This article is based on an official press release from Airbus.

2025 Flight Safety Statistics: Analyzing Accident Trends and Lithium Battery Risks

Introduction to 2025 Aviation Safety

The commercial aviation industry saw continued growth in 2025, safely transporting more than five billion passengers across the globe. According to an official press release from Airbus, air traffic reached an estimated 35.2 million flights last year, representing an increase from the nearly 34 million flights recorded in 2024.

Despite the rise in global air traffic, flying remains a highly secure mode of transportation. However, the evolving landscape of aviation requires continuous vigilance from all stakeholders. Airbus emphasized that managing safety risks effectively means meticulously analyzing the circumstances of every incident to develop actionable solutions for the entire aviation community.

As the industry looks ahead, the passenger traffic outlook for 2026 suggests a continuing rebound over the next two to three years. Airbus projects a trend toward a long-term annual growth rate of approximately 3.6%, which brings both increased risk exposure and a more complex operational environment.

2025 Accident Trends and Safety Culture

Hull Losses and Fatalities

In its recent safety review, Airbus reported that the past year recorded six accidents resulting in hull losses, three of which were fatal. This marks a shift from 2024, which saw four fatal accidents and twelve hull losses. While the overall accident rate remains low, the manufacturer noted that the recurring nature of these events underscores the need for enhanced safety measures.

Addressing the underlying causes of these accidents requires a combination of advanced technology, human vigilance, and teamwork. The emergence of new operators, novel types of operations, and evolving geopolitical threats all contribute to an increasingly complex operational environment.

“Fostering a positive safety culture based on open communication and strong safety leadership is essential to install, grow, and deploy effective safety measures across organisations,” stated Sophie Rougé, head of Safety Governance at Airbus.

The Growing Threat of Lithium Battery Fires

Managing Portable Electronic Devices

A significant safety concern highlighted in the Airbus press release is the proliferation of Portable Electronic Devices (PEDs) on commercial flights. With over five billion passengers flying in 2025, the commercial aviation network carried an estimated 20 to 25 billion PEDs.

The sheer volume of these devices elevates the risk of lithium battery fires, which Airbus describes as a serious safety threat demanding collective attention. Passengers are now an integral part of the safety equation, and the industry must work collaboratively to anticipate and mitigate these risks. Regulators such as the FAA and EASA, along with global organizations like ICAO and IATA, continually update their guidance to support stakeholders in managing this hazard.

AirPro News analysis

We observe that the reduction in total hull losses from twelve in 2024 to six in 2025 is a positive indicator for global aviation safety, even as total flight volumes increased. However, the ratio of fatal accidents to total hull losses shifted, reminding the industry that severe outcomes remain a persistent challenge.

Furthermore, the staggering estimate of up to 25 billion portable electronic devices entering aircraft cabins annually highlights a critical shift in cabin safety management. As passengers carry more lithium-ion powered devices, from smartphones to laptops and medical equipment, cabin crews will likely require enhanced training and specialized containment equipment to handle potential thermal runaway events mid-flight.

Frequently Asked Questions (FAQ)

How many commercial flights took place in 2025?

According to Airbus, air traffic reached an estimated 35.2 million flights in 2025, up from almost 34 million in 2024.

How many aviation accidents occurred in 2025?

The Airbus safety statistics report indicates there were six accidents resulting in hull losses in 2025, three of which were fatal.

Why are lithium batteries a concern for flight safety?

With an estimated 20 to 25 billion Portable Electronic Devices carried on flights in 2025, the sheer volume increases the risk of lithium battery fires, making it a serious safety threat that requires industry-wide mitigation.

Sources: Airbus

This article is based on an official preliminary report from the Belgian Air Accident Investigation Unit (AAIU).

SAS A320neo Narrowly Avoids Disaster in High-Speed Taxiway Takeoff Incident at Brussels Airport

On March 6, 2026, the Belgian Air Accident Investigation Unit (AAIU) released a preliminary report detailing a severe aviation incident that occurred at Brussels Airport (BRU). According to the official AAIU documentation, on the evening of February 5, 2026, a Scandinavian Airlines (SAS) Airbus A320neo mistakenly attempted to take off from a parallel taxiway instead of its assigned runway. The aircraft reached a high speed before the flight crew realized the error and executed an emergency rejected takeoff (RTO).

The AAIU has officially classified the event as a “Serious Incident” under ICAO Annex 13 due to the high probability of an accident. The aircraft, operating as Flight SK2590 to Copenhagen with 165 passengers and crew on board, narrowly avoided a catastrophic collision with temporary fences and nearby aviation fuel storage tanks. Fortunately, no injuries were reported, and passengers were safely transported back to the terminal.

We have reviewed the preliminary findings, which highlight a complex “Swiss cheese” alignment of environmental, technical, and human factors. The report emphasizes that multiple overlapping issues contributed to the crew’s loss of situational awareness, rather than a single point of failure.

The Sequence of Events: A High-Speed Near-Miss

Misalignment and Acceleration

According to the AAIU timeline, the incident unfolded between 21:00 and 21:04 local time. The flight crew was cleared to take off from Runway 07R via an intersection designated as C6, rather than utilizing the full length of the runway. Operating in total darkness, the crew mistook taxiway “Outer 10” for intersection C6 and subsequently aligned the Airbus A320neo with Taxiway E1, which runs parallel to the active runway.

The preliminary report states that the crew initiated the takeoff roll down the taxiway, accelerating rapidly. The aircraft reached an Indicated Airspeed (IAS) of 127 knots (approximately 146 mph). The AAIU notes that the critical “V1” speed, the velocity beyond which a takeoff can no longer be safely aborted, was calculated at 132 knots for this specific flight, placing the aircraft just 5 knots away from the point of no return.

The Critical Abort and Evasive Action

As the aircraft accelerated down Taxiway E1, the First Officer noticed that the forward visual perspective appeared unusually narrow and that the Captain was not responding to standard operating procedure callouts. Realizing the aircraft was not on the runway, the First Officer intervened.

“Stop, stop, stop, stop.”

, First Officer, SAS Flight SK2590, as recorded in the AAIU preliminary report.

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At 21:04:09, the Captain immediately aborted the takeoff by applying full reverse thrust and maximum braking. The AAIU report details that at the moment the abort was initiated, the aircraft had only about 520 meters (1,705 feet) of taxiway remaining before it would have collided with temporary fences. While still moving at roughly 40 knots, the First Officer instructed a right turn to avoid the approaching barriers. The aircraft came to a complete halt in just 14 seconds, stopping near the intersection of taxiways V1 and C1, mere meters from the runway guard lights and the airport’s fuel storage farm.

Contributing Factors Identified by Investigators

Environmental and Infrastructure Challenges

The AAIU preliminary report does not assign blame but rather identifies several contributing factors. Environmental conditions played a significant role; the incident occurred after civil twilight in total darkness. Furthermore, the runway and taxiway surfaces were wet, which the AAIU notes caused glare and made painted ground markings highly difficult to read.

Infrastructure and procedural elements also compounded the risk. The specific intersection is officially designated as a “hot spot”, an area with a known history or high risk of runway incursions. The AAIU report highlights that the illumination for a crucial intersection sign was inoperable at the time. Additionally, the red stop bar lights at the taxiway/runway intersection extinguished before the crew arrived at the holding point, depriving the pilots of a critical visual reference.

Equipment and Air Traffic Control Context

According to the investigation, the SAS Airbus A320neo was not equipped with optional safety software such as the Runway Awareness and Advisory System (RAAS), Airbus Runway Overrun Prevention System (ROPS), or Take-Off Surveillance 2 (TOS2). While aviation regulators do not currently mandate these systems, their absence is noted in the report as they are designed to provide auditory and visual alerts if a takeoff is attempted from a taxiway.

From an Air Traffic Control (ATC) perspective, the AAIU notes that the control tower supervisor had combined the ground and air frequencies. A single air traffic controller was managing both frequencies and dividing their attention among seven different aircraft. Following the report’s release, Belgium’s ATC agency, Skeyes, publicly stated that this staffing arrangement strictly adhered to existing safety guidelines for that time of night and emphasized their full cooperation with the investigation under a “Just Culture” framework.

AirPro News analysis

We note that this incident serves as a textbook example of the critical importance of modern Crew Resource Management (CRM). Historically, steep cockpit hierarchies often prevented junior First Officers from correcting senior Captains, sometimes with fatal results. In this instance, the First Officer’s immediate, assertive command directly prevented a disaster, demonstrating that modern CRM training is functioning exactly as intended.

Furthermore, the absence of systems like RAAS or TOS2 on the incident aircraft highlights an ongoing industry debate. While airlines are legally compliant without these systems, wrong-surface events remain a persistent threat in commercial aviation. As the AAIU continues its investigation, we anticipate that the final report may include safety recommendations urging broader adoption of these technological safety nets, especially for operations at complex airports during low-visibility conditions.

Frequently Asked Questions (FAQ)

Were there any injuries on SAS Flight SK2590?
No. According to the AAIU report, all 165 passengers and crew members were unharmed and safely transported back to the terminal via bus. The aircraft sustained only minor tire and landing gear damage due to high-speed braking.

How fast was the aircraft traveling before the abort?
The AAIU confirmed the aircraft reached 127 knots Indicated Airspeed (IAS) on the taxiway. The V1 speed (the speed at which takeoff must continue) was 132 knots.

When will the final investigation report be released?
The current AAIU report is strictly preliminary. A final report, which will include binding safety recommendations, is expected to be published in approximately one year, likely in early 2027.

Sources:
Belgian Air Accident Investigation Unit (AAIU) Preliminary Report: AAIU-2026-02-05-01

This article summarizes reporting by Yahoo News, Reuters and official findings from the South Korean Board of Audit and Inspection.

On March 10, 2026, South Korea’s Board of Audit and Inspection published a comprehensive report that fundamentally shifts the narrative surrounding the tragic December 2024 crash of Jeju Air Flight 2216. According to reporting by Yahoo News and the state auditor’s findings, severe regulatory negligence and cost-cutting measures by the transport ministry were decisive factors in the disaster’s high death toll. The crash at Muan International Airport claimed 179 lives, making it the deadliest aviation disaster in South Korean history.

While initial investigations heavily scrutinized the flight crew’s response to a bird strike, the newly released 300-page audit reveals that the Boeing 737-800 collided with a rigid concrete embankment that violated international safety standards. Government simulations now indicate the crash would likely have been survivable had the airport’s infrastructure complied with legally required frangibility guidelines.

The Findings of the State Auditor

Cost-Cutting and Falsified Documents

The state auditor’s report details systemic failures spanning more than two decades. According to the findings, the Ministry of Land, Infrastructure and Transport constructed a 2.4-meter (7.9-foot) rigid concrete embankment at the end of the Muan runway to house a localizer antenna. The audit concluded this structure was built specifically to avoid the financial costs associated with leveling the surrounding sloping terrain.

Under international aviation standards, structures within runway end safety areas must be designed to break apart easily upon impact, a standard known as frangibility. The rigid concrete wall at Muan directly violated these international guidelines. Furthermore, the audit revealed that for up to 22 years, officials falsified documents. Between 2008 and 2024, the transport ministry certified operating permits and approved inspections that erroneously claimed the structure was made of breakable materials.

The auditor also identified widespread infrastructure issues beyond Muan, noting 14 non-compliant localizer installations across eight South Korean Airports, including major hubs like Gimhae and Jeju.

Anatomy of the Flight 2216 Disaster

From Bird Strike to Catastrophe

Jeju Air Flight 2216 was traveling from Bangkok, Thailand, to Muan on December 29, 2024, when it suffered a bird strike during its approach, severely damaging the right engine. Preliminary investigations cited in the reports suggest the flight crew mistakenly shut down the operational left engine instead of the damaged one.

The pilots subsequently attempted an emergency belly landing without deployed landing gear. Data disclosed by the Aviation and Railway Accident Investigation Board in January 2026 showed the aircraft was traveling at approximately 374 km/h (232 mph) during the belly landing. It slid down the runway and struck the concrete embankment at 232 km/h. Investigators estimated that passengers experienced extreme forces between 40 and 60 times the force of gravity upon impact, after which the aircraft erupted into flames. Only two flight attendants, seated in the detached rear section, survived.

Survivability Simulations

A government-commissioned computer simulation provided a stark contrast to the tragic reality. The simulation revealed that if the aircraft had landed on flat ground without the concrete obstacle, it would have skidded for approximately 630 meters and safely come to a stop.

“The government has pledged to take strict follow-up measures, including removing the concrete embankment at Muan,”

according to the summarized reports, which noted that a frangible structure would have caused significantly less damage and likely allowed passengers to survive the initial impact.

Fallout and Legal Actions

Government Response and Boeing Lawsuits

In response to the audit, the Ministry of Land, Infrastructure and Transport stated it humbly accepted the findings and committed to rectifying similar non-compliant structures nationwide. The revelations follow a December 2025 parliamentary vote that launched an independent 18-member inquiry into the crash, spurred by victims’ families accusing the government of cover-ups and delays.

Additionally, in October 2025, families of the victims filed lawsuits against Boeing in Seattle and Illinois. The legal filings allege that outdated electrical and hydraulic systems in the Boeing 737-800 interfered with the aircraft’s landing capabilities following the initial bird strike.

AirPro News analysis

At AirPro News, we observe that the South Korean auditor’s report serves as a critical reminder of the Swiss cheese model of Accident causation. While the initial emergency was triggered by a bird strike and compounded by apparent crew error, the ultimate cause of the fatalities was rooted in long-standing bureaucratic negligence. The revelation that safety documents were falsified for over a decade severely damages the credibility of South Korea’s aviation oversight. This disaster will likely prompt international aviation bodies to mandate independent physical inspections of runway end safety areas globally, rather than relying solely on self-reported compliance documents.

Frequently Asked Questions

What caused the crash of Jeju Air Flight 2216?
The initial emergency was caused by a bird strike that damaged the right engine, followed by the crew mistakenly shutting down the operational left engine. However, the high fatality rate was attributed to the aircraft striking a non-compliant, rigid concrete embankment at the end of the runway during an emergency belly landing.

What is a frangible structure?
In aviation, a frangible structure is designed to break, yield, or shatter easily upon impact to minimize damage to an aircraft. International standards require structures in runway end safety areas to be frangible.

How many people survived the crash?
Out of 179 people on board, only two flight attendants survived. They were seated at the rear of the plane, which detached upon impact.

Sources: Yahoo News and Reuters, South Korean Board of Audit and Inspection, Aviation and Railway Accident Investigation Board.