Nigeria’s 7Star Global Hangar Ltd Approved to Service Aircraft in Congo

Floating Fleet AI to Unveil Advanced Scheduling Software at NBAA-BACE 2025 Floating Fleet AI, a leading developer of artificial intelligence-driven scheduling solutions for business aviation, is set to launch its latest platform at the NBAA-BACE 2025 event in Las Vegas. The company asserts that its patented optimisation algorithms can significantly improve the assignment of aircraft and crew, reduce staff workload, and generate measurable cost savings while effectively expanding fleet capacity. Innovative Scheduling Tailored for Business Aviation Primarily designed for floating fleet operators, the AI Scheduler is also well-suited for corporate flight departments and charter brokers. The platform seamlessly integrates with existing flight management systems, including a recent connection with FL3XX, and features a user interface inspired by ChatGPT to ensure ease of use. Dr. Roger Zhan, CEO of Floating Fleet AI, highlighted that users can be trained on the system in as little as ten minutes. “The two most important assets for Part 135 or 91 operators are their crew and aircraft. Those have to come together to serve the customer,” Dr. Zhan explained. “We’re not trying to replace human schedulers. Instead, we provide machine-generated recommendations that schedulers can accept or adjust at their discretion. If satisfied, they can push the schedule directly to their flight management system—whether myairops, FL3XX, or another platform—and continue their workflow seamlessly.” Floating Fleet’s AI is purpose-built for the complexities of aviation logistics, employing custom algorithms capable of rapidly handling intricate scheduling scenarios. Dr. Zhan noted, “Scheduling 30 aircraft over seven days takes just a few seconds for us. I’ve seen other programmes take five to fifteen minutes or fail to manage a full seven-day schedule.” Industry Adoption and Challenges Ahead With a growing customer base across North America, Floating Fleet AI now optimises tens of thousands of flights monthly. Jacob Wall, vice president of operations at Jetvia—the world’s largest Learjet 60 operator and a Floating Fleet client—remarked, “Floating Fleet AI has materially reduced our deadhead percentage by delivering optimisations that exceed what a human could do. The team has been consistently responsive and quick to innovate. Floating Fleet AI is now integral to how we manage our fleet.” Despite the platform’s promise, the rollout of such advanced technology presents challenges. Integrating the AI Scheduler with the diverse systems already employed by business aviation operators requires meticulous coordination. Ensuring compliance with regulatory standards remains a critical priority. Furthermore, some pilots and crew members may resist transitioning from traditional scheduling methods to AI-driven solutions. Market observers are expected to focus on the platform’s potential to enhance operational efficiency and reduce costs. Competitors may respond by upgrading their own scheduling technologies or forming partnerships to incorporate AI capabilities, while also showcasing their advancements to maintain market relevance. Dr. Zhan’s extensive background in business aviation technology, including roles at CitationAir, Textron Aviation, and Wheels Up, has been instrumental in shaping Floating Fleet AI’s platform. As the industry continues to embrace digital transformation, the company’s debut at NBAA-BACE will be closely monitored by operators and competitors alike.

Maintenance Manager Denise Buklis on Career Fit in Aviation A Non-Traditional Path to Aviation Denise Buklis, a licensed aircraft maintenance engineer and senior maintenance manager in business aviation, has forged a distinguished career marked by both technical expertise and leadership. Unlike many in the sector, Buklis’ passion for aviation was sparked not by family tradition but through childhood visits to air shows and airports with her father. These early experiences ignited a curiosity that would eventually guide her professional journey. Initially pursuing language studies at university, she soon recognized that her true interests lay elsewhere. Choosing to leave university, Buklis began working toward her private pilot’s license, an endeavor curtailed by financial constraints but one that deepened her commitment to the field. “Once you enter aviation, you just cannot exit,” she reflects. Seeking a more hands-on role, Buklis enrolled in an Aircraft Maintenance Technology program at a local college, leveraging her background as a volunteer firefighter to embrace the challenges ahead. As one of only five women in a class of ninety, she earned her aircraft maintenance engineer license in Canada in 2000. Her early career included positions at several commercial airlines, a milestone she regards as a proud achievement. Later, Buklis transitioned to business aviation, attracted by the prospect of better work-life balance while continuing to take on management and technical support responsibilities. Despite the shift, she acknowledges the persistent demands of the industry, including irregular hours and the need to operate across multiple time zones. “Finding balance in aviation is always a challenge,” she notes, “It’s about managing the workload in a sustainable way.” Leadership and Industry Challenges Buklis’ leadership approach is characterized by collaboration, support, and decisiveness under pressure. She emphasizes the importance of open communication and setting clear expectations, drawing inspiration from senior leaders who earned respect by working alongside their teams rather than directing from a distance. “Good leaders don’t just direct from above—they work alongside their team and set the standard through their actions,” she explains. Her commitment to leadership was recognized in 2018 when she was appointed to Bombardier’s Technical Support Advisory Board, a role she held for seven years. Navigating a male-dominated industry has presented ongoing challenges. Buklis candidly acknowledges the need to continually prove herself and cultivate the confidence to speak up. This environment demands resilience and, at times, a thicker skin, but she views these obstacles as opportunities to increase visibility and open doors for others, particularly women aspiring to enter the field. Her insights come at a critical time for the aviation industry, which faces a looming workforce crisis. A projected shortage of 4,000 air traffic controllers over the next two decades—driven by mandatory retirements, pandemic-related training disruptions, and the departure of experienced personnel—has intensified calls for clearer career pathways and stronger engagement with youth organizations to attract new talent. Concurrently, maintenance providers are adapting to persistent supply chain challenges and expanding strategic partnerships, such as ADE’s collaboration with Air France to support AirAsia Group’s A321neo fleet, to sustain operational efficiency. Through her leadership and advocacy, Denise Buklis remains dedicated to empowering the next generation of aviation professionals, particularly young women, while addressing the evolving demands of the industry’s workforce.

Piper Seminole DX Receives First U.S. Order Skyborne Airline Academy Leads Adoption of New Diesel-Powered Trainer Piper Aircraft has secured its first U.S. order for the Seminole DX, a new diesel-powered multi-engine trainer that represents a significant advancement in flight training technology. Skyborne Airline Academy, based at Vero Beach Airport in Florida, has committed to purchasing five Seminole DX aircraft following the model’s launch in July 2025. This order establishes Skyborne as the inaugural domestic operator to incorporate the Seminole DX into its training fleet. The Seminole DX is equipped with DeltaHawk’s DHK4A180 compression-ignition engine and Garmin G1000 NXi avionics, delivering modernized flight systems alongside enhanced operational efficiency. Piper highlights that the aircraft achieves a 35 percent reduction in fuel consumption compared to traditional avgas-powered trainers, while also offering a 32 percent improvement in single-engine climb rate and a 70 percent increase in single-engine service ceiling. These performance gains address both cost-effectiveness and sustainability, reflecting growing priorities within the aviation sector. Industry Trends and Strategic Implications Skyborne’s decision to integrate the Seminole DX underscores a broader industry movement toward energy-efficient and environmentally sustainable training solutions. Ron Gunnarson, Piper’s vice president of sales, marketing, customer support, and quality, emphasized that Skyborne’s adoption demonstrates a forward-looking commitment to excellence in flight training. Lee Woodward, CEO of Skyborne, noted that the new aircraft will be instrumental in maintaining the academy’s high standards as it expands its presence in the U.S. market. The introduction of the Seminole DX coincides with heightened attention to energy consumption and sustainability across industries, including aviation. Recent concerns about grid reliability, particularly warnings from PJM Interconnection regarding the impact of large data centers, have intensified focus on reducing energy use. In this context, aircraft that offer lower fuel burn and reduced environmental impact are gaining prominence among manufacturers and training organizations alike. Piper’s existing portfolio includes other single-engine diesel models such as the Archer DX and DXL, which cater to entry-level personal and training markets. The arrival of the Seminole DX in the U.S. is expected to prompt competitors to enhance their offerings as demand grows for aircraft that balance performance with sustainability. Skyborne’s established partnership with Piper and its commitment to innovative, eco-conscious designs position the academy at the forefront of evolving flight training standards. As interest in efficient and environmentally responsible aircraft continues to rise, the Seminole DX’s entry into the U.S. market is poised to influence both competitive dynamics and the broader adoption of next-generation training platforms.

Joby Aviation Unveils Electric Air Taxi at California International Airshow Joby Aviation recently presented its all-electric air taxi at the California International Airshow in Salinas, marking a pivotal advancement toward the commercial deployment of urban air mobility services. Over the course of the weekend, the company conducted three round-trip demonstration flights between Marina and Salinas airports. These flights showcased the aircraft’s ability to take off vertically, transition smoothly into cruise mode, and return using the same procedures. Spectators witnessed the air taxi performing steep climbs and precise hovering maneuvers, underscoring its agility and operational proficiency. Demonstrations and Strategic Progress The Salinas demonstrations form part of Joby’s comprehensive strategy to validate the reliability and performance of its aircraft ahead of the Federal Aviation Administration’s (FAA) type inspection authorization flight testing, anticipated early next year. These public flights follow a series of similar demonstrations conducted in partnership with All Nippon Airways (ANA) in Osaka, Japan, which are scheduled to continue through October 2025. A critical aspect of Joby’s development focuses on noise reduction, a key consideration for urban deployment. Attendees at the airshow experienced the aircraft’s sound levels firsthand, reinforcing Joby’s assertion that its design operates significantly quieter than traditional helicopters. JoeBen Bevirt, Joby’s founder and CEO, remarked on the significance of the event: “We’ve had the privilege of flying in places like Japan and Dubai this year, but seeing our aircraft fly at home on the Central Coast and sharing it with our neighbours was truly special. Experiencing the aircraft up close shows just how quiet it is, and that gives a real sense of the future of flight we’re building.” Joby reports having accumulated over 40,000 miles in urban air mobility trials worldwide, including previous demonstrations in Dubai, South Korea, and New York City. The company intends to maintain engagement with industry stakeholders and the public, with its next major appearance planned for the Dubai Airshow in November 2025. Challenges and Market Dynamics Despite these technological strides, Joby faces considerable challenges on the path to commercialisation. Regulatory approval remains a significant hurdle, with the FAA’s certification process still ongoing. The competitive landscape is intensifying, with other electric vertical takeoff and landing (eVTOL) developers, such as Archer Aviation, also conducting public demonstration flights. Additionally, a trial program initiated by the Trump administration aims to expedite approvals for electric air taxis, potentially accelerating competition within the sector. Market responses to Joby’s progress have been varied. Investors are closely monitoring the prospects for ride-sharing revenue and government contracts, while public acceptance of electric air taxis continues to evolve. Meanwhile, developers are actively securing landing sites in major urban centers, including Los Angeles, in preparation for future service rollouts. In a strategic move to bolster its market position, Joby recently agreed to acquire Blade Air Mobility’s urban air passenger business. This acquisition is expected to strengthen Joby’s foothold in the emerging electric air taxi market. As Joby and its competitors advance, the race to introduce electric air taxis into urban airspace is intensifying, with regulatory, technical, and public acceptance challenges yet to be fully addressed.

Aviation Minister Naidu Defends Integrity of AAIB Investigation into Air India Flight 171 Crash Civil Aviation Minister K Ram Mohan Naidu on Tuesday reaffirmed the thoroughness and independence of the ongoing investigation into the Air India flight AI 171 crash. His remarks came in response to criticism from pilot associations and the family of one of the pilots involved in the tragedy. Minister Naidu emphasized that the Aircraft Accident Investigation Bureau (AAIB) is conducting a “clean and very thorough” inquiry, strictly following established protocols and regulations. “There is no manipulation, or dirty business happening in the investigation,” Naidu asserted. He underscored that the process is being carried out with full adherence to the rules and pledged that this commitment to transparency and rigor would be maintained throughout. The minister further described the AAIB’s approach as “thorough, transparent, and independent,” urging the public and stakeholders to withhold judgment until the final report is published. He cautioned against premature conclusions based on the preliminary findings, noting that the bureau requires additional time to complete its work. Controversies Surrounding the Preliminary Report and Legal Actions The AAIB’s preliminary report, issued a month after the June 12 crash of the Air India Boeing 787-8 in Ahmedabad, has been met with significant scrutiny, particularly from pilot groups. The report was widely interpreted as attributing primary responsibility for the crash—which claimed 260 lives—to pilot actions. In response, the Federation of Indian Pilots (FIP) formally requested a judicial investigation through a court of inquiry, describing the AAIB’s probe as “untenable.” The FIP cited concerns over alleged selective leaks and actions that they believe have compromised the investigation’s impartiality and integrity. Concerns were also voiced by Pushkar Raj Sabharwal, father of Sumeet Sabharwal, one of the pilots aboard the ill-fated flight. He criticized the preliminary report and media speculation, especially regarding his son’s mental health and theories suggesting pilot suicide. Sabharwal described the report as “deficient, diversionary and discrepant.” He also objected to an unsolicited visit by AAIB officials, who, according to him, made damaging insinuations based on selective interpretations of cockpit voice recorder data. These insinuations suggested deliberate pilot action in moving the engine fuel control switches to the CUTOFF position after takeoff. Amid these disputes, families of four passengers who perished in the crash have initiated a lawsuit in the United States against Boeing and Honeywell, alleging negligence and defective fuel switches. The lawsuit claims that the locking mechanism for the fuel switch on the Boeing 787-8 Dreamliner could be inadvertently turned off, resulting in a loss of fuel supply and thrust during takeoff. However, the U.S. Federal Aviation Administration has stated that these switches do not appear to have caused the accident. The AAIB’s preliminary report also noted that Air India had not conducted recommended inspections on the fuel switches. The Indian Supreme Court has also intervened, criticizing the handling of the crash’s aftermath as “irresponsible.” As the investigation proceeds, Minister Naidu reiterated the government’s commitment to a transparent process and called for patience until the AAIB’s final report is released.

Advancing the Future of Hold Baggage Screening As global air travel anticipates a doubling of passenger traffic by 2040, airports face increasing pressure to overhaul hold baggage screening (HBS) systems. This transformation is driven by the need to address operational demands alongside a rapidly evolving threat landscape. The intersection of rising passenger volumes, sophisticated security threats, and shifting regulatory requirements is prompting a strategic move toward more resilient, efficient, and adaptable security frameworks. Evolving Threats and Regulatory Demands The threats confronting aviation security have grown more complex. Security professionals must now contend not only with conventional explosives but also with sophisticated homemade explosives (HMEs), non-traditional weapons, and advanced concealment methods. Richard Thompson, Vice-President of Portfolio, Innovation and Digital at Smiths Detection, explains that criminal organizations actively study detection techniques to develop countermeasures. He notes that baggage threats have evolved from standardized explosives to improvised materials and sophisticated concealment strategies that exploit the limitations of current systems. In response, regulatory standards are advancing to keep pace with these emerging threats. The transition from ECAC Standard 3.1 to 3.2 exemplifies this shift, demanding technology capable of detecting a wider array of explosive threats. Christoph Oftring of the BEUMER Group emphasizes that ECAC Standard 3.2 sets the highest benchmark for explosive detection in passenger hold baggage. Susanne Kruppa, Senior Product Manager for Hold Baggage Screening at Smiths Detection, adds that the new standards reflect the increasing diversity and complexity of explosive threats, particularly with the rise of HMEs in liquid and powder forms. She stresses that detection technology must move beyond traditional density-based screening to effectively address these challenges. Structural Transformation and Technological Innovation The evolving threat environment and regulatory landscape are accelerating significant changes within HBS operations. Airports are transitioning from isolated screening points to fully integrated, intelligent networks that offer a comprehensive view of security processes. This networked ecosystem approach enhances coordination and responsiveness across the entire baggage handling system. Artificial intelligence (AI) and machine learning are playing a pivotal role in this transformation. These technologies automate threat recognition, reduce operator workload through alarm-only viewing, and facilitate predictive maintenance, thereby improving both efficiency and reliability. The International Remote Baggage Screening (IRBS) pilot program exemplifies this shift toward advanced technological integration. The program requires close collaboration between U.S. Customs and Border Protection (CBP) and the Transportation Security Administration (TSA), underscoring the operational complexities involved in deploying sophisticated screening solutions across agencies and international borders. Addressing Safety and Operational Challenges Operational reliability remains a critical concern in the high-volume, automated environment of hold baggage screening. Any downtime caused by bag jams or system failures can lead to significant disruptions and financial losses. Additionally, the Federal Aviation Administration (FAA) has recently issued warnings regarding the fire risks associated with lithium battery-powered devices in checked baggage. This development highlights the necessity for enhanced safety protocols and clear passenger communication to mitigate fire hazards, adding further complexity to the screening process. Industry Response and the Path Forward In response to these challenges, industry players are adopting initiatives aimed at streamlining baggage handling and enhancing the passenger experience while proactively addressing emerging safety concerns. As airports prepare for substantial growth over the next decade, the integration of advanced detection technologies, networked systems, and AI-driven analytics will be crucial. These innovations will help build a security ecosystem that is not only compliant with evolving regulations but also resilient and adaptable to future threats. The future of hold baggage screening hinges on the industry’s capacity to innovate, collaborate, and respond swiftly to regulatory demands and shifting threat dynamics, thereby safeguarding the efficiency and security of global air travel.

Veryon AIRE Introduces AI to Enhance Fleet Aviation Maintenance Veryon, a prominent provider of aviation information services and software, has launched Veryon AIRE, an advanced AI-powered data intelligence platform designed to improve aircraft reliability, availability, and maintenance efficiency. By integrating generative artificial intelligence across its product suite, Veryon aims to establish a new benchmark in predictive maintenance and operational uptime for fleet operators worldwide. Transforming Maintenance Through AI Veryon AIRE harnesses the industry’s largest de-identified dataset, sophisticated data science techniques, and decades of aviation expertise to deliver three primary capabilities: conversational intelligence, predictive analytics, and decision support. These features enable operators to convert unscheduled maintenance events into more predictable, scheduled interventions, thereby reducing costly downtime and maximizing aircraft operational time. Kris Volrath, Senior Vice President of Product at Veryon, emphasized the company’s longstanding commitment to AI in aviation. He stated, “For more than 15 years, Veryon has been applying AI to aviation problems, and the introduction of Veryon AIRE brings all our capabilities and expertise together to unify and power our portfolio. By combining the power of artificial intelligence with our all-in-one maintenance platform, we’re delivering a next-generation solution that helps our customers reduce costly downtime and maximize time in the air.” Core Features and Product Integration Veryon AIRE offers several key functionalities aimed at enhancing maintenance processes. The platform recommends likely solutions to improve first-time fix rates and allows technicians to query publication-specific information, streamlining troubleshooting efforts. It automates routine tasks, reduces maintenance expenses, and optimizes inventory management. Additionally, the platform facilitates early detection of chronic failure patterns, rogue components, and short-life parts, helping to prevent unexpected aircraft-on-ground (AOG) events. The platform underpins multiple products within Veryon’s portfolio. Veryon Diagnostics serves as an advanced analytics engine, mining logbook data and aircraft manuals to provide insights such as global versus operator fix rates, quick troubleshooting references, and detailed defect histories. Veryon Tracking offers a conversational AI interface that enables operators to interact directly with maintenance and inventory data, monitor aircraft status, manage inventory, and maintain continuous compliance. Veryon Publications enhances technical documentation with conversational AI, simplifying access to and interpretation of complex information for technicians. Industry Challenges and Competitive Landscape While the adoption of AI in fleet maintenance promises substantial benefits, it also introduces challenges. Integrating AI systems with existing maintenance workflows, ensuring data accuracy and reliability, and managing the transition for maintenance personnel remain significant hurdles. Industry observers note that traditional maintenance providers may respond with skepticism, concerned about potential disruptions to established business models. In turn, competitors are expected to accelerate their own AI investments or pursue partnerships to incorporate similar technologies. Recent industry data highlights the urgency of embracing AI, demonstrating its growing role in predicting parts failures and optimizing repair schedules. Companies that delay AI adoption risk falling behind in operational efficiency and reliability. With the launch of Veryon AIRE, the company positions itself at the forefront of this technological transformation, aiming to deliver smarter, safer, and more efficient fleet maintenance solutions for the aviation sector.

ADB SAFEGATE Introduces AI Technology to Enhance Airside Operations Advancing Airport Efficiency and Safety through Artificial Intelligence ADB SAFEGATE has unveiled its latest innovation, AI: Airside Intelligence, an artificial intelligence platform designed to significantly improve safety, efficiency, and sustainability in airport airside operations. By harnessing real-time Internet of Things (IoT) data, machine learning, and predictive analytics, the platform offers airport operators, airlines, and ground handlers critical decision support and actionable insights during key operational moments. The platform’s capabilities include predictive maintenance, which anticipates equipment failures before they occur, potentially reducing downtime by up to 30 percent. Additionally, AI: Airside Intelligence optimizes apron management by streamlining turnaround sequencing, thereby minimizing delays and lowering fuel consumption. Safety is further enhanced through AI-assisted docking and foreign object detection tools that centralize apron management, facilitating smoother operations and more informed decision-making. Thorben Burghardt, Chief Technology Officer at ADB SAFEGATE, emphasized the company’s commitment to innovation, stating, “As airports evolve, we must create the technology that supports them. AI: Airside Intelligence embodies our commitment to delivering dependable, adaptable solutions that drive smarter, better performance—now and into the future. By connecting data and empowering teams, we’re helping optimize airside operations from approach to take-off.” Market Context and Implementation Challenges The launch of AI: Airside Intelligence coincides with a period of rapid growth in the global airport automation market, driven by increasing passenger volumes—particularly in Southeast Asia—and the widespread adoption of biometric technologies and self-service kiosks. Airports worldwide are actively seeking advanced technological solutions to enhance operational efficiency and reduce costs, positioning AI-driven platforms like ADB SAFEGATE’s as highly attractive options. Despite its potential, the deployment of such advanced AI systems presents several challenges. Integrating new technologies with existing airport infrastructure can be complex, requiring careful coordination and technical expertise. Ensuring robust data security remains a paramount concern, given the sensitive nature of operational information. Furthermore, navigating the diverse regulatory environments across different countries may complicate efforts to achieve broad adoption. Industry analysts suggest that the introduction of AI: Airside Intelligence may prompt competitors to accelerate their own AI development initiatives or pursue strategic partnerships to incorporate similar technologies. As the airport automation sector continues to expand, competition to deliver smarter and more efficient airside operations is expected to intensify. With this new platform, ADB SAFEGATE positions itself at the forefront of technological transformation in aviation, aiming to support airports worldwide as they adapt to the demands of a rapidly evolving industry.

Global Analysis of the Aviation Power Supply Market The aviation power supply market is set to experience significant growth over the coming decade, with its value expected to rise from USD 2,673.7 million in 2025 to USD 4,879.3 million by 2035. This expansion corresponds to a compound annual growth rate (CAGR) of 6.2%, driven by increasing demand for advanced avionics, heightened aircraft production, and continuous technological advancements in power supply systems. Market Drivers and Regional Dynamics The market’s growth is primarily propelled by the adoption of energy-efficient power solutions, as airlines and manufacturers seek to comply with operational and regulatory requirements. The modernization of both commercial and military aircraft fleets has intensified the need for reliable and upgraded power supplies. Additionally, stricter safety regulations imposed by aviation authorities have accelerated the replacement and enhancement of existing power systems. Within the market, DC power supplies dominate, accounting for approximately 45% of the total share. Geographically, the Asia-Pacific region, North America, and Europe emerge as the principal growth hubs, reflecting robust aircraft manufacturing activities and ongoing fleet modernization efforts in these areas. Market Performance and Forecast Year-over-year analysis indicates consistent and steady growth with limited volatility. The smallest annual increase is anticipated in 2026, when the market is projected to grow by USD 165.8 million, reaching USD 2,839.5 million—a 6.2% increase from the previous year. This steady upward trend is expected to continue, with the market expanding to USD 3,015.5 million in 2027 and USD 3,202.5 million in 2028. Between 2029 and 2032, growth rates are forecast to remain stable, fluctuating between 6.1% and 6.3%. During this period, the market is projected to increase from USD 3,401.1 million in 2029 to USD 4,073.7 million in 2032, reflecting widespread adoption and replacement of legacy power systems. The most substantial absolute growth is expected between 2034 and 2035, with an increase of USD 284.8 million, largely driven by the integration of advanced power systems in next-generation aircraft. Competitive Landscape and Strategic Initiatives The market features several prominent players, including Crane Aerospace & Electronics, Advanced Conversion Technology, Vicor Corporation, Viable Power Conversion Technologies Inc., Aegis Power Systems, Levon Aviation, DSC Power Solutions, BC Systems, White Lightning - Aviation Ground Power, Tianjin Hangyuan Technology Development Co., Ltd., Acsoon EIE, Shanghai Yuhang Industrial Co., Ltd., and Tianjin Ruiyi Electronics Co., Ltd. In response to evolving market conditions, these companies are increasingly engaging in collaborations to foster innovation and broaden their market presence. Competitive pricing strategies are also being employed to sustain and enhance market share amid intensifying competition. Challenges and Industry Responses Despite the optimistic outlook, the sector faces several challenges. Regulatory compliance remains complex and demanding, requiring manufacturers and suppliers to navigate evolving standards. Rapid technological advancements necessitate continuous investment in research and development to maintain competitiveness. Furthermore, global supply chain disruptions pose risks to production schedules and cost management. To mitigate these challenges, industry participants are intensifying investments in sustainable technologies and shifting focus towards greener alternatives, including hybrid-electric and fully electric propulsion systems. Outlook The aviation power supply market is poised for sustained growth, underpinned by strong industry fundamentals such as increasing air travel demand, ongoing fleet modernization, and regulatory emphasis on performance efficiency. With no anticipated periods of stagnation or decline, the market demonstrates resilience and adaptability, positioning itself for continued expansion through 2035.

Kyndryl Unveils AI-Driven Cloud Platform to Revolutionize Aviation Operations **New York, October 7, 2025** – Kyndryl (NYSE: KD), a global leader in enterprise technology services, has introduced its Aviation Industry Cloud Solution, an advanced AI-powered platform aimed at transforming airline operations and enhancing both customer and workforce experiences. Developed in partnership with Google Cloud, the solution is designed to modernize core airline systems, optimize data utilization, and facilitate digital transformation across the wider travel ecosystem, including travel agencies, tourism boards, and cruise lines. Enhancing Operational Efficiency and Customer Engagement The Aviation Industry Cloud Solution integrates Kyndryl’s expertise in agentic AI with Google Cloud’s robust data analytics capabilities to provide airlines with secure, real-time access to critical operational insights. This connectivity spans essential business functions such as finance, human resources, reservations, and retail, enabling carriers to improve operational efficiency and deliver more personalized customer interactions. Azi Handley, Vice President of Global Strategic Alliances at Kyndryl, emphasized the platform’s potential to modernize airline systems and accelerate digital transformation, stating, “Our new AI-powered solution will enable airlines to deliver personalized experiences to travelers and enhance flight operations.” By converting extensive travel data into actionable intelligence, the platform supports airlines in innovating and maintaining competitiveness. It incorporates built-in tools designed to expedite deployment and mitigate risks, allowing airlines to explore new growth opportunities while ensuring operational reliability. Challenges and Industry Perspectives Despite its promise, the integration of AI-powered cloud solutions within the aviation sector presents notable challenges. Airlines must navigate the complexities of merging advanced AI technologies with existing legacy systems, comply with stringent regulatory requirements, and meet the industry’s demand for real-time data processing. Market responses have been varied; while early adopters anticipate significant operational gains, some traditional industry players remain cautious about adopting new technologies. In response, competitors are expected to enhance their AI capabilities or pursue strategic partnerships as the aviation industry increasingly relies on specialized consulting firms to address growth and sustainability challenges. Industry leaders acknowledge the transformative potential of AI in aviation. Sérgio Ribeiro, Digital & Technology Services Senior Director at TAP Air Portugal, remarked on the sector’s digital evolution: “I see many companies investing in digital transformation and exploring how AI can reshape their businesses. At Kyndryl, I see a strong commitment to investing in people, partners, and technology—a combination I believe can support organizations on their AI journey.” Building Resilience Through Advanced AI Frameworks Kyndryl’s enhanced Agentic AI Framework offers airlines a secure and scalable model for deploying intelligent AI agents, supporting future applications across travel, business discovery, and customer-facing digital experiences. By facilitating the modernization of mission-critical systems, Kyndryl aims to help the aviation industry build long-term resilience and foster sustainable growth. About Kyndryl Kyndryl (NYSE: KD) is the world’s largest IT infrastructure services provider, delivering advisory, implementation, and managed services to thousands of customers across more than 60 countries. The company specializes in designing, building, managing, and modernizing complex information systems that support daily operations worldwide. For further information, visit www.kyndryl.com.