This article is based on an official press release from Vertical Aerospace.

Vertical Aerospace has announced the operational launch of its automated battery pilot production line at the Vertical Energy Centre (VEC). This marks a significant step toward the certification and commercialization of the company’s electric aviation technology.

According to the company’s press release, the upgraded facility will support the assembly of battery packs for its upcoming Valo certification aircraft. The move aligns with Vertical’s broader strategy to maintain in-house control over core powertrain technologies while preparing for commercial production, which is currently targeted for 2028.

We note that this development highlights the growing emphasis electric vertical takeoff and landing (eVTOL) manufacturers are placing on vertical integration for critical components, particularly high-performance battery systems that dictate flight capabilities and safety standards.

Upgrading the Vertical Energy Centre

The original 15,000-square-foot Vertical Energy Centre, which opened in 2023, has been instrumental in producing battery systems for the company’s piloted flight testing since 2024. The official press release states that these proprietary batteries have already demonstrated peak power outputs of up to 1.4 megawatts during flight tests.

Now, the facility has been upgraded with automated, aerospace-grade manufacturing processes. Vertical Aerospace notes that these enhancements are designed to improve efficiency, consistency, and overall battery performance as the company moves toward regulatory approval.

Supporting the Valo Certification Fleet

The newly operational pilot line will be tasked with building the final battery packs for seven Valo certification aircraft. These aircraft are critical to Vertical’s certification program with the UK Civil Aviation Authority (CAA) and the European Union Aviation Safety Agency (EASA).

Furthermore, the company stated that this pilot line will provide the necessary capacity for the initial phase of commercial production following certification.

“Bringing our automated battery production line online is a defining step in our journey toward certification and commercialisation,” said Stuart Simpson, CEO of Vertical Aerospace, in the press release.

Simpson added in the release that investing early in aerospace-grade battery manufacturing helps the company reduce integration risks and strengthen supply chain control.

Commercial Strategy and Recurring Revenue

While Vertical Aerospace partners with tier-one aerospace suppliers such as Honeywell, Aciturri, and Syensqo for various aspects of aircraft development, the battery system remains a core in-house technology. The press release emphasizes that this proprietary system will power both the fully electric Valo eVTOL and the company’s hybrid-electric aircraft program.

Beyond initial aircraft sales, Vertical anticipates that battery replacements will generate significant recurring revenue. The company expects to supply approximately 20 battery packs per aircraft over its operational lifespan. By 2035, Vertical projects it will have supplied up to 45,000 battery packs across its operational fleet.

Expanding Manufacturing and UK Footprint

The Upcoming VEC2 Facility

To meet anticipated demand, Vertical is already planning further expansion. A new 30,000-square-foot facility, dubbed Vertical Energy Centre 2 (VEC2), is expected to open later this year adjacent to the current site.

According to the company, VEC2 will serve as a powertrain hub and is projected to triple battery production capacity. By 2027, Vertical expects its total investment across both the VEC and VEC2 facilities to reach £6.4 million ($8.5 million).

Job Creation and Future Production Sites

Vertical currently employs approximately 450 people, primarily in the South West of England. As manufacturing scales, the company projects that the number of highly skilled jobs within its manufacturing ecosystem will rise to at least 2,220 by 2035.

The location for Vertical’s full-rate production and battery facilities has not yet been finalized. The press release indicates that locations both within the UK and internationally are under consideration, with a final decision expected later this year.

AirPro News analysis

We view Vertical’s decision to keep battery development and production in-house as a strategic differentiator in the competitive eVTOL market. While relying on established tier-one suppliers for avionics and aerostructures reduces development risk, controlling the battery technology allows Vertical to directly manage the most critical performance variable in electric aviation: energy density and power output.

The projection of 20 battery packs per aircraft over its lifecycle underscores the intensive wear-and-tear eVTOL batteries will endure, highlighting a lucrative aftermarket revenue stream that could stabilize long-term financials for manufacturers that successfully own their battery intellectual property.

Frequently Asked Questions

When does Vertical Aerospace expect to begin commercial production?
According to the company’s press release, the first phase of commercial production following certification is targeted for 2028.

How much power do Vertical’s proprietary batteries generate?
The company reports that its batteries have delivered up to 1.4 megawatts of peak power during flight testing.

What is the Vertical Energy Centre 2 (VEC2)?
VEC2 is a planned 30,000-square-foot powertrain hub expected to open later this year, which Vertical says will triple its battery production capacity.

Sources

• Vertical Aerospace Press Release

This article is based on an official press release from Indra Group.

In a significant step toward modernizing European ground operations, technology firm Indra has partnered with Synaptic Aviation to deploy an AI-driven monitoring system across Spain’s busiest aviation hubs. The initiative targets aircraft turnaround processes at Adolfo Suárez Madrid-Barajas, Josep Tarradellas Barcelona-El Prat, and Palma de Mallorca Airports.

According to an official press release from Indra Group, the new digital system utilizes advanced video analytics to oversee aircraft rotation before takeoff. By automating the tracking of apron activities, the technology aims to enhance operational predictability, reduce environmental impact, and improve the overall passenger experience.

The three airports, all managed by Spanish airport operator Aena, collectively handle over 150 million passengers annually and feature approximately 477 aircraft parking positions. We note that implementing AI at this scale represents a major commitment to digitalizing ground handling and maximizing existing infrastructure capacity.

AI-Driven Apron Operations

Real-Time Video Analytics

The core of the new deployment relies on real-time video streams captured by cameras positioned near boarding bridges and aircraft parking areas. Synaptic Aviation’s software processes these feeds to automatically log critical turnaround events.

As detailed in the company’s announcement, the AI system tracks specific ground service milestones, including ground power unit (GPU) connections, the placement of wheel chocks, refueling procedures, and catering service provisioning. By continuously monitoring these activities, airport operators and airlines gain precise data to optimize safety and efficiency.

“We’ve demonstrated that Synaptic’s AI model delivers class-leading accuracy with low latency, resulting in improved punctuality, greater visibility, and a higher degree of apron safety for our customers,”

said Sal Salman, president of Synaptic Aviation, in the press release. He added that integrating this technology with Indra’s resource management solutions will deliver high-impact results for Aena.

Strategic Impact on Spanish Aviation

Enhancing Aena’s Network

The integration of AI into Aena’s network aligns with broader industry trends prioritizing data-driven technologies to meet environmental and operational goals. Indra emphasized that the system can be deployed securely as a local enterprise application, adhering to strict cybersecurity policies without requiring extensive modifications to current airport infrastructure.

This seamless integration allows airport teams to make rapid, informed decisions based on reliable data. Consequently, the technology is expected to reduce turnaround times, lower emissions from idling ground equipment, and minimize flight delays.

“The video analytics solution developed by Synaptic Aviation and deployed by Indra will provide Aena with a powerful and innovative tool, enabling it to revolutionize airport management and transform the future of air transport,”

stated Lidia Muñoz Pérez, director of Ports and Airports at Indra, according to the official release.

AirPro News analysis

As we observe the aviation industry’s ongoing recovery and growth, optimizing aircraft turnaround times, often referred to as the “pit stop” of aviation, has become a critical focus. Turnaround delays have a cascading effect on flight schedules, leading to increased costs and passenger dissatisfaction.

By leveraging computer vision and artificial intelligence, airports can transition from manual timestamping to automated, precise tracking of ground operations. This shift not only holds ground handlers and Airlines accountable to their service level agreements but also allows airports like Madrid, Barcelona, and Palma de Mallorca to increase gate throughput without the capital expenditure of building new terminals. The Partnerships between Indra and Synaptic Aviation highlights a growing market for off-the-shelf AI enterprise solutions that integrate directly into existing airport management systems.

Frequently Asked Questions

Which airports are receiving the new AI system?

The artificial intelligence system is being deployed at three major Spanish airports managed by Aena: Adolfo Suárez Madrid-Barajas, Josep Tarradellas Barcelona-El Prat, and Palma de Mallorca.

What does the AI technology monitor?

The system uses video analytics to monitor aircraft turnaround activities in real time. It tracks events such as ground power unit (GPU) connections, chock placement, refueling, and catering services.

Who is providing the technology?

The solution is a collaborative effort between technology and defense company Indra and AI video analytics specialist Synaptic Aviation.

Sources

• Indra Group

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

NASA is gearing up to share critical updates on the future of quiet supersonic flight. According to an official press release, the space agency will host a media teleconference on Friday, March 20, 2026, at 5:30 p.m. EDT to outline the upcoming flight test plans for the X-59 experimental aircraft. This briefing follows the aircraft’s highly anticipated second test flight in California, marking a pivotal transition into the “envelope expansion” phase of the Quesst mission.

Built by Lockheed Martin’s Skunk Works, the X-59 is the centerpiece of NASA’s ambitious initiative to break the sound barrier without generating the disruptive sonic booms that have historically plagued supersonic travel. At AirPro News, we are closely monitoring these developments, as the success of this program could fundamentally reshape commercial aviation and regulatory standards worldwide.

The Second Flight and Envelope Expansion

Pushing the Limits Safely

Before taking to the skies for its second flight, the X-59 completed crucial ground evaluations. On Thursday, March 12, 2026, the aircraft successfully underwent engine run testing at NASA’s Armstrong Flight Research Center in Edwards, California. NASA notes that this was one of the final ground tests required before the aircraft could proceed with its next airborne mission.

During the second flight, the X-59 is scheduled to taxi from its hangar at NASA Armstrong, take off, and eventually land at the nearby Edwards Air Force Base. The flight plan spans approximately one hour. According to the provided flight parameters, the aircraft will reach a cruising speed of 230 mph at an altitude of 12,000 feet before accelerating to 260 mph at 20,000 feet.

“This second flight officially kicks off a phase known as ‘envelope expansion.’ During this period, NASA engineers and test pilots will gradually push the aircraft to fly faster and higher to validate its safety, stability, and performance limits,” the agency’s research materials state.

Engineering the Quiet Supersonic “Thump”

Innovative Design Features

The X-59 relies on highly specialized geometry to achieve its acoustic goals. The aircraft measures 99.7 feet in length with a wingspan of 29.5 feet. Notably, a full third of its length consists of an elongated, thin nose cone engineered specifically to break up shockwaves before they can merge.

Powering the experimental plane is a single General Electric F414-GE-100 engine, a model commonly utilized in F/A-18 Super Hornets. In a departure from traditional aircraft design, this engine is mounted on top of the fuselage. NASA explains that this top-mounted configuration directs shockwaves upward, preventing them from reaching the ground and disturbing communities below.

Because the elongated nose forces the cockpit to sit low within the fuselage, the X-59 lacks a forward-facing window. To compensate, NASA developed the eXternal Vision System (XVS). This forward-facing multi-camera system feeds a 4K monitor in the cockpit, providing pilots with an augmented reality display of the airspace, traffic, and graphical flight data.

The Path to Commercial Supersonic Travel

Community Testing and Regulatory Changes

The X-59’s inaugural flight took place on October 28, 2025. During that debut, the aircraft flew for about an hour, reaching a maximum speed of 230 mph at 12,000 feet. Following the flight, NASA conducted extensive maintenance and inspections, which included removing the engine and over 70 panels to verify the aircraft’s structural integrity.

The ultimate goal of the Quesst mission is to reach a top cruising speed of Mach 1.4, approximately 925 mph, at an altitude of 55,000 feet. When traditional aircraft break the sound barrier, merging shockwaves create an explosive sonic boom. The X-59 is designed to separate these shockwaves, reducing the noise to a quiet sonic “thump.” NASA estimates this thump will register at around 75 perceived decibels, which is comparable to the sound of a car door closing.

Once the aircraft’s performance is fully validated, NASA plans to fly the X-59 over select U.S. communities. The resulting public response data will be shared with regulators, including the FAA and ICAO, to potentially establish new noise thresholds and lift the decades-old ban on overland commercial supersonic travel.

AirPro News analysis

The retirement of the Concorde in 2003 marked the end of an era for commercial supersonic flight, largely because noise regulations restricted the aircraft to transoceanic routes. If NASA’s Quesst mission succeeds, it could pave the way for a new generation of airliners capable of cutting cross-country or international flight times in half. However, we must emphasize patience in this testing phase. The X-59 is not breaking the sound barrier yet; the current envelope expansion phase is strictly focused on safety and system validation. Actual supersonic acoustic tests remain further down the program’s timeline.

Frequently Asked Questions (FAQ)

• What is the X-59?
  The X-59 is an experimental aircraft built by Lockheed Martin’s Skunk Works for NASA’s Quesst mission. It is designed to fly faster than the speed of sound without producing a loud sonic boom.
• When will the X-59 break the sound barrier?
  The aircraft is currently in its “envelope expansion” phase, flying at subsonic speeds (up to 260 mph at 20,000 feet in its second flight). It will gradually be pushed to its ultimate goal of Mach 1.4 (approx. 925 mph) at 55,000 feet in future tests.
• Why does the X-59 have no forward window?
  The aircraft’s elongated nose, which is necessary to break up sonic shockwaves, obstructs forward visibility. Pilots use a 4K augmented reality camera system called the eXternal Vision System (XVS) to see ahead.

Sources

• NASA Press Release