Regulations & Safety
Airbus Issues Safety Warning on Non-Certified Cockpit Window Equipment
Airbus warns that non-certified mounts and sunshades on cockpit windows can cause overheating and damage, urging use of approved equipment.
This article is based on an official safety publication from Airbus.
In May 2026, Airbus issued a critical safety warning to aircraft operators and flight crews regarding the widespread use of non-certified equipment on cockpit windows. As the aviation industry has universally adopted Electronic Flight Bags (EFBs) such as iPads, pilots frequently rely on aftermarket suction-cup mounts to secure their devices. Additionally, it has become common practice for crews to purchase non-certified sunshades online to block glare and heat during long flights.
However, according to the recent Airbus safety publication, attaching these unapproved accessories directly to the inner surfaces of cockpit windows poses a severe, hidden risk. Investigations have revealed that these everyday items can act as thermal barriers. When combined with latent faults in the window’s built-in heating system, this thermal barrier effect can lead to severe overheating, structural distortion, and even the cracking of window plies mid-flight.
The warning was triggered by a specific in-flight incident involving an Commercial-Aircraft, which highlighted how a seemingly harmless consumer accessory can interact with complex aircraft systems to create a serious emergency. We have reviewed the technical findings provided by Airbus to understand the mechanics of this failure and the recommended operational guidelines for flight crews.
The Catalyst: An A320 Mid-Air Window Failure
To illustrate the danger of unapproved window attachments, Airbus detailed a recent event involving an A320 family aircraft in cruise flight. According to the Manufacturers report, the flight crew had attached a commercially purchased sunshade directly to the right sliding cockpit window.
During the flight, the crew received an ANTI ICE R WINDOW alert on the Electronic Centralized Aircraft Monitor (ECAM). Shortly after this alert was triggered, the right sliding window became noticeably hot and visibly distorted. Recognizing the potential structural threat, the crew initiated a descent and diverted the aircraft to a nearby airport.
As the aircraft passed through 1,000 feet on final approach, the crew reported hearing a loud crack emanating from the window. Fortunately, the aircraft landed safely without further incident. A post-flight inspection revealed severe damage to the right sliding window, and the aftermarket sunshade itself displayed visible heat damage.
Technical Breakdown: How Thermal Barriers Cause Damage
Commercial aircraft cockpit windows are highly engineered, fail-safe structures. According to Airbus, they typically consist of two structural plies, each capable of sustaining twice the maximum differential pressure of the aircraft, and a protective outer ply. While most Airbus aircraft utilize glass for side windows, the A320 family can feature side windows made of either glass or stretched acrylic. Furthermore, these windows are equipped with heating films regulated by active temperature sensors to provide essential anti-ice and anti-fog capabilities.
The “Shrink-Back” Effect in Acrylic Windows
When the damaged A320 window was sent to the manufacturer for a detailed investigation, engineers identified a two-part failure chain that led to the cracking. First, there was a latent system fault: the heating film adjacent to the window’s active temperature sensor was inoperative. This caused the system to incorrectly estimate the window’s overall temperature, prompting it to continuously heat the functional areas of the glass.
Second, the aftermarket sunshade created a thermal barrier. Normally, the inner side of the window is cooled naturally via the convection of cabin air. The sunshade trapped the heat against the acrylic. The combination of the faulty heating system and the thermal barrier caused the inner ply’s temperature to exceed the acrylic material’s glass transition temperature.
This resulted in “thermal relaxation” or a “shrink-back” effect, causing the inner ply to severely distort and crack.
Despite the severe damage to the inner ply, Airbus noted that the outer ply remained completely undamaged. This proved that the window’s fail-safe structural integrity was maintained, allowing the aircraft to land safely.
Risks to Glass Windows and Flight Controls
While glass windows do not suffer from the specific “shrink-back” effect seen in stretched acrylic, Airbus warns that thermal barriers still pose significant risks. Localized overheating can lead to bubbling of the window’s interlayer, which damages the heating system and impairs pilot visibility.
Beyond thermal damage, the physical presence of non-certified mounts introduces mechanical risks. Suction cups are prone to losing their grip due to aircraft vibrations or rapid temperature fluctuations. A falling tablet or heavy mount could obstruct flight controls, posing a critical danger during sensitive flight phases such as takeoff and landing. Furthermore, bulky mounts or shades can block access to emergency equipment, interfere with the deployment of oxygen masks, or impede the opening of sliding windows during an emergency evacuation.
Official Airbus Recommendations for Flight Crews
To mitigate these risks, Airbus and aviation safety experts have outlined strict operational guidelines for flight crews and operators. The primary directive is to universally avoid attaching any equipment, whether suction cups or sunshades, directly to the inner surface of cockpit windows.
Airbus also clarified a common misconception regarding solar radiation: pilots do not need aftermarket shades for UV protection. Both glass and acrylic cockpit windows are already manufactured to block the most dangerous Ultra-Violet (UV) radiation. Instead of aftermarket shades, crews are instructed to rely on the aircraft’s factory-installed sun visors and roller blinds. These built-in solutions are specifically designed to reduce glare while allowing sufficient natural cooling of the window surface.
For the use of Electronic Flight Bags, operators are urged to utilize certified cockpit mounts. Airbus offers EASA and FAA-approved mounts that attach directly to the window frame, rather than the glass. These certified solutions ensure they do not act as thermal barriers and are rigorously crash-tested to guarantee they will not interfere with emergency operations. Supplemental Type Certificate (STC) alternatives from third-party manufacturers are also available and approved by aviation authorities.
AirPro News analysis
This safety warning highlights a growing friction point in modern aviation: the rapid adoption of consumer technology versus the strict, slow-moving Certification processes required for aircraft safety. The iPad has revolutionized flight deck operations, replacing heavy paper manuals with lightweight, easily updated digital interfaces. However, the accessories used to support these consumer devices are often purchased outside of regulated aviation supply chains.
The A320 incident serves as a stark reminder that commercial aircraft are complex ecosystems where a seemingly isolated addition, like a plastic sunshade, can trigger a cascading failure in thermal management systems. At the same time, the incident is a testament to the resilience of modern aerospace engineering. Even when an operational error and a latent mechanical fault combined to melt and crack the inner window ply, the fail-safe design of the outer ply held firm, preventing a catastrophic depressurization event.
Frequently Asked Questions (FAQ)
Why do pilots use aftermarket sunshades in the cockpit?
Pilots often purchase aftermarket sunshades to block intense glare and heat during long flights, especially when flying directly into the sun. Some also mistakenly believe they need them for UV protection, though modern cockpit windows already block harmful UV rays.
Are cockpit windows safe if the inner ply cracks?
Yes. Commercial aircraft windows are designed with fail-safe redundancy. They typically feature two structural plies and an outer protective ply. If the inner ply fails, the remaining structural ply is engineered to sustain the aircraft’s maximum differential pressure, allowing for a safe landing.
What is the approved way to mount an iPad or EFB in the cockpit?
Aviation authorities and manufacturers like Airbus recommend using certified mounts that attach directly to the aircraft’s window frame or structural panels, rather than using suction cups on the glass. These approved mounts are crash-tested and designed not to interfere with thermal regulation or emergency equipment.
Sources: Airbus Safety First
Photo Credit: Airbus Safety First
Regulations & Safety
Bridger Aerospace Integrates TracPlus Data into IGNIS Platform
Bridger Aerospace partners with TracPlus to stream real-time wildfire aircraft data into its IGNIS incident management platform.
Bridger Aerospace Group Holdings, Inc. has partnered with aviation data provider TracPlus to integrate real-time aircraft tracking and drop event data directly into Bridger’s IGNIS software platform. Announced on July 20, 2026, the collaboration aims to provide wildland firefighters and incident management teams with a unified operational picture of aerial suppression efforts.
In a press release issued from its Belgrade, Montana headquarters, Bridger Aerospace stated the integration is designed to break down information silos between disparate systems. The move directly responds to recent federal directives, specifically the June 2025 Executive Order 14308, which mandated the modernization of wildfire firefighting technology and improved data sharing across agencies.
Integrating aviation intelligence for ground crews
TracPlus currently manages approximately 2,500 wildfire suppression Commercial-Aircraft and processes 800,000 flight hours annually for over 700 customers in more than 40 countries. Under the new partnership, this extensive aviation intelligence, including real-time aircraft positioning and specific drop event data, will stream directly into the IGNIS platform.
The integration allows ground crews, aviation teams, and incident managers to view exact aircraft operating locations and suppression activity impacts within the broader incident environment. By connecting these specialized platforms, the companies intend to shift aerial firefighting response from a reactive model to a proactive one.
“Trying to do everything yourself isn’t the best way in modern wildfire response,” said Todd O’Hara, CEO of TracPlus. “Our industry moves forward when specialists each perform what they do best and connect their work. By delivering our expertise in bringing aviation data together from every source and streaming it directly into the IGNIS platform, we are empowering the people on the frontline with a more complete operational picture to do their jobs better and help keep their communities safe.”
Aligning with federal modernization directives
The Partnerships aligns with the federal government’s ongoing push for connected, interoperable wildfire technology. In 2025, the White House Office of Science and Technology Policy called for a national roadmap to modernize firefighting technology and improve data sharing between systems under Executive Order 14308.
Bridger Aerospace CEO Sam Davis noted that the combined solution will enhance situational awareness for both the company’s own aerial firefighting operations and incident management teams nationwide.
“Technology is the new frontier in our mission to protect lives, property, and the environment and we just got stronger with TracPlus as a strategic partner,” Davis said.
The announcement follows Bridger Aerospace’s recent expansion in federal contracting, including a Department of the Interior task order secured on July 16, 2026, for the deployment of its multi-mission wildfire aircraft.
AirPro News analysis
We view the Bridger-TracPlus integration as a direct commercial response to the interoperability mandates outlined in Executive Order 14308. Historically, aerial firefighting has suffered from fragmented data, with ground crews, dispatchers, and pilots relying on separate, non-communicating systems. By embedding TracPlus’s massive data feed into the IGNIS platform, Bridger Aerospace is positioning its Software not just as an internal operational tool, but as a comprehensive incident management solution. This strategic alignment with federal modernization goals likely strengthens Bridger’s competitive posture for future government Contracts as agencies prioritize unified operating pictures.
Sources: Bridger Aerospace
Photo Credit: TracPlus
Regulations & Safety
AIAA Calls for Faster FAA Certification Path for AAM Aircraft
AIAA urges the FAA to adopt predictable AAM certification timelines as bipartisan legislation targets the 5-9 year type certificate process.
This article summarizes reporting by Aerospace America by Ryan Cooperman, J.D.
The American Institute of Aeronautics and Astronautics (AIAA) is calling for the Federal Aviation Administration (FAA) to establish a more predictable certification pathway for Advanced Air Mobility (AAM) aircraft, warning that regulatory uncertainty threatens United States aerospace leadership.
In a July 2, 2026, policy article published in Aerospace America, the AIAA outlined the critical balance between maintaining rigorous safety standards and fostering innovation. The publication notes that while traditional amended type certifications typically require three to five years, certifying entirely new aircraft types like AAM platforms currently takes five to nine years under existing FAA processes.
Legislative push for regulatory predictability
To address these extended timelines, bipartisan lawmakers introduced the Aviation Innovation and Global Competitiveness Act on February 13, 2026. The legislation seeks to mandate standard expected timelines for the FAA type certification process regarding AAM aircraft. It also aims to clarify the specific conditions under which the agency must require an issue paper, a regulatory step that often introduces variability into the certification timeline.
The AIAA has formally endorsed the legislation, aligning the bill with the institute’s designation of AAM and autonomous flight integration as a 2026 Aviation Priority Issue. According to Aerospace America, securing a predictable regulatory framework is vital not only for engineering progress but also for maintaining the capital investment required to bring hybrid and electric vertical takeoff and landing (eVTOL) aircraft to market.
Overcoming historical bottlenecks and workforce gaps
The push for modernization follows years of documented regulatory friction. On June 21, 2023, the Department of Transportation Office of Inspector General (DOT OIG) released a report indicating that communication and management issues had hindered the FAA’s ability to certify AAM aircraft efficiently. Congress subsequently passed the FAA Reauthorization Act of 2024 on May 16, 2024, which included specific provisions targeting AAM integration.
Beyond statutory changes, Aerospace America highlights that certification modernization is fundamentally a workforce challenge. As aircraft designs incorporate more autonomous flight systems, the FAA must attract and retain technical specialists, software engineers, and flight-test experts capable of evaluating highly complex architectures.
“The challenge is ensuring that America’s certification system can efficiently evaluate increasingly novel aircraft and enabling technologies while preserving the world’s safest aviation system,” Cooperman wrote.
AirPro News analysis
We view the AIAA’s public policy push as a reflection of broader aerospace industry frustration with the ad-hoc nature of early eVTOL certification bases. While the FAA has made strides since the 2023 DOT OIG report, the five to nine year timeline for new type certificates remains a significant barrier for manufacturers relying on continuous venture capital funding. If the Aviation Innovation and Global Competitiveness Act passes, the mandated timelines could provide financial markets with the predictability they require. However, the FAA will still face the practical hurdle of staffing enough specialized engineers to meet those statutory deadlines without compromising its safety mandate.
Sources: Aerospace America
Photo Credit: Aerospace America
Regulations & Safety
FAA Awards L3Harris Contract to Modernize US Airspace Through 2045
The FAA awarded L3Harris a contract to upgrade 700+ ground stations and operate the US aircraft tracking network through 2045.
On July 1, 2026, the Federal Aviation Administration (FAA) awarded L3Harris Technologies a contract to upgrade and operate the United States aircraft tracking network through 2045. The modernization effort will overhaul ground infrastructure to support the integration of advanced air mobility (AAM) vehicles and drones into the National Airspace System.
In a press release issued on July 1, 2026, L3Harris announced the agreement, which mandates the upgrade of at least 700 ground stations across the country. The enhanced network will provide real-time, satellite-based flight positioning data while bolstering cybersecurity measures to protect air traffic management systems. The exact monetary value of the contract was not disclosed.
Expanding surveillance for next-generation airspace
The contract extends the role of L3Harris in managing the FAA surveillance infrastructure for nearly two more decades. The upgraded ground stations are designed to handle increased network capacity, a requirement as the airspace becomes more crowded with non-traditional aircraft.
Kathy Crandall, President of Mission Networks, Space & Mission Systems at L3Harris, emphasized the operational impact of the upgrades.
“L3Harris is propelling the FAA’s modernization vision forward by delivering an advanced surveillance infrastructure that will define the future of our airspace system and ensure increased safety for all air travelers.”
Crandall added that expanding network capacity ensures the United States maintains its position in global air traffic management.
Alignment with broader FAA modernization initiatives
This surveillance contract aligns with ongoing FAA efforts to replace aging infrastructure across the National Airspace System. The agency has been executing its Facility Replacement and Radar Modernization (FRRM) strategy, which targets the replacement of over 370 air traffic control facilities and 618 radars that average 36 years of age.
L3Harris is already involved in parallel infrastructure projects for the FAA. The company is currently executing the FAA Telecommunications Infrastructure (FTI) upgrade. That project replaces legacy copper wire connections with high-speed fiber optic networks across FAA facilities, providing the bandwidth necessary to support emerging aviation technologies like electric aviation vertical takeoff and landing (eVTOL) aircraft and uncrewed aerial systems.
AirPro News analysis
The extension of the L3Harris mandate through 2045 highlights the reliance of the FAA on established defense and aerospace contractors to execute its long-term modernization goals. As the National Airspace System transitions to accommodate AAM and widespread drone operations, the data bandwidth and latency requirements for air traffic control will increase exponentially. We view the concurrent execution of the surveillance network upgrade and the FTI fiber optic rollout as a necessary synchronization. Without high-speed ground data transmission, the benefits of satellite-based, real-time tracking for low-altitude and autonomous aircraft would be severely bottlenecked.
Sources: L3Harris Technologies
Photo Credit: L3Harris Technologies
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