anniversary celebrations in 2024.
As we observe the broader general aviation landscape, this production achievement cements Air Tractor’s position as a dominant force in the industry. According to the General Aviation Manufacturers Association (GAMA) 2024 Aircraft Shipment and Billing Report, Air Tractor stands as the world’s top producer of general aviation turboprop airplanes.
The 5,000th Aircraft and Its Destination
Delivery Details and Celebration
The 5,000th aircraft, bearing serial number 502B-3619, was purchased by agricultural operator Dorilino Prediger, based in Sorriso, Mato Grosso, Brazil. According to the company, the sale was facilitated by the South American dealer AgSur Aviones. This new AT-502B will join three other Air Tractor aircraft currently operating in Prediger’s fleet.
Air Tractor commemorated the occasion with an 11 a.m. celebration at its Olney facilities. The event featured opening remarks, facility tours, a luncheon, and a group photograph. Attendees included company employees, civic leaders, public officials, and executives from Pratt & Whitney Canada, the long-time manufacturer of the PT6 turbine engines that power the Air Tractor fleet.
In the press release, Prediger emphasized the operational impact of the aircraft on his business:
“The Air Tractor aircraft represents exactly what we seek in agricultural aviation: simplicity, practicality, and robustness. In every detail, we can clearly see the commitment to an aircraft built for the field, capable of operating on an unprepared dirt strip, while also offering agility, confidence, and performance. Air Tractor airplanes have become an essential tool for us. They transformed our operation. It is a great satisfaction and a source of pride to be receiving Air Tractor aircraft number 5,000.”, Dorilino Prediger, Agricultural Operator
A Legacy of Agricultural Aviation
From Radial Engines to Global Turboprop Dominance
The foundation of Air Tractor’s success dates back to 1951, when the late Leland Snow designed his first agricultural airplane. Snow’s vision, according to company historical data, was to engineer purpose-built, durable, and pilot-friendly aircraft specifically optimized for the grueling demands of high-cycle, low-altitude flying.
What began with the early radial-engine AT-300 and AT-301 models has since evolved into a comprehensive lineup of eight distinct turboprop aircraft. Today, these planes are deployed across three primary sectors: crop protection and seeding, wildfire suppression, and military or utility applications. A critical factor in this evolution has been the company’s decades-long partnership with Pratt & Whitney Canada, ensuring reliable powerplant performance across the fleet.
Since 1979, Air Tractor has aggressively expanded its international presence. The company reports that its aircraft now operate in more than 50 countries, with exports currently accounting for over two-thirds of total sales.
Jim Hirsch, President of Air Tractor, reflected on the collective effort required to reach the 5,000-aircraft mark in the company’s official statement:
“This achievement reflects the people behind the aircraft, the employees who build them, the operators who depend on them, and the dealers who support customers worldwide. What began with the radial-engine AT-300s and AT-301s has grown into a line of eight turboprop aircraft because customers have continued to place confidence in the airplanes and the company behind them.”, Jim Hirsch, President of Air Tractor
Industry Context and Recent Expansion
AirPro News analysis
The delivery of the 5,000th aircraft arrives on the heels of a massive structural shift within the agricultural aviation manufacturing sector. On April 3, 2026, Air Tractor Holdings officially acquired its primary competitor, Albany, Georgia-based Thrush Aircraft LLC. We view this acquisition as a highly strategic synergy designed to stabilize the broader agricultural aviation supply chain.
Prior to the merger, Air Tractor was facing a pressing need for increased production capacity, which had initially prompted plans for a massive factory expansion in Olney. Conversely, Thrush Aircraft required capital to navigate an industry-wide slowdown. By acquiring Thrush, Air Tractor effectively halted its costly Olney expansion plans, opting instead to utilize Thrush’s existing manufacturing footprint. This consolidation is expected to balance manufacturing capacity with capital, reduce overhead costs, and shield customers from aggressive price increases, all while allowing both the Air Tractor and Thrush brands to continue operating independently.
Frequently Asked Questions
When was Air Tractor’s 5,000th aircraft produced?
The 5,000th aircraft was officially celebrated and rolled out on May 28, 2026, at the company’s headquarters in Olney, Texas.
What model was the 5,000th aircraft, and where was it delivered?
The milestone aircraft is an AT-502B (Serial Number 502B-3619). It was delivered to agricultural operator Dorilino Prediger in Sorriso, Mato Grosso, Brazil.
Who manufactures the engines for Air Tractor aircraft?
Air Tractor partners with Pratt & Whitney Canada, utilizing their highly reliable PT6 turboprop engines across the current fleet.
What is Air Tractor’s position in the global aviation market?
According to the 2024 Aircraft Shipment and Billing Report by the General Aviation Manufacturers Association (GAMA), Air Tractor is the world’s top producer of general aviation turboprop airplanes, with exports making up over two-thirds of its sales.
Sources: Air Tractor Press Release
Photo Credit: Air Tractor
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