Business Aviation
Collins Aerospace Expands FlightAware AeroAPI Historical Flight Data
Collins Aerospace enhances FlightAware AeroAPI with over a decade of flight data, boosting aviation analytics and operational efficiency.

A New Era of Aviation Intelligence: Collins Aerospace Supercharges FlightAware AeroAPI®
In the world of aviation, data is the bedrock of decision-making. From optimizing flight paths to managing ground resources, every action is informed by a complex web of information. The quality, depth, and accessibility of this data directly impact operational efficiency, safety, and commercial success. For years, industry professionals have relied on powerful tools to navigate this landscape, and Collins Aerospace, a division of RTX, has been a key player in providing these solutions. Their FlightAware platform stands as a cornerstone of modern flight tracking and data provision.
The announcement on October 15, 2025, marks a significant evolution in this field. Collins Aerospace has rolled out a major upgrade to its FlightAware AeroAPI®, a move that fundamentally expands the historical scope of available flight data. This isn’t just an incremental update; it’s a paradigm shift that grants users access to a much deeper well of information. By extending the data archive back more than a decade, the company is equipping its clients, ranging from airlines and airports to corporate flight departments, with the tools to uncover long-term trends, refine predictive models, and make more informed strategic decisions. This enhancement underscores a broader industry trend: the increasing reliance on big data to navigate the complexities of modern aviation.
This development is poised to have a ripple effect across the business and corporate aviation sectors. Access to comprehensive historical data empowers organizations to move beyond reactive problem-solving and adopt a more proactive, analytical approach. It allows for a granular examination of past performance, not just over the last quarter or year, but over a period that encompasses significant global events and market shifts. The ability to analyze over a decade of flight information provides a powerful lens through which to view operational patterns, competitive landscapes, and resource allocation, ultimately fostering a more resilient and efficient aviation ecosystem.
Unpacking the Upgrade: More Data, Deeper Insights
The core of the announcement is the massive expansion of the historical data accessible through the FlightAware AeroAPI®. Previously, users were working with a more limited timeframe. Now, the floodgates have opened to a comprehensive dataset stretching back to January 2011. This enhancement provides a complete flight history for any airport, airline operator, or city pair, offering an unprecedented level of depth for analysis. It transforms the API from a tool for near-term analysis into a powerful resource for long-range strategic planning and historical research.
This wealth of information allows for a much richer understanding of aviation trends. Analysts can now track the evolution of flight routes, study the impact of economic cycles on air travel, and assess the long-term performance of specific aircraft or operators. For an airline planning a new route, for example, the ability to analyze over ten years of seasonal demand and competitor activity between two cities is invaluable. It moves the decision-making process from one based on recent data to one informed by a deep historical context, reducing risk and improving the likelihood of success.
The upgrade is not merely about the volume of data, but also its usability. Collins Aerospace has focused on making this vast repository of information both intuitive and accessible. The AeroAPI® features advanced filtering options and clear data categorization, which simplifies the process of querying the database. This means users can perform both broad, high-level trend analysis and highly specific, granular searches with equal ease. Whether a user needs to understand macro-level shifts in trans-Atlantic traffic or pinpoint the on-time performance of a single flight number over several years, the upgraded API is designed to deliver the required insights efficiently.
The Practical Impact on Aviation Operations
For operators and flight departments, particularly in the corporate and business aviation sectors, this expanded dataset has immediate, tangible applications. Flight planning, for instance, can be significantly enhanced. By analyzing historical weather patterns, air traffic congestion, and airport performance data over a decade, planners can create more reliable and efficient routes. This leads to fuel savings, reduced delays, and an overall improvement in service quality. The ability to look back at how operations were affected by past events provides a critical advantage in preparing for future disruptions.
Resource management and maintenance scheduling are also set to benefit. An airport authority can analyze long-term traffic flows to better predict peak times and allocate ground staff, security personnel, and gate resources more effectively. Similarly, an airline can use historical data on aircraft usage and flight hours to develop more precise and proactive maintenance schedules. This data-driven approach helps prevent unexpected downtime, extends the life of assets, and ensures that maintenance activities are aligned with operational demand, minimizing disruptions to the flight schedule.
“In corporate and business aviation, there are few things more critical to our customers’ success than timely, accurate and actionable data. The expansive historical information now available through the FlightAware AeroAPI solution provides users the resources and tools needed to improve performance, efficiency and preparedness throughout their operations.” – Nicole White, Vice President and General Manager of Connected Aviation at Collins Aerospace
Furthermore, the upgrade provides a powerful tool for competitive analysis. Companies can now benchmark their performance against competitors over a much longer period, identifying strategic advantages and areas for improvement. A business aviation provider can analyze market share on key routes, track the fleet deployment of rivals, and understand shifting customer preferences. This level of insight is crucial for developing effective business strategies and maintaining a competitive edge in a dynamic market. The enhanced AeroAPI® effectively provides the raw material for a more sophisticated and data-informed approach to business intelligence.
The Broader Context: Big Data’s Ascent in Aerospace
The enhancement of the FlightAware AeroAPI® is a reflection of a larger movement within the aerospace industry. The era of “big data” is fully underway, and aviation is one of the sectors where its impact is most profound. Modern aircraft generate vast amounts of data, and when combined with information from air traffic control, weather systems, and airport operations, it creates a rich and complex digital tapestry. The challenge, and the opportunity, lies in harnessing this data to generate actionable insights that drive efficiency, safety, and innovation.
Collins Aerospace, backed by the formidable resources of its parent company RTX, is positioning itself at the forefront of this data revolution. RTX, with its reported sales of over $80 billion in 2024 and a global workforce exceeding 185,000, has the scale and expertise to make significant investments in data infrastructure and analytics. This upgrade is a clear signal of their commitment to providing the industry with the tools needed to leverage data effectively. It moves beyond simply collecting information to providing curated, accessible, and historically deep datasets that can fuel advanced analytics and machine learning models.
The future of aviation will likely be defined by how well companies can integrate and interpret data from disparate sources. The ability to analyze over a decade of flight data can provide deep insights into long-term trends, seasonal patterns, and the impact of major events on aviation operations. This historical perspective is crucial for building robust predictive models that can anticipate future challenges and opportunities. As the industry continues to evolve, platforms like the enhanced AeroAPI® will become increasingly essential, forming the analytical backbone of a smarter, more connected, and more efficient global aviation network.
Conclusion: A Clearer View of the Skies
The upgrade to the FlightAware AeroAPI® by Collins Aerospace is more than just a product enhancement; it is a significant contribution to the aviation industry’s analytical capabilities. By providing access to over a decade of historical flight data, the company is empowering its customers to unlock deeper insights, refine their operations, and build more resilient strategies. The combination of a vast dataset with an intuitive, user-friendly interface ensures that this power is accessible to a wide range of users, from data scientists to operational planners.
As we look to the future, the role of data in aviation is only set to grow. This move by Collins Aerospace sets a new benchmark for data accessibility and highlights the increasing importance of historical context in strategic decision-making. It represents a crucial step toward a future where the aviation industry can more effectively leverage its collective history to navigate the challenges of tomorrow, ensuring that the skies become not only busier but also smarter and more efficient.
FAQ
Question: What is the main update to the FlightAware AeroAPI®?
Answer: The main update is the expansion of accessible historical flight data, which now dates back to January 2011. This provides users with over a decade of comprehensive flight histories for any airport, airline, or city pair.
Question: Who are the primary beneficiaries of this upgrade?
Answer: The enhanced API is designed primarily for operators, flight departments, and technology providers in the corporate and business aviation sectors, though it has applications for a wide range of industry stakeholders.
Question: How does access to more historical data help improve aviation operations?
Answer: It allows for better flight planning, more efficient resource management, proactive maintenance scheduling, and deeper competitive analyses by enabling the study of long-term trends, seasonal patterns, and the impact of past events.
Sources
Photo Credit: RTX
Business Aviation
Gulfstream G500 and G600 Fleet Reaches 400th Delivery
Gulfstream delivers its 400th combined G500 and G600 aircraft to an Asia-Pacific customer, marking 519,000+ fleet flight hours.

Gulfstream Aerospace Corp. has handed over the 400th aircraft from its combined G500 and G600 fleet to a customer in the Asia-Pacific region, a milestone that highlights ongoing global demand for the manufacturer’s large-cabin business jets. The aircraft was outfitted at Gulfstream’s facility in St. Louis, Missouri, prior to delivery.
In a press release issued on July 20, 2026, the Savannah, Georgia-based company confirmed the delivery and detailed the operational maturity of the two aircraft types. The milestone arrives 20 months after Gulfstream announced the 300th delivery of the G500 and G600 in November 2024.
Operational maturity and speed records
Since entering service, the combined G500 and G600 fleet has accumulated more than 519,000 flight hours and surpassed 200,000 total landings. The aircraft feature the Gulfstream Symmetry Flight Deck and the Gulfstream Cabin Experience, which the company credits with driving continued customer interest.
The G500 and G600 program has established a significant track record for speed, achieving over 190 city-pair speed records. Gulfstream aircraft hold 815 city-pair speed records overall. Both the G500 and G600 have a maximum operating speed of Mach 0.925.
The manufacturer highlighted a recent record-setting flight by a G600 to illustrate the fleet’s capabilities. The aircraft flew from Sapporo, Japan, to Savannah, Georgia, covering a distance of 5,835 nautical miles (10,806 kilometers). The flight was completed in 11 hours and 38 minutes at an average cruise speed of Mach 0.88.
“Reaching 400 deliveries is a testament to the confidence customers around the world continue to place in Gulfstream and in the G500 and G600,” said Mark Burns, president of Gulfstream Aerospace Corp. “Together, these aircraft have fueled sustained demand for our next-generation fleet and play a pivotal role in Gulfstream’s vision to offer an aircraft for every mission.”
Regulatory approvals expand operational scope
The 400th delivery follows a series of regulatory developments for the G500 and G600 earlier in 2026. On January 12, 202
Photo Credit: Gulfstream
Business Aviation
Pilatus PC-24 Adds Gogo Galileo LEO Broadband Connectivity
Pilatus Aircraft offers Gogo Galileo LEO internet on the PC-24 with FAA and EASA certification for new builds and retrofits.

Pilatus Aircraft has introduced Gogo Galileo high-speed internet as a factory-installed option for the Pilatus PC-24, bringing low-latency broadband connectivity to the light jet platform.
In a press release issued on July 1, 2026, the manufacturers confirmed the integration utilizes the Eutelsat OneWeb Low Earth Orbit (LEO) satellite network to provide global coverage capable of supporting video conferencing, media streaming, and cloud-based services. The system has received certification from both the Federal Aviation Administration (FAA) and the European Union Aviation Safety Agency (EASA), making it available for new production aircraft as well as retrofits for the in-service fleet.
Lufthansa Technik entertainment integration and cabin upgrades
Alongside the connectivity upgrade, Pilatus detailed a new integrated cabin management and entertainment system developed in partnership with Lufthansa Technik. The system features a 10-inch touchscreen display that allows passengers to control cabin functions and access media directly from their seats.
The audio experience has also been upgraded as part of the new package. The configuration includes four cabin loudspeakers paired with a subwoofer. To maximize cabin comfort and flexibility, Pilatus introduced a side-facing divan option measuring nearly 2 meters in length, expanding the seating and resting configurations available to PC-24 operators.
Expanding LEO connectivity across the Pilatus fleet
The PC-24 announcement follows recent connectivity advancements for the manufacturer’s turboprop line. On June 16, 2026, SD Government and Pro Star Aviation secured an FAA Supplemental Type Certificate (STC) for the installation of the Gogo Galileo HDX system on the Pilatus PC-12.
This earlier approval marked the first LEO satellite connectivity option for the single-engine PC-12. The sequential rollout indicates a broader push to equip the Pilatus product line with modern, high-speed satellite internet capabilities regardless of aircraft class.
AirPro News analysis
We view the integration of LEO satellite networks like Eutelsat OneWeb into light jets and turboprops as a critical shift in business aviation expectations. Historically, high-speed, low-latency internet was restricted to midsize and large-cabin business jets due to the size, weight, and power requirements of traditional geostationary satellite antennas. The smaller form factor of Gogo Galileo hardware allows manufacturers like Pilatus to offer heavy-jet connectivity standards on platforms like the PC-24 and PC-12 without compromising payload or aerodynamic efficiency. As LEO networks mature, factory-installed broadband is rapidly transitioning from a premium upgrade to a baseline requirement for new business aircraft.
Sources: Pilatus Aircraft
Photo Credit: Pilatus Aircraft
Business Aviation
Hybrid-Electric Propulsion for Long-Range Business Jets
NBAA-highlighted research shows hybrid-electric systems could cut emissions on large-cabin bizjets, with certification gaps remaining.

This article summarizes reporting by the National Business Aviation Association.
A peer-reviewed study highlighted by the National Business Aviation Association (NBAA) in its July/August 2026 publication indicates that parallel hybrid-electric propulsion systems could deliver substantial emissions reductions for large-cabin business jets in the near term. The research challenges the prevailing industry assumption that Electric-Aviation technologies are strictly limited to short-range or light aircraft applications.
Authored by Piper Aircraft structural design engineer Ambar Sarup, the paper explores the engineering hurdles of integrating hybrid-electric propulsion (HEP) into long-range platforms. Sarup began the research at the University of Illinois in 2022 by modeling HEP applications for a Gulfstream GV, later expanding the scope to provide a generic framework for the business aviation sector.
Bridging the energy density gap
The primary technical barrier to electrified long-range flight remains the stark difference in energy density between traditional aviation fuel and current battery technology. According to Dr. Jeff Belt, an aircraft battery consultant with Electrochem Technologies LLC, Jet A fuel provides approximately 12,000 watt-hours per kilogram (Wh/kg). The most advanced battery cells currently available offer between 300 and 400 Wh/kg.
Belt noted that battery technology alone cannot currently impact long-distance flight. While Bloomberg data cited by Belt projects a 3 percent to 5 percent annual increase in battery specific energy, the performance gap necessitates a hybrid approach.
Sarup advocates for a parallel system where a conventional turbofan engine and electric motors assist one another. Because the turbofan handles the majority of the thrust requirements, the necessary electric components remain relatively small. The research models a 3,400-nautical-mile flight, such as a route from New York to London. If just 5 percent of the propulsion energy comes from a hybrid-electric system, the aircraft would save 1,900 pounds of fuel and eliminate 6,000 pounds of carbon emissions.
Ground operations and emerging market entrants
Beyond in-flight propulsion assistance, alternative operational concepts offer immediate efficiency gains. Belt proposed utilizing battery power exclusively for ground operations and taxiing. The aircraft would then recharge the batteries during flight and use electric power again after landing. This method requires only small electric motors and batteries that weigh slightly more than the fuel they replace.
The broader industry is already advancing similar concepts. France-based Beyond Aero completed a preliminary design review for a Hydrogen-electric business jet targeting an 800-nautical-mile range with a capacity of six to eight passengers. Concurrently, Boeing-backed startup Evio is developing a regional airliner that utilizes a hybrid-electric propulsion system from Pratt & Whitney Canada.
Navigating Certification frameworks
Hardware development is only part of the challenge. Both Sarup and Belt emphasized the critical need for established certification pathways from the Federal Aviation Administration (FAA) and the European Union Aviation Safety Agency (EASA).
The FAA issued harmonization document AC-21.17-4, which clarifies the regulatory status of electric aircraft components. While Technical Standard Orders (TSOs) exist for various electrical parts, the agency has not established a TSO specifically for propulsion batteries. Consequently, Manufacturers must certify these batteries as an integrated part of the aircraft rather than as standalone components.
Despite these regulatory and technical hurdles, Sarup remains optimistic about the scalability of the technology.
“I think the biggest misconception is that hybrid-electric propulsion is limited to smaller, shorter-range aircraft. That’s not true. We can get the range. We can get the speed. And we can get the performance to meet the needs of tomorrow’s long-range business aircraft,” Sarup stated.
AirPro News analysis
We view the transition toward parallel hybrid-electric systems as the most pragmatic stepping stone for business aviation sustainability. While fully electric long-haul flight remains constrained by the physics of battery energy density, utilizing electric motors to supplement turbofans during peak thrust demands or ground operations offers a realistic path to lower emissions. The lack of a dedicated FAA TSO for propulsion batteries will likely force original equipment manufacturers into complex, aircraft-level certification programs. This regulatory reality may dictate the pace of hybrid-electric adoption more than the underlying technology itself.
Photo Credit: Pratt & Whitney
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