MRO & Manufacturing
Maverick Aviation Acquires Maxcraft Avionics for North American Expansion
Maverick Aviation’s acquisition of Canada’s Maxcraft Avionics enhances technical capabilities and expands its North American avionics service reach.

Maverick Aviation’s Strategic Expansion: The Acquisition of Maxcraft Avionics
In a move that underscores the growing momentum in the avionics sector, Maverick Aviation has officially acquired Maxcraft Avionics, a Canadian-based provider of avionics installation, repair, and design engineering services. Announced on May 19, 2025, the acquisition marks a significant milestone for both companies and reflects broader trends in the aviation industry focused on consolidation, service integration, and technological advancement.
Maxcraft Avionics, headquartered in Pitt Meadows, British Columbia, has earned its reputation as a trusted name in the Canadian aviation ecosystem. With a team of 45 licensed technicians, engineers, and Aircraft Maintenance Engineers (AMEs), and a 30,000 ft² hangar facility, Maxcraft has been instrumental in delivering complex cockpit upgrades and custom avionics installations for both rotary and fixed-wing aircraft. The acquisition by Maverick Aviation positions the combined entity as one of the most capable independent avionics service providers in North America.
This strategic move not only expands Maverick’s operational footprint into Western Canada but also enhances its technical capabilities, allowing it to meet the rising demand for integrated and advanced avionics solutions across the continent. The merger is expected to bring about operational synergies and set a new benchmark for service quality and innovation in the sector.
Strategic Objectives Behind the Acquisition
Expanding Geographic Reach
One of the primary motivations behind Maverick Aviation’s acquisition of Maxcraft Avionics is the opportunity to strengthen its presence in the Canadian market. While Maverick has established a robust service network across the United States, this move enables it to tap into the growing aviation ecosystem in Canada, particularly in British Columbia and the broader Western region.
Canada represents a significant segment of the North American aviation market, with increasing demand for avionics upgrades driven by both regulatory mandates and evolving customer expectations. By acquiring Maxcraft, Maverick gains immediate access to a well-established client base and a fully operational facility staffed by experienced professionals.
The continued leadership of Maxcraft’s existing management—Daryl MacIntosh and Steve Nunn—ensures that customer relationships and service quality remain intact. This continuity is critical in maintaining trust and delivering seamless service during the integration phase.
Enhancing Technical Capabilities
Maxcraft’s core strength lies in its engineering expertise and ability to deliver tailored avionics solutions. From custom cockpit retrofits to field support and certification services, the company has built a comprehensive suite of offerings that align well with Maverick’s strategic goals. The acquisition allows Maverick to integrate these capabilities into its broader service portfolio.
As aircraft systems become increasingly complex, the demand for advanced avionics solutions is growing. This includes the integration of digital flight displays, satellite communication systems, and next-generation navigation tools. Maxcraft’s engineering team brings the technical depth required to meet these challenges head-on, enabling Maverick to offer end-to-end solutions to its customers.
Moreover, the acquisition positions Maverick to better serve the business and general aviation markets, which are seeing renewed growth in North America. These sectors often require high-touch, customized services—an area where Maxcraft has demonstrated consistent excellence.
“This acquisition is not a departure from who we are, it’s a continuation,” said Steve Nunn, Co-Leader at Maxcraft. “Partnering with Maverick gives us the ability to take Maxcraft to the next level, adding resources, expanding our capabilities, and ultimately delivering more value to our customers.”
Responding to Industry Trends
The avionics sector is undergoing a wave of consolidation as companies seek to scale operations and broaden their service offerings. The Maverick-Maxcraft deal is emblematic of this trend, reflecting a strategic response to the increasing complexity of aircraft systems and the need for integrated service models.
According to aviation analyst Heike Tamm, “Maverick Aviation’s acquisition of Maxcraft Avionics is a strategic move that positions the company well to capitalize on the growing demand for integrated avionics solutions in North America.” This sentiment is echoed by other experts who see the deal as a step toward building a more resilient and versatile service provider in a competitive market.
Furthermore, the acquisition aligns with the global push for digital transformation in aviation. As aircraft operators seek to modernize their fleets, the need for advanced avionics systems will only intensify. This includes compliance with evolving safety regulations, performance-based navigation requirements, and increased reliance on data-driven flight management systems.
Market Implications and Industry Context
Growth in the Avionics Market
The global avionics market is projected to experience steady growth over the next decade, driven by technological advancements, increased air traffic, and regulatory requirements. North America, in particular, remains a dominant player, with Canada and the U.S. contributing significantly to market demand.
In this context, Maverick’s acquisition of Maxcraft places it in a favorable position to capture a larger share of this expanding market. The combined entity can now offer a broader range of services, from installation and repair to full-scale engineering design, across a wider geographic area.
As aircraft operators increasingly prioritize safety, efficiency, and connectivity, the role of avionics systems becomes more central. Companies that can deliver comprehensive, integrated solutions are likely to gain a competitive edge, and Maverick appears to be positioning itself accordingly.
Impact on Competitive Landscape
The acquisition may also influence competitive dynamics within the Canadian and broader North American avionics service sector. Smaller, independent providers may feel pressure to either scale up or seek partnerships to remain competitive. Meanwhile, larger players could pursue similar acquisitions to enhance their technical capabilities and market reach.
For customers, this trend toward consolidation could result in improved service offerings, faster turnaround times, and access to more advanced technologies. However, it also raises questions about market diversity and the long-term impact on pricing and service accessibility.
John Smith, a former avionics engineer and industry consultant, observed: “Combining Maverick’s operational reach with Maxcraft’s engineering expertise could lead to innovative service offerings and improved customer support.”
Future Outlook
Looking ahead, the Maverick-Maxcraft integration will likely focus on harmonizing operations, aligning service standards, and exploring new market opportunities. The leadership continuity at Maxcraft is expected to facilitate a smooth transition and maintain customer confidence.
As the aviation industry continues to recover and evolve post-pandemic, the demand for modern, efficient, and reliable avionics services is expected to climb. Maverick’s expanded capabilities position it well to meet these demands, particularly in the retrofit and upgrade segments.
Moreover, the acquisition may serve as a blueprint for future deals in the sector, highlighting the value of combining operational scale with engineering excellence to deliver high-impact solutions.
Conclusion
The acquisition of Maxcraft Avionics by Maverick Aviation is more than a business transaction—it’s a strategic alignment that reflects the evolving needs of the aviation industry. By combining Maxcraft’s technical depth with Maverick’s operational scale, the partnership is set to offer enhanced value to customers across North America.
In a rapidly changing industry marked by technological advancement and regulatory complexity, this acquisition positions Maverick to be a key player in the future of avionics services. As integration progresses, the aviation community will be watching closely to see how this new powerhouse shapes the market landscape.
FAQ
What services does Maxcraft Avionics provide?
Maxcraft specializes in avionics installation, repair, and design engineering services for both rotary and fixed-wing aircraft.
Why did Maverick Aviation acquire Maxcraft?
The acquisition allows Maverick to expand its geographic reach into Canada and enhance its technical capabilities in avionics engineering and installation.
Will Maxcraft continue to operate under its existing leadership?
Yes, Daryl MacIntosh and Steve Nunn will remain in leadership roles to ensure continuity in operations and customer service.
Sources
Photo Credit: MaxcraftAvionics
MRO & Manufacturing
Cirrus Aircraft Breaks Ground on $8M Engine Run-Up Center
Cirrus Aircraft begins construction on a 15,000-sq-ft Engine Run-Up Center in Duluth, MN, set to open summer 2027.

Cirrus Aircraft has commenced construction on an $8 million, 15,000-square-foot Engine Run-Up Center in Duluth, Minnesota, moving critical engine testing and fuel calibration processes into a year-round, climate-controlled environment.
The new facility, detailed in a company press release on October 23, 2026, is designed to support the certification process for the SR Series, Vision Jet, and TRAC10 aircraft while reducing noise at the surrounding airport.
Centralizing certification operations
The Engine Run-Up Center will consolidate several final-phase manufacturing steps into a single enclosed building. The facility will house two calibration stalls dedicated to engine setup and testing, utilizing an 8-foot exhaust collector to ventilate the spaces. A separate climate-controlled control room will allow technicians to conduct data analysis during the testing phase.
In addition to the testing stalls, the building will include two stalls specifically engineered for fueling and defueling aircraft. These areas incorporate specialized fire protection systems and are designed to meet requirements for handling flammable fluids.
Cirrus Chief Executive Officer Zean Nielsen stated that engine run-ups and fuel system calibration are essential processes across aircraft manufacturing. He noted that the modern facility will allow the company to streamline these critical operations, improve efficiency, and provide team members with a dedicated environment to perform the work.
Expanding the Duluth manufacturing footprint
The new testing center adds to an existing corporate footprint that exceeds 1.3 million square feet. The majority of this infrastructure is located in Duluth, which serves as the primary production hub for the manufacturer.
Founded in 1984 and now publicly traded on the Hong Kong Stock Exchange, Cirrus has manufactured more than 12,000 SR Series piston aircraft and Vision Jets to date. The groundbreaking follows closely on a major program milestone for the company. On October 21, 2026, Cirrus celebrated the 10-year anniversary of Federal Aviation Administration (FAA) type certification for the Vision Jet, the first single-engine personal jet to reach the market.
Patrick Waddick, President of Innovation & Operations at Cirrus, highlighted the scale of the company’s historical output in Duluth. He noted that the new facility expands a footprint where the company has produced its entire fleet of over 12,000 aircraft, adding that the manufacturer has spent decades challenging conventions through innovations that transform personal aviation.
Project timeline and operational impact
Construction on the Engine Run-Up Center is underway, with the facility expected to open and become fully operational by the summer of 2027. By moving engine testing indoors, the company anticipates a reduction in noise levels for the surrounding airport environment, a common challenge for manufacturers conducting high-power engine runs on open ramps.
The $8 million investment reflects broader efforts by the airframer to scale production capabilities in response to market requirements. Nielsen indicated that as the company continues to grow, investments in manufacturing infrastructure position Cirrus to meet customer demand while maintaining high standards of quality and safety.
Photo Credit: Cirrus Aircraft
MRO & Manufacturing
Asco Industries Delivers Hybrid RSS Fairing Prototype to Airbus
Asco Industries delivers a hybrid metallic-composite RSS fairing prototype to Airbus for the Next Generation Single Aisle programme.

Asco Industries, a subsidiary of Montana Aerospace AG, has delivered a full-scale prototype of a hybrid metallic-composite Rear Secondary Structure (RSS) fairing to Airbus, advancing component development for the manufacturer’s Next Generation Single Aisle (NGSA) programme.
In a press release issued on October 22, 2026, Montana Aerospace confirmed the presentation of the prototype to Airbus stakeholders in Toulouse, France. The new RSS concept is engineered to reduce structural weight, decrease final assembly installation time, and support the high-rate production volumes required for future single-aisle aircraft.
Engineering the hybrid RSS fairing
The RSS fairing project was initiated in 2022 under a Collaborative Research Agreement between Airbus Airframe Propulsion and Asco. The engineering focus centered on optimizing weight, cost, and manufacturability for the next generation of commercial aircraft. The resulting design is a hybrid multi-material structure that integrates Carbon Fibre Reinforced Plastic (CFRP) skins manufactured via Resin Transfer Moulding (RTM) with aluminium and titanium structural interfaces, alongside thermoplastic components.
This material combination is designed to leverage the high strength-to-weight ratio of composites while maintaining the durability and precision of metallic joints where the fairing connects to the engine pylon. The use of RTM for the composite skins allows for high repeatability and tight tolerances, which are essential for high-rate manufacturing environments.
Asco manufactured two full-scale prototype assemblies in 2026 to validate the design. The component utilizes a plug-and-play assembly concept intended to streamline the installation process during final aircraft assembly, addressing a critical bottleneck in current production lines.
“Reaching this high level of maturity on this programme is the result of years of engineering development by our teams in close collaboration with Airbus,” said Jérôme Morhet, Chief Executive Officer of Asco. “It shows that Asco can take a structure from concept to a validated, production-ready design in a genuinely new material combination, and do so to the standards Airbus expects, on a component outside our historical wing scope.”
Supporting the Airbus NGSA timeline
The successful prototype delivery marks a milestone for Montana Aerospace as it seeks to expand its aerostructures portfolio ahead of the next major commercial aircraft cycle. Following the presentation in Toulouse, Airbus plans to evaluate the RSS concept at the complete pylon level. This phase will include installation trials of the Asco demonstrator on a representative next-generation aircraft pylon structure to verify the plug-and-play assembly claims under operational manufacturing conditions.
Paul Andreucci, Chief Commercial Officer of Montana Aerospace, stated that the programme demonstrates the strategic value of research and innovation in expanding the group’s technological capabilities.
“By combining expertise in materials, engineering and manufacturing across Montana Aerospace, we can develop solutions that complement our existing Aerostructures portfolio and create new opportunities for both existing and next-generation platforms,” Andreucci said.
The push for next-generation efficiency
Airbus is actively developing technologies for its NGSA aircraft, which will eventually succeed the highly successful A320neo family. The European manufacturer has publicly targeted a 20 percent to 30 percent reduction in fuel burn for the new platform compared to current-generation aircraft. Achieving this efficiency requires new propulsion systems, advanced wing designs, hybridisation, and lighter materials.
The aviation sector’s net-zero emissions roadmap for 2050 relies heavily on the next generation of single-aisle aircraft, as this segment represents the largest portion of the global commercial fleet. Beyond fuel efficiency, the NGSA development requires suppliers to design components capable of supporting unprecedented production rates. Airbus anticipates these rates will be necessary to meet future global demand for single-aisle aircraft.
Montana Aerospace, headquartered in Reinach, Switzerland, operates 16 locations across Europe, North America, and Asia-Pacific, employing approximately 6,300 people. Its subsidiary Asco, based in Zaventem, Belgium, employs around 1,200 people and specializes in high-lift mechanisms, complex structural assemblies, and mission-critical components.
AirPro News analysis
We view the Asco RSS fairing milestone as a clear indicator of how Tier 1 suppliers are positioning themselves for the NGSA supply chain years before formal programme launch. The emphasis on a plug-and-play assembly concept highlights a critical shift in aerostructures design. For the A320neo successor to be economically viable, Airbus must achieve production rates that exceed current industrial limits. By proving that complex, multi-material secondary structures can be installed rapidly on the final assembly line, suppliers like Montana Aerospace are addressing the manufacturer’s most pressing industrial bottleneck: assembly time. The transition from traditional metallic structures to hybrid composite-metallic components for secondary structures reflects the industry’s dual mandate of extreme weight reduction and high-rate manufacturability.
Photo Credit: Montana Aerospace
MRO & Manufacturing
Caerdav Builds Composites Workshop at St. Athan MRO Base
Caerdav begins construction on a 4,300 sq ft composites and paint workshop at St. Athan, due to open in early 2027.

Independent UK maintenance, repair, and overhaul provider Caerdav has commenced construction on a standalone composites and paint workshop at its St. Athan base in South Wales, a move designed to bring specialized component repairs in-house by early 2027.
Announced in a company press release on October 21, 2026, the expansion into a previously unused hangar represents the latest phase of a multi-year growth strategy aimed at reducing turnaround times for narrow-body aircraft operators.
Expanding in-house repair capabilities
The new facility will be located in Hangar 64, situated adjacent to Caerdav’s primary Twin Peaks hangar complex. The refurbishment project will create 4,300 square feet of dedicated workshop space, incorporating a mezzanine office level, specialized sanding and clean rooms, and a large paint spray booth designed to be divided for simultaneous smaller jobs.
Once operational, the workshop will focus on fiberglass, carbon fiber, and metal-to-metal bonded repairs. By performing these specialized tasks on-site, the company aims to streamline its base maintenance operations and reduce reliance on external component repair vendors.
Base Maintenance Manager Alan Steer stated that the project indicates how the business is moving forward.
“The additional workshop capacity will allow us to deliver a wider range of services to customers with aircraft in the hangars and also third parties looking for support,” Steer said.
Workforce recruitment and local impact
To support the expanded back-shop operations, Caerdav is initiating a recruitment drive for composite technicians, mechanics, and trainees in the South Wales region. The company is targeting both established aviation professionals and workers from outside the aerospace sector who possess transferable mechanical skills.
“Of course, an expansion of this size will need to be staffed, and we’re proud to be bringing more job opportunities to the local area,” Steer noted. “In the current market, the goal is to find people with the right aptitude and mindset. They may not have aviation experience, but engineers, technicians and mechanics looking to make a switch to this industry should certainly get in touch.”
Caerdav’s ongoing capacity growth
Founded in 2012 by Iron Maiden lead singer and commercial pilot Bruce Dickinson, Caerdav operates from a former Royal Air Force maintenance base equipped with a 6,000-foot instrument landing system runway and parking for up to 20 narrow-body aircraft. The company specializes in base maintenance for Boeing 737 Classic and Next Generation models, as well as the Airbus A320 family. It holds regulatory approvals from the UK Civil Aviation Authority (CAA), the European Union Aviation Safety Agency (EASA), the Federal Aviation Administration (FAA), and Transport Canada Civil Aviation (TCCA).
The Hangar 64 project builds on a period of sustained physical expansion for the maintenance, repair, and overhaul (MRO) provider. In July 2022, Caerdav secured a £4 million investment from independent asset manager BOOST&Co to address a growing backlog of aircraft servicing requirements. This funding facilitated the opening of a fourth maintenance line in November 2025, effectively doubling the company’s capacity to service four aircraft simultaneously.
The appointment of Steer as Base Maintenance Manager in February 2026 was part of a broader effort to drive efficiency across these four lines. The global demand for aircraft maintenance has increased sharply as the airline industry manages post-pandemic recovery and deals with aging fleets. Caerdav’s expansion of its back-shop capabilities allows the company to perform more work in-house, improving efficiencies for a customer base that includes major airlines and leasing companies such as AerCap and Avolon.
AirPro News analysis
We view Caerdav’s investment in dedicated composite and paint facilities as a direct response to ongoing supply chain constraints within the global MRO sector. By bringing specialized back-shop capabilities in-house, independent providers can reduce their reliance on third-party component repair vendors, thereby gaining tighter control over base maintenance turnaround times. For lessors and airlines managing aging narrow-body fleets, predictable maintenance schedules have become increasingly critical as new aircraft delivery delays persist across the industry.
Photo Credit: Caerdav
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