Kenya Airways CEO Outlines Plan to Double Cargo Revenue

Copenhagen Airport Implements AI to Monitor APU Emissions Copenhagen Airport (CPH) has become the first airport worldwide to deploy Assaia’s EmissionsControl technology across the majority of its aircraft stands, enabling real-time monitoring of ground emissions from Auxiliary Power Units (APUs). This AI-driven system employs advanced camera technology to track APU usage during aircraft turnarounds, delivering detailed data that is contextualized by prevailing weather conditions. Addressing a Persistent Environmental Challenge The initiative tackles a persistent issue in the aviation industry: the reduction of APU usage, which is a significant source of noise, carbon dioxide emissions, and air pollution, including ultrafine particles. Historically, airports have faced difficulties in limiting APU runtime due to a lack of precise data, as usage patterns vary considerably depending on location and weather. By capturing comprehensive, real-time information, the new system provides Copenhagen Airport with actionable insights into actual APU operation, enabling more effective management. Christiaan Hen, CEO of Assaia, highlighted the importance of weather in influencing APU runtime. He explained that extreme cold conditions necessitate longer warm-up periods, while hot weather increases cabin cooling demands. “Assaia’s technology fills this critical data gap by providing continuous monitoring that captures these variable scenarios,” Hen stated. The system’s user-friendly interface allows airport operations teams to identify instances where APUs run longer than necessary, even when ground power is available. This data-driven approach empowers CPH and its airline partners to move beyond assumptions and implement targeted strategies to minimize unnecessary APU use. Airlines operating at Copenhagen Airport can anticipate reductions in fuel consumption and operational costs as ground handlers optimize APU deployment, contributing to emissions reduction and improved air quality. Strategic and Environmental Implications Kristoffer Plenge-Brandt, Chief Operating Officer at CPH, emphasized the broader significance of the initiative. He noted that APU usage contributes not only to noise but also to CO₂ emissions and air pollution, which affect both airport employees and surrounding communities. “That’s why we aim to reduce APU usage as much as possible. With this new tool, we can identify when our operational guidelines are not being met and understand the reasons behind it,” Plenge-Brandt said. The deployment of Assaia’s AI technology aligns with Copenhagen Airport’s ambitious sustainability objectives, including its commitment to achieving net-zero carbon emissions from operations by 2030. This investment reflects a wider industry trend toward leveraging advanced technology to better understand and mitigate environmental impacts. Despite its promise, the integration of sophisticated AI systems presents challenges. High implementation costs and the need to harmonize emissions standards with global best practices may pose regulatory obstacles. As Copenhagen Airport leads the way in adopting this technology, other airports are likely to accelerate their own AI initiatives to remain competitive. This dynamic could enhance investor confidence in CPH’s sustainability efforts while inviting increased scrutiny of AI-driven environmental monitoring across the aviation sector. Last month, Assaia announced that Munich Airport (MUC) in Germany had selected its ApronAI solution to enhance turnaround operations and ramp efficiency. The initial rollout covers 150 stands, with plans for future expansion. As more airports explore similar technologies, the aviation industry may experience a shift toward more rigorous, data-driven approaches to emissions management.

NW Pro Introduces Deeper Scan Technology to Improve Airport Security Screening Advancing Security Through Artificial Intelligence UK-based software company NW Pro has unveiled Deeper Scan, an innovative electronic device screening technology designed to enhance airport security by harnessing artificial intelligence. Developed under the UK Ministry of Defence’s Defence and Security Accelerator’s (DASA) Future Aviation Security Solutions (FASS) programme, Deeper Scan seeks to overcome limitations inherent in traditional screening methods that depend heavily on human interpretation of complex X-ray images. The system employs AI algorithms to automatically analyze electronic devices such as laptops, tablets, and smartphones by comparing them against a secure database of known devices. This capability allows Deeper Scan to identify modifications or anomalies that may indicate concealed threats, extending beyond the scope of conventional scanners that primarily detect suspicious chemical compositions. By automating the analysis process, the technology reduces the need for continuous human oversight, thereby streamlining operations, lowering operator workload, and enhancing the accuracy of threat detection. Features and Operational Integration Deeper Scan is designed as a portable, cabinet-based system capable of processing devices within seconds. When an unknown device or potential threat is detected, the scan is escalated to a secure control room for expert evaluation. This hybrid model combines the efficiency of AI with human expertise to ensure thorough security coverage. A notable aspect of Deeper Scan is its static and transparent algorithm, developed to address concerns regarding the opacity of AI systems. New device scans undergo review by qualified personnel before inclusion in the trusted database, ensuring compliance with regulatory standards. The software is compatible with existing X-ray systems, offering potential cost savings for security operators. Deployment options include both local and central server configurations, providing flexibility to accommodate diverse operational requirements. Challenges and Market Context Despite its promising capabilities, Deeper Scan faces several challenges. Integrating the technology into existing airport infrastructure may necessitate significant adjustments, while adherence to evolving regulatory frameworks remains essential. Public acceptance also poses a potential obstacle, as travelers and airlines may initially harbor skepticism about the effectiveness and privacy implications of AI-driven screening. Furthermore, competition within the security technology sector is expected to intensify as rival firms develop comparable or enhanced solutions. NW Pro’s founder and director, Jay Richards, reflected on the company’s evolution: “We started by supplying and maintaining off-the-shelf products, but over time, we found that what customers wanted didn’t exist. We evolved by listening closely to end-user needs. The DASA experience enabled us to find ways to meet customer demands that we didn’t know how to achieve at that stage.” Broader Applications and Ongoing Trials Beyond the aviation sector, NW Pro is exploring applications for Deeper Scan in military installations and large-scale events, facilitated by the DASA programme. The company also offers NexuSec, an AI-powered CCTV search system that utilizes advanced computer vision and natural language processing to enable intuitive searches for visually similar individuals across multiple cameras, further strengthening security operations. Following development support from DASA and the Defence Science and Technology Laboratory (Dstl), NW Pro is currently conducting trials of Deeper Scan with law enforcement and security teams across the UK. These trials aim to address operational requirements and public concerns amid the evolving landscape of security technology.

PlaneSense Marks 30 Years in Private Aviation **PORTSMOUTH, N.H., Sept. 10, 2025** – PlaneSense, a prominent provider of fractional aircraft ownership, is celebrating its 30th anniversary this week, marking three decades of sustained growth, innovation, and unwavering dedication to client service within the private aviation sector. A Legacy of Innovation and Service Established in 1995, PlaneSense stands as the second oldest fractional aircraft program in the United States. Throughout its history, the company has consistently emphasized safety, reliability, and personalized service, setting new benchmarks in the industry. Today, PlaneSense operates the largest fleet of Pilatus PC-12 turboprops and PC-24 jets in the country, offering a comprehensive suite of services that includes fractional ownership, jet card programs, and other premium private aviation solutions. George Antoniadis, Founder, President, and CEO of PlaneSense, reflected on the company’s origins, stating, “When we launched PlaneSense three decades ago, our vision was to offer a more intelligent and highly personal approach to private flying. We believed clients deserved not only sophisticated aircraft but also a trusted partner dedicated to fulfilling their flight needs with a cost-effective, safe, and service-focused solution. Thirty years later, that philosophy still drives every decision we make.” The company’s journey began with the delivery of its first Pilatus PC-12 in September 1995. The aircraft’s short field capabilities, ability to operate from unpaved runways, and spacious cabin quickly made it a preferred choice for both business and leisure travelers. In 2015, PlaneSense expanded its offerings by launching a jet program, which culminated in the acquisition of the world’s first Pilatus PC-24 jet in 2018. The PC-24, noted for its larger cabin and extended range, has further enhanced the private flight experience for PlaneSense’s clientele. Navigating a Changing Industry Landscape While PlaneSense remains the largest Pilatus operator in the United States, it faces a private aviation industry undergoing rapid transformation. The broader charter market contends with increasing competition, evolving regulatory requirements, and challenges in talent acquisition. These factors present potential obstacles to PlaneSense’s market position and will likely shape its strategic direction as it adapts to shifting dynamics in both the U.S. and European markets. In response to these challenges, PlaneSense has continued to innovate and expand its service offerings. Over the past year, the company introduced the PlaneSense Sourcing Solution, which grants clients access to private flights beyond the company’s own fleet, both domestically and internationally. An exclusive partnership with Jetfly extends seamless service to Europe and Northern Africa, allowing clients to utilize their flight hours on Jetfly’s Pilatus aircraft. Additionally, the launch of the CobaltPass jet card provides enhanced flexibility for clients seeking customized travel options. Antoniadis emphasized the company’s commitment to innovation, stating, “As we celebrate this milestone, I am reminded that innovation is in our DNA. From pioneering new approaches for fractional ownership to embracing the latest advancements in aviation technology, we are constantly evolving to better serve our clients. Their trust empowers us to expand our offerings and set new standards.” As PlaneSense commemorates 30 years of service, its dedication to excellence, safety, and customer satisfaction remains resolute, even as it navigates the complexities and evolving demands of the private aviation industry.

Uber to Introduce Helicopter Bookings Through Its App Uber is preparing to extend its ride-sharing services into the realm of urban air mobility by offering helicopter bookings via its app as early as next year. The San Francisco-based company announced a partnership with Joby Aviation, an electric air taxi manufacturer, to integrate helicopter flights into the Uber platform. This initiative marks a significant expansion of Uber’s transportation offerings, aiming to provide passengers with new options for navigating congested metropolitan areas. Partnership with Joby Aviation and Blade Air Mobility The collaboration builds on Joby Aviation’s recent $125 million acquisition of Blade Air Mobility, a company specializing in helicopter and seaplane operations in major cities. Through this partnership, passengers will be able to book helicopter flights directly through the Uber app in select urban centers worldwide. While specific launch locations and pricing details remain undisclosed, Blade currently offers flights between Manhattan and New York’s major airports—John F. Kennedy International and Newark Liberty International—at a fare of $195. Last year, Blade transported approximately 50,000 passengers across the New York metropolitan area and Southern Europe. JoeBen Bevirt, founder and CEO of Joby Aviation, emphasized the strategic nature of the integration, stating that incorporating Blade into Uber’s app represents a natural progression in their global partnership. He highlighted that this collaboration will also pave the way for the future introduction of Joby’s quiet, zero-emissions aircraft. Uber and Joby’s relationship dates back to 2019, when Joby acquired Uber’s Elevate division, which was focused on developing aerial ride-sharing services using electric vertical takeoff and landing (eVTOL) vehicles. This history underscores the companies’ shared vision of transforming urban transportation through innovative aerial solutions. Challenges and Market Response Despite the promising outlook, Uber’s venture into helicopter bookings faces considerable challenges. Regulatory approval for urban air mobility remains a complex and evolving process, with aviation authorities rigorously evaluating safety protocols and airspace management. The high operational costs associated with helicopter services, coupled with the need for specialized infrastructure such as vertiports, may limit the scalability and profitability of the offering. Furthermore, Uber will contend with competition from established aviation firms and other ride-sharing platforms that may pursue similar aerial service models. Market reactions to Uber’s announcement have been mixed. Some investors view the move as a forward-thinking expansion that could unlock new revenue streams and position Uber at the forefront of innovative transportation. Conversely, others express caution regarding the financial risks and uncertainties inherent in launching a premium, capital-intensive service in a nascent market. As Uber and Joby advance their plans to make helicopter bookings accessible to a broader audience, the transportation industry will closely monitor whether this ambitious initiative can successfully navigate regulatory, operational, and competitive obstacles to become a sustainable component of urban mobility.

NAV CANADA Inaugurates Canada’s First Digital Air Traffic Facility in Kingston NAV CANADA has officially launched the country’s first digital air traffic facility in Kingston, marking a pivotal advancement in the modernization of Canada’s air navigation services. The Kingston Digital Facility (KDF), established as a temporary site, will serve as a testing ground for new technologies and operational concepts until its anticipated completion in the summer of 2026. Upon successful validation, the facility will support air traffic management for Kingston and an additional airport, setting the stage for Canada’s inaugural permanent digital air traffic hub, also planned for Kingston. This future hub is expected to remotely manage services for up to 20 airports nationwide. Transforming Air Traffic Management Through Digital Innovation Digital air traffic facilities signify a fundamental transformation in the delivery of air navigation services. By integrating high-resolution sensors, secure data networks, and advanced digital displays, NAV CANADA aims to consolidate the management of multiple airports within a single location. This innovative approach is designed to enhance operational resilience, sustainability, and adaptability in an aviation sector that is rapidly evolving. Throughout this transition, NAV CANADA remains committed to maintaining the rigorous safety and service standards that pilots, operators, and communities rely upon. David Sheppard, Vice President and Chief Technology and Information Officer at NAV CANADA, emphasized the strategic importance of the Kingston Digital Facility. He described it as more than a temporary installation, characterizing it as a critical step toward a new paradigm in air navigation service delivery. Sheppard highlighted the organization’s focus on harnessing innovation to build resilience into Canada’s aviation system, ensuring that technological advancements align with global aviation safety standards. Marie-Pier Berman, Vice President and Chief of Operations, underscored the essential role of NAV CANADA’s workforce in this technological transition. She noted that by combining cutting-edge technologies with the expertise of skilled air traffic services teams, the organization will enhance its capacity to safely manage aircraft operations. Kingston Mayor Bryan Paterson also reflected on the local significance of the project, stating that hosting Canada’s first digital air traffic facility positions the city at the forefront of aviation innovation. He pointed to the creation of high-skilled, future-ready jobs and Kingston’s longstanding reputation for leadership in education, research, and innovation. According to Paterson, this milestone establishes Kingston as a key partner in shaping the future of air traffic management in Canada. Context and Challenges in a Global Landscape The Kingston initiative forms part of NAV CANADA’s broader Digital Aerodrome Air Traffic Services (DAATS) program, aligning Canada with a global movement already underway in more than 16 countries, including Norway, Sweden, and the United Kingdom. With over 65 digital air traffic facilities either operational or in development worldwide, the Kingston facility places Canada at the forefront of this international trend toward digital air traffic management. Despite the promise of these technological advancements, the integration of digital systems presents challenges. Industry analysts observe that competitors may accelerate their own digital upgrades to maintain market positions, intensifying the pace of innovation across the sector. Furthermore, recent labor disputes at Air Canada, particularly involving flight attendants, have caused operational disruptions that could influence how the broader aviation industry adapts to emerging technologies. NAV CANADA has reaffirmed its commitment to upholding the highest safety standards and ensuring uninterrupted service throughout this transition. The organization has confirmed that the introduction of the digital facility will not affect existing service levels at Kingston or other participating airports. Further details regarding additional airports to be connected to both the temporary Kingston facility and the future permanent digital hub will be disclosed as the project advances.

AI-Driven Airfare Pricing Raises Questions of Fairness Airfare pricing is undergoing a significant transformation as airlines increasingly rely on artificial intelligence (AI) to determine ticket costs. When consumers refresh a flight search and notice fares fluctuating within minutes, it is often a direct result of AI-powered systems at work. These technologies enable airlines to forecast demand, set dynamic prices, and micro-target individual passengers. While this approach enhances operational efficiency and helps maximize seat occupancy, it has also ignited a debate surrounding fairness, transparency, and consumer privacy. The Mechanics and Implications of AI Pricing Modern AI-driven pricing models extend far beyond traditional methods that primarily considered historical booking data. According to Jaspreet Bindra, co-founder and CEO of a technology consultancy, airlines now integrate a broad spectrum of information into their machine-learning algorithms, including browsing behavior and purchase history. This allows for highly personalized pricing strategies tailored to individual consumers, raising concerns about potential price discrimination. Regulators and lawmakers have taken note of these developments. In recent months, U.S. Transportation Secretary Sean Duffy voiced apprehensions about the use of AI in setting personalized airline fares, echoing similar warnings from several Democratic senators. Critics argue that such practices risk creating unfair disparities, where customers may be charged vastly different prices for identical services based on data-driven profiling. Regulatory and Market Challenges Beyond issues of fairness, there is growing unease about the possibility of algorithmic collusion and antitrust violations. As airlines deploy increasingly sophisticated pricing algorithms, regulators and private litigants are scrutinizing whether these systems might inadvertently facilitate coordinated pricing strategies that suppress competition and harm consumers. The inherent opacity of AI-driven pricing models complicates efforts by both regulators and passengers to understand how fares are determined. The market response has been mixed, with skepticism about whether AI-powered pricing truly enhances transparency or merely serves as a tool for airlines to maximize profits at travelers’ expense. While some competitors adopt similar AI technologies to remain competitive, others advocate for regulatory reforms aimed at ensuring a fair and level playing field. As AI continues to reshape airfare pricing, the industry faces mounting pressure to reconcile innovation with principles of fairness and accountability. The ongoing debate over the extent of algorithmic control and the transparency of pricing decisions remains unresolved, leaving travelers to navigate a complex and often opaque pricing landscape where ticket costs can change instantaneously.

Lufthansa Technik Reaches Milestone with 100th CFM LEAP Engine Completion in Hamburg Lufthansa Technik has marked a significant milestone at its Hamburg facility with the completion of its 100th CFM LEAP engine. This achievement highlights the company’s expanding expertise in servicing next-generation aircraft engines and reflects the growing demand for LEAP engine maintenance. The milestone was reached following a Quick Turn Shop Visit (QTSV) for a LEAP-1B engine operated by Brazilian carrier GOL Linhas Aéreas, underscoring the facility’s increasing role in supporting modern engine platforms. Expanding Capabilities in Next-Generation Engine Maintenance The CFM LEAP engine, developed by CFM International, is progressively replacing the long-serving CFM56 models that have been central to Lufthansa Technik’s engine services for decades. Since obtaining the first LEAP-1A Premier MRO license from CFM International in February 2018, Lufthansa Technik has steadily expanded its maintenance capabilities. The company secured certifications from the German Federal Aviation Office (LBA), the European Union Aviation Safety Agency (EASA), and the US Federal Aviation Administration (FAA) by late 2019. Despite the operational challenges posed by the COVID-19 pandemic, Lufthansa Technik inducted its first LEAP-1A engine in April 2020, demonstrating resilience and adaptability during a turbulent period for the aviation industry. Gaël Méheust, President and CEO of CFM International, emphasized Lufthansa Technik’s critical role within CFM’s open MRO ecosystem. He noted that the company’s capacity is essential to meeting the rising demand for LEAP engine services as airlines worldwide transition to newer, more efficient engine models. Harald Gloy, Chief Operations Officer at Lufthansa Technik, reflected on the significance of the LEAP engine family, describing it as poised to become the backbone of the company’s engine services in Hamburg. He acknowledged the enduring importance of the CFM56 engine variants, which have kept the facility busy for decades and will continue to do so for the foreseeable future. Gloy expressed gratitude to customers, CFM International, and Lufthansa Technik’s teams for their contributions to reaching this milestone. Navigating a Competitive and Evolving Market Landscape The milestone arrives amid a dynamic and competitive market environment. Ongoing durability concerns with Pratt & Whitney’s Geared Turbofan (GTF) engines have introduced uncertainty, potentially affecting market confidence in next-generation propulsion systems. Concurrently, the CFM56 engine market remains robust but faces operational pressures and high valuations, factors that may influence airlines’ maintenance and repair decisions as they balance legacy engines against newer technologies. Competitors are responding by enhancing their own maintenance, repair, and overhaul (MRO) capabilities and focusing on next-generation engine technologies. The competition between LEAP and GTF engines for market share, particularly across Europe, underscores the strategic importance of Lufthansa Technik’s investment in LEAP engine services. This positions the company to meet evolving customer demands and address the challenges of a rapidly changing aviation maintenance sector. As Lufthansa Technik celebrates the completion of its 100th LEAP engine, it continues to support airlines in their transition to advanced engine platforms while navigating the complexities of an increasingly competitive and technologically sophisticated market.

Germany’s LUMINAIR Receives First Dassault Jet Amid Strategic Fleet Expansion LUMINAIR, the Hamburg-based German operator, has taken delivery of its first Dassault Aviation aircraft, a pre-owned Falcon 900LX. This acquisition represents a notable diversification for the company, which until now operated exclusively Citation-series jets. The 2023-built Falcon 900LX, registered D-AFLY (msn 332), is configured to accommodate up to 14 passengers. It arrived in Hamburg on September 5 following a delivery flight from Paris Le Bourget, with a stopover in Hannover. Previously, the aircraft was operated by Global Jet Luxembourg under the registration LX-DPR. It remained active until June 9, departing from Pisa to Zurich and then Paris Le Bourget. After a brief operational pause, the jet resumed activity in August, conducting several test flights around Le Bourget and Paris Chalons-Vatry. Global Jet Luxembourg continues to maintain a fleet that includes another Falcon 900LX and various Dassault models, notably the Falcon 6X introduced earlier this year. Fleet Growth and Market Positioning LUMINAIR’s recent acquisition precedes the arrival of three new Falcon 900LX jets ordered at the 2025 Paris Air Show. These factory-new aircraft, designated msn 336, 337, and 338, are scheduled for delivery in September, November, and December respectively. According to ch-aviation data, msn 336 will bear the registration D-AJES, while the registrations for the other two jets remain undisclosed. The introduction of the Falcon 900LX marks LUMINAIR’s entry into the trijet segment, expanding beyond its existing fleet of Citation XLS and XLS+ models. CEO David Bergold has articulated ambitions to expand the fleet to between 15 and 25 aircraft by the end of the decade, potentially incorporating up to four different aircraft types. Within Germany, Heron Aviation remains the only other operator with Falcon 900 models on its air operator’s certificate, specifically the Falcon 900EX and Falcon 900LX. Industry Context and Challenges LUMINAIR’s expansion occurs amid a shifting global aerospace landscape. The U.S.-EU trade agreement has effectively shielded the aerospace sector from tariffs, benefiting manufacturers such as Dassault and facilitating smoother aircraft deliveries. However, ongoing industrial disputes surrounding the Future Combat Air System (FCAS) fighter project pose potential risks to the European defense market, with possible delays and shifts in market share. Meanwhile, Boeing’s prospects in China have improved, highlighted by the potential for a 500-aircraft deal. This development contrasts with Airbus’s recent delivery performance and underscores the competitive pressures confronting European manufacturers. As LUMINAIR integrates its first Dassault jet and prepares for further fleet growth, it must navigate these evolving regulatory and market dynamics shaping the aerospace industry.

Malaysia’s Ambition to Lead Southeast Asia’s Aircraft Maintenance Sector Malaysia aims to establish itself as Southeast Asia’s premier aircraft maintenance, repair, and overhaul (MRO) hub, setting an ambitious target to capture 50 percent of the regional MRO market by 2030. This goal, championed by Prime Minister Anwar Ibrahim’s administration, seeks to surpass Singapore, the current market leader. The aspiration aligns with the rapid growth of Southeast Asia’s aviation industry, which is among the fastest expanding globally. According to Mordor Intelligence, the region’s MRO sector is expected to grow at an annual rate of nearly 6 percent, reaching a market value of approximately US$7.6 billion by 2030, up from US$5.3 billion in 2024. Currently, Malaysia holds the position of the second-largest MRO provider in Southeast Asia. However, industry experts emphasize that achieving the government’s target will require overcoming significant hurdles, particularly in expanding operational capacity. Mahesh Kumar, CEO of Asia Digital Engineering (ADE)—a subsidiary of Capital A, the parent company of AirAsia—highlighted the pressing need for additional infrastructure. ADE operates Malaysia’s largest MRO facility, a 380,000 square foot hangar at Kuala Lumpur International Airport capable of accommodating 16 aircraft. This facility is fully booked until late 2026 and presently services only 70 percent of AirAsia’s fleet, underscoring the urgent demand for increased capacity. Challenges and Competitive Landscape Malaysia’s pursuit of market leadership is complicated by intense competition from established regional players such as Singapore and Thailand. The competitive environment is further strained by rising tariffs and ongoing geopolitical tensions, which could impede Malaysia’s efforts to expand its market share. The MRO industry’s dependence on a resilient supply chain and strategic partnerships adds another layer of complexity. Recent strategic moves by airlines like AirAsia X and Air Mauritius to forge new alliances illustrate the critical role of collaboration in securing business and maintaining competitiveness. Singapore’s ST Engineering exemplifies the proactive approach required to navigate these challenges, continuing to pursue growth despite tariff disruptions. This highlights the economic pressures that Malaysia must contend with as it seeks to elevate its position in the regional MRO market. To compete effectively, Malaysia will need to invest not only in expanding infrastructure and developing a skilled workforce but also in cultivating strategic partnerships and adapting to the evolving geopolitical and economic landscape. As Malaysia accelerates efforts to scale up its facilities and workforce, its capacity to address these multifaceted challenges will be pivotal in determining whether it can fulfill its vision of becoming Southeast Asia’s leading aircraft maintenance hub by 2030.

Global Analysis of the Commercial Aircraft MRO Market The commercial aircraft Maintenance, Repair, and Overhaul (MRO) market is set to experience steady growth over the coming decade, with its value anticipated to increase from USD 118.1 billion in 2025 to USD 163.4 billion by 2035. This growth corresponds to a compound annual growth rate (CAGR) of 3.3%, underscoring the sector’s resilience amid shifting industry dynamics and rapid technological advancements. Market Growth Drivers and Regional Trends Between 2025 and 2030, the MRO market is projected to expand steadily, reaching USD 138.9 billion. This growth is primarily fueled by the expanding global aircraft fleet, rising demand for heavy maintenance checks, and the imperative to maintain rigorous airworthiness standards. Airlines are increasingly prioritizing cost efficiency, which has led to a greater reliance on outsourcing MRO services to specialized providers. Innovations such as predictive maintenance, enhanced spare parts management, and strategies aimed at extending aircraft lifecycles are further influencing the market’s development. From 2030 to 2035, the upward trajectory is expected to continue, with the market reaching USD 163.4 billion. During this period, significant investments in maintenance capacity are anticipated, particularly within the Asia-Pacific region, which is emerging as a key hub due to its rapidly expanding commercial aircraft base. Engine overhauls and component repairs are forecasted to remain dominant segments, driven by the industry’s focus on reliability and operational efficiency. Market Composition and Challenges The commercial aircraft MRO sector occupies a critical position within the broader aviation services market, accounting for approximately 25% of the segment—second only to passenger handling and operations. Within the aerospace maintenance and engineering market, its share rises to around 30%, highlighting the essential role of scheduled checks, component overhauls, and engineering upgrades for passenger fleets. In the civil aviation industry, MRO represents nearly 15%, emphasizing its importance in maintaining operational efficiency for airlines and airports. Despite promising growth prospects, the market faces several challenges. Rapid technological advancements, including the deployment of loitering munitions and fiber-optic guided drones, are reshaping industry priorities and may affect traditional MRO demand. Increased competition is evident, with new entrants emerging in the U.S. Navy trainer competition and a dynamic commercial fleet forecast for 2026. Regionally, the Europe Aircraft Wheel and Brake MRO market is expected to grow from USD 3.75 billion in 2025 to USD 5.35 billion by 2032, reflecting ongoing expansion. Additionally, the United Kingdom’s record aircraft deliveries since 2019 signal potential momentum in the market. Ongoing global supply chain disruptions and economic volatility remain risks to sustained growth. Nonetheless, the commercial aircraft MRO market’s consistent year-on-year expansion, emphasis on digital monitoring tools, and structured maintenance contracts indicate a stable outlook, with long-term opportunities in both established and emerging aviation markets. Key Market Insights In 2025, the market value is estimated at USD 118.1 billion, with a forecasted increase to USD 163.4 billion by 2035, reflecting a CAGR of 3.3%. Narrowbody aircraft constitute the leading segment, accounting for 48.7% of the market in 2025. The primary growth regions include North America, Asia-Pacific, and Europe. Major industry players encompass Lufthansa Technik, AAR, Air France Industries, Ameco, Delta TechOps, GE Aviation, GMF AeroAsia, HAECO, Honeywell, MRO Holdings, MTU Aero Engines, Rolls Royce, RTX, Safran, SIA Engineering Company, SR Technics, ST Engineering, TAP Maintenance & Engineering, and Turkish Technic.