Training & Certification
FAA Issues New Guidance on Spatial Disorientation Training for Pilots
FAA releases InFO 26003 recommending comprehensive spatial disorientation training for pilots after NTSB’s 2020 Calabasas crash investigation.
This article is based on an official guidance document from the Federal Aviation Administration (FAA).
On January 22, 2026, the Federal Aviation Administration (FAA) released Information for Operators (InFO) 26003, a new advisory document titled “Spatial Disorientation (SD) Training for Pilots.” This guidance formally recommends that operators conducting flights under Title 14 of the Code of Federal Regulations (14 CFR) Parts 91, 91K, and 135 adopt comprehensive theoretical and practical training specifically designed to combat spatial disorientation.
The release of InFO 26003 marks a significant regulatory step addressing safety recommendations that arose from the investigation into a high-profile 2020 helicopter accident. By targeting General Aviation, Fractional Ownership, and On-Demand operations, the FAA aims to reduce the prevalence of accidents caused by physiological illusions in flight.
The new guidance is a direct response to National Transportation Safety Board (NTSB) Safety Recommendation A-21-006. This recommendation was issued following the NTSB’s investigation into the tragic helicopter crash on January 26, 2020, in Calabasas, California, which resulted in nine fatalities, including basketball legend Kobe Bryant.
According to the FAA’s document, the NTSB identified spatial disorientation as a primary contributing factor in that accident. Spatial disorientation occurs when a pilot’s perception of direction, altitude, or speed conflicts with reality, typically caused by a loss of visual references, such as flying into fog or clouds, combined with conflicting signals from the inner ear (vestibular system).
Following the NTSB’s directive to evaluate simulation technologies and training methods, the FAA convened the Spatial Disorientation Training Workgroup (SDT WG). The recommendations developed by this group were adopted in May 2023 and have now been formalized in the 2026 InFO release.
The FAA is advising operators to move beyond current baseline guidelines. InFO 26003 outlines a robust framework that combines theoretical knowledge with practical application. The agency emphasizes that SD is a physiological inevitability under certain conditions rather than a reflection of a pilot’s skill level.
The guidance suggests that ground school curriculums should focus heavily on the physiological systems involved in orientation, specifically the vestibular, visual, and proprioceptive systems. The goal is to educate pilots on the mechanisms that cause disorientation so they can intellectually understand why they must trust aircraft instruments over their own senses. The FAA recommends three primary methods for practical training:
“The FAA notes that approximately 80% of all aviation accidents involve human factors, with spatial disorientation being a persistent and deadly subset of these errors.”
FAA InFO 26003 Summary
The advisory distinguishes between two critical training approaches necessary for a complete safety program:
Scenario-Based Training (SBT) exposes pilots to realistic, unexpected operational environments where disorientation is likely to strike. This method helps pilots build practical decision-making skills in real-time.
Maneuver-Based Training (MBT) isolates specific events in a controlled setting. This allows pilots to experience the physiological onset of SD and practice specific recovery strategies without the immediate threat of an accident.
While InFO 26003 is voluntary for Part 91, 91K, and 135 operators, its release signals a shift in how the industry views instrument proficiency. Historically, instrument training focused on the technical ability to manipulate controls by reference to gauges. This new guidance suggests that technical proficiency is insufficient without a deep physiological understanding of why the body lies to the brain during flight. By formalizing these recommendations six years after the Calabasas tragedy, the FAA is acknowledging that standard instrument ratings may not fully prepare pilots for the sensory conflicts inherent in inadvertent flight into instrument meteorological conditions (IIMC).
Sources: FAA InFO 26003
FAA Issues New Guidance on Spatial Disorientation Training Following NTSB Recommendations
Background: The Legacy of the Calabasas Crash
Comprehensive Training Recommendations
Theoretical and Ground Training
Practical Application: Simulation and Flight
Scenario-Based vs. Maneuver-Based Training
AirPro News Analysis
Sources
Photo Credit: AOPA
Training & Certification
Cantor Air Adds Three Tecnam P2006T NG Aircraft to Training Fleet
Cantor Air enhances its flight training with three Tecnam P2006T NG aircraft featuring Rotax engines and Garmin G1000 NXi avionics at Valbrembo Airport, Italy.
This article is based on an official press release from Tecnam.
Italian flight training organization Cantor Air has officially expanded its training capabilities by acquiring three new Tecnam P2006T NG (Next Generation) twin-engine Commercial-Aircraft. Confirmed on February 19, 2026, this acquisition marks a strategic move to align the academy’s multi-engine curriculum with modern airline operational standards.
According to the official announcement from Tecnam, the deal includes three firm Orders with options for additional units. The new aircraft will be based at Cantor Air’s headquarters at Valbrembo Airport near Bergamo, Italy. The purchase is designed to streamline the transition for cadets moving from single-engine training to complex multi-engine operations, utilizing a consistent Avionics platform across the fleet.
The P2006T NG is the latest iteration of Tecnam’s certified twin-engine aircraft, which the Manufacturers describes as the lightest in its class. This “Next Generation” model introduces over 300 improvements compared to the previous P2006T MkII, focusing on pilot accessibility, payload, and avionics integration.
Key technical specifications highlighted in the release include:
Tecnam emphasizes the aircraft’s efficiency, noting that the Rotax engines consume approximately 14 liters (3.7 US gallons) per hour per engine. This fuel economy allows for a reduction in CO2 emissions of up to 60% compared to legacy competitors, aligning with the aviation industry’s broader push toward Sustainability.
Cantor Air’s decision to acquire the P2006T NG is driven by a desire for fleet consistency. The academy already operates Tecnam P2008JC and P2010 TDI aircraft, both of which utilize the Garmin G1000 NXi avionics suite. By maintaining the same flight deck technology across single and multi-engine platforms, the school aims to reduce the learning curve for students.
Capt. Roberto Magnani, Head of Training at Cantor Air, explained the operational logic behind the purchase in a statement provided by Tecnam:
“The acquisition of the new Tecnam P2006T NG aircraft will undoubtedly bring innovation and, above all, continuity with the decisions made two years ago… Today our students will continue the IFR and CPL phases started on the P2010 TDI… moving on to the brand-new P2006T NG while maintaining the same avionics platform.”
, Capt. Roberto Magnani, Head of Training at Cantor Air
The inclusion of the FMS keypad is particularly relevant for Competency-Based Training (CBT). It allows cadets to practice complex data entry workflows similar to those found in commercial airliners like the Boeing 737 or Airbus A320, bridging the gap between ab-initio training and type ratings.
Francesco Sferra, Tecnam’s Sales and Business Development Manager, commented on the partnership:
“We are proud to see Cantor Air confirm their trust in Tecnam… By moving from the P2010 TDI to the P2006T NG, Cantor Air is offering its students a logical, modern, and sustainable progression that perfectly prepares them for the professional aviation environment.”
, Francesco Sferra, Tecnam Sales and Business Development Manager
The shift toward “glass cockpit” standardization is a dominant trend in modern flight training. By standardizing on the Garmin G1000 NXi, schools like Cantor Air reduce the cognitive load on students, allowing them to focus on airmanship and procedures rather than relearning avionics interfaces. Furthermore, the pressure on European flight schools to reduce noise and emissions makes the Rotax-powered P2006T NG an attractive option for operations near populated areas like Bergamo.
What is the primary advantage of the P2006T NG over previous models? Why is fleet consistency important for flight schools? What engines does the P2006T NG use?
Cantor Air Modernizes Fleet with Three New Tecnam P2006T NG Aircraft
Enhancing the Multi-Engine Curriculum
Strategic Fleet Integration
AirPro News Analysis
Frequently Asked Questions
The NG model features over 300 improvements, including a higher Maximum Take-Off Weight (1,290 kg), a dedicated co-pilot door, and advanced avionics integration with an FMS keypad.
Using the same avionics suite (in this case, Garmin G1000 NXi) across different aircraft types allows students to transfer their skills seamlessly from basic to advanced training without needing to learn new instrument layouts.
It is powered by two Rotax 912 iSc3 fuel-injected engines, known for their fuel efficiency and ability to run on both Avgas and Mogas.
Sources
Photo Credit: Tecnam
Training & Certification
Airbus and Loft Dynamics Launch VR Training for H125 Helicopter
Airbus and Loft Dynamics introduce a VR pilot training system for the H125 helicopter with EASA and FAA approvals, enhancing safety and reducing costs.
This article is based on an official press release from Airbus.
On February 19, 2026, Airbus Helicopters officially highlighted the operational success and expansion of its Virtual Reality (VR) pilot training program for the H125 helicopter. Developed in partnership with the Swiss technology firm Loft Dynamics, the system is now fully operational at the manufacturer’s headquarters in Marignane, France. According to the company, this simulator represents a significant shift in aviation instruction, functioning not merely as a training aid but as a regulatory-approved Flight Simulation Training Device (FSTD).
The new system addresses long-standing industry challenges, including pilot shortages and the high costs associated with traditional training methods. By utilizing this technology, pilots can now log flight hours and perform proficiency checks (LPC/OPC) without ever leaving the ground, a capability previously reserved for massive, full-motion dome simulators.
The core of the H125 training program is a high-fidelity system that combines a 3D stereoscopic headset with a dynamic six-degrees-of-freedom (6-DoF) motion platform. Airbus states that the headset provides a 360-degree view, allowing pilots to look down and around naturally, a critical requirement for vertical reference operations like sling loading.
Unlike generic VR setups, this device features a full-scale replica of the H125 cockpit, complete with authentic flight controls and avionics. Airbus engineers have verified the flight model to ensure it is indistinguishable from the actual aircraft. This integration allows the simulator to replicate the physical and visual sensations of flight with near-perfect accuracy.
A major aspect of this announcement involves the regulatory qualifications achieved by the device. According to Airbus and Loft Dynamics, the system has secured approval from major aviation authorities:
Fabi Riesen, CEO of Loft Dynamics, emphasized the significance of these approvals in the company’s statement:
“Level 7 [qualification] now extends that foundation… embedding FAA-approved VR at the university level as a new blueprint for training pilots. This milestone shows what’s possible when the entire aviation ecosystem… comes together.”
The primary operational benefit of the VR simulator is the ability to practice high-risk scenarios that are too dangerous to attempt in a real helicopter. Airbus notes that the system supports advanced recurrent training modules for conditions such as instrument meteorological conditions (IMC), engine failures, and whiteout or brownout landings.
Yann Guérin, Head of Pilot Training at Airbus Helicopters, described the impact on instruction: “The training is much more consistent and efficient. Instructors are able to demonstrate and assist their trainees… ultimately, the goal is enhanced professionalism and mission proficiency.”
In addition to safety, the system offers substantial efficiency gains. The simulator is approximately one-tenth the size of a traditional full-flight simulator, allowing it to be installed directly at customer bases or smaller flight schools. Furthermore, data provided by the partnership indicates the cost is approximately one-twentieth of a traditional Full Flight Simulator (FFS), drastically lowering the barrier to entry for operators.
The deployment of the H125 VR simulator signals a democratization of safety standards in the vertical lift industry. Historically, “airline-grade” simulation, where pilots can type-rate without touching the actual aircraft, was financially restricted to large transport category aircraft. Single-engine helicopter operators often relied on training in the actual aircraft, which carries inherent risks, particularly during emergency procedure practice.
By securing FAA Level 7 and EASA Level 3 qualifications, Airbus and Loft Dynamics are effectively ending the “real steel” era, where the industry believed that physical flight was the only valid method for developing muscle memory. This shift is likely to have profound implications for high-risk sectors such as air ambulance and law enforcement, where the ability to practice fatal scenarios like tail rotor failure in a zero-risk environment could save lives.
Looking ahead, Airbus has confirmed that the partnership with Loft Dynamics will expand beyond the single-engine market. The companies are currently developing a similar VR training device for the twin-engine H145, which is expected to enter service later in 2026. This expansion suggests a broader strategy to integrate VR simulation across the manufacturer’s entire light and medium helicopter fleet.
Beyond the Cockpit: Airbus and Loft Dynamics Revolutionize H125 Training with VR
Immersive Technology and Realistic Flight Physics
Regulatory Milestones
Enhancing Safety and Efficiency
AirPro News Analysis
Future Developments
Sources
Photo Credit: Airbus
Training & Certification
Boeing 777-9 Simulators Gain FAA and EASA Initial Qualification
Boeing’s 777-9 pilot training simulators in Gatwick receive Initial Qualification from FAA and EASA, enabling courseware validation for 2027 entry.
This article is based on an official press release from Boeing.
In a significant step forward for the delayed 777X program, Boeing announced on February 19, 2026, that it has received “Initial Qualification” for its 777-9 pilot training devices. Both the U.S. Federal Aviation Administration (FAA) and the European Union Aviation Safety Agency (EASA) have granted approval for the simulators located at the company’s training campus in Gatwick, United Kingdom.
This regulatory milestone allows Boeing to proceed with validating the training courseware, the syllabus and manuals, that will eventually be used to train airline pilots. According to the manufacturer, this step is a prerequisite for the aircraft’s entry into service, ensuring that a qualified pool of pilots will be ready once the jet receives its final type certification.
The “Initial Qualification” designation applies to the hardware and software of the training devices rather than the pilot training program itself. By securing this approval, Boeing has demonstrated to regulators that the simulators accurately replicate the performance and flight characteristics of the 777-9.
The approved devices at the Gatwick campus include a Full-Flight Simulator (FFS) and a Flight Training Device (FTD). The FFS provides a high-fidelity, motion-based environment that mimics the physical sensations of flight, while the FTD serves as a fixed-base trainer for systems and procedural learning.
Capt. Gary Mandy, Boeing’s 777X Chief Technical Pilot, emphasized the importance of this validation in the company’s official statement:
“Securing these approvals is an important step as we prepare for the start of flight training. Pilots will benefit from an immersive training experience that will help ensure our customers’ operational readiness for the 777-9.”
The simulators were manufactured by CAE, a global leader in aviation training technology. The devices feature specific controls unique to the 777X family, including mechanisms for the aircraft’s folding wingtips, a design necessity allowing the massive jet to fit at standard airport gates, as well as large-format touchscreen displays and dual Head-Up Displays (HUD).
Alexandre Prevost, President of Civil Aviation at CAE, noted in the press release that the qualification represents the culmination of a “multi-year effort” between the two companies. This announcement comes as Boeing works to stabilize the timeline for the 777X, which is currently targeted for entry into service in 2027. The program has faced significant hurdles, including delays related to the GE9X engines and, more recently, structural component issues that paused flight testing in 2024 and 2025.
By securing simulator approval now, Boeing is engaging in parallel processing. While the physical aircraft completes its rigorous certification campaign, the training infrastructure is being finalized simultaneously. Once regulators validate the courseware using these approved devices, customer pilot training can officially commence.
Chris Broom, Vice President of Commercial Training Solutions at Boeing Global Services, stated:
“The qualification of these training devices underscores our commitment to delivering high-quality training solutions that meet the needs of global airline customers and regulators.”
The approval of these simulators is more than a bureaucratic checkbox; it is a signal that the regulatory logjam surrounding the 777X is beginning to clear. Following the intense scrutiny of the 737 MAX certification, regulators like the FAA and EASA have adopted far stricter standards for validating human factors and training protocols. The fact that both agencies have signed off on the hardware suggests that Boeing’s data regarding the aircraft’s flight laws and handling characteristics is maturing to a level regulators trust.
Furthermore, the decision to house these initial devices in Gatwick, UK, rather than solely in the United States, highlights the global nature of the 777X order book. With major customers like Emirates, Qatar Airways, and Lufthansa eagerly awaiting delivery, having a validated training hub in the European/Atlantic region positions Boeing to accelerate pilot readiness for its largest international buyers as the 2027 delivery target approaches.
Does this mean airlines can start training pilots today? Where are these simulators located? When is the 777-9 expected to enter service?
Boeing 777-9 Simulators Secure Critical Regulatory Approval from FAA and EASA
Validating the Hardware Before the Pilots
Collaboration with CAE
Program Context and Timeline
AirPro News analysis
Frequently Asked Questions
No. “Initial Qualification” validates the simulator hardware. Regulators must now use these devices to fly and approve the training syllabus (courseware). Only after the courseware is approved can airline pilots begin their type rating training.
The approved devices are located at Boeing’s training campus in Gatwick, United Kingdom.
Based on current industry targets and Boeing’s projections, the aircraft is scheduled to enter service in 2027.Sources
Photo Credit: Boeing
-
Defense & Military6 days agoSaudi Ministry of Interior Awards Aerial Contract to Thrush Aircraft and AAT
-
Defense & Military7 days agoLockheed Martin and USAF Demonstrate Autonomous Missile Evasion on X-62A
-
Regulations & Safety12 hours agoFAA Revokes Starflite Aviation Certificate Over Falsified Records
-
Technology & Innovation5 days agoAirbus Validates Wake Energy Retrieval in Transatlantic Flight Trials
-
Defense & Military6 days agoKratos and GE Aerospace Win USAF Contract for GEK1500 Drone Engine
