Business Aviation
Rolls Royce Pearl 10X Engine Powers Dassault Falcon 10X Jet
Rolls-Royce Pearl 10X delivers 18,250 lbs thrust for Dassault Falcon 10X with improved fuel efficiency and near certification for 2027 launch.

Rolls-Royce Pearl 10X Engine Nears Certification: A New Era in Business Aviation Propulsion
The aviation industry stands at a pivotal point as Rolls-Royce approaches final certification of its Pearl 10X engine. Developed exclusively for the Dassault Falcon 10X business jet, the Pearl 10X represents the most powerful engine in Rolls-Royce’s business aviation portfolio, delivering over 18,000 pounds of thrust. This engine is not only a technological milestone but also a strategic move that places Rolls-Royce in direct competition with established players in the ultra-long-range business jet segment.
With more than 3,400 hours of testing completed and only emissions validation remaining, the Pearl 10X is on the brink of certification. This comes at a time when the business aviation market is experiencing significant growth, projected to expand from $102.69 billion in 2024 to $254.26 billion by 2032. The Pearl 10X is poised to capitalize on this growth, offering a blend of high performance, fuel efficiency, and environmental responsibility.
Evolution of the Pearl Engine Family
The Pearl 10X is the latest evolution in the Pearl engine family, which began with the Pearl 15 in 2018. Rolls-Royce designed the Pearl series to bridge proven BR700 engine features with innovations from the Advance2 demonstrator program. The Pearl 15 powers the Bombardier Global 5500 and 6500, while the Pearl 700 is used on Gulfstream’s G700 and G800 jets.
The Pearl 10X marks Rolls-Royce’s first collaboration with Dassault Aviation. Announced in May 2021, it is designed exclusively for the Falcon 10X, a $75 million ultra-long-range business jet expected to enter service in 2027. The engine incorporates the Advance2 core and introduces several firsts, including 3D-printed combustor tiles.
Rolls-Royce’s strategy with the Pearl engine family has been to progressively introduce advanced materials, higher bypass ratios, and more efficient thermodynamic cycles. The Pearl 10X continues this trend, offering a 5% fuel efficiency improvement over previous-generation engines and full compatibility with 100% Sustainable Aviation Fuel (SAF).
Technological Innovations
One of the standout features of the Pearl 10X is its use of 3D-printed combustor tiles. Manufactured using Additive Layer Manufacturing (ALM), these tiles include intricate cooling channels that enhance thermal efficiency and reduce emissions. This is the first time Rolls-Royce has used such technology in a production engine.
The engine’s architecture includes a titanium fan blisk, a 10-stage high-pressure compressor with a 24:1 pressure ratio, a two-stage high-pressure turbine, and a four-stage low-pressure turbine. These components contribute to both performance and efficiency, enabling the Pearl 10X to deliver 18,250 pounds of thrust.
Advanced composite materials are used throughout the engine to reduce weight and enhance durability. The fan system, using a blisked design, improves aerodynamic efficiency and reduces maintenance complexity. These innovations collectively position the Pearl 10X as a leader in next-generation business aviation propulsion.
“Each milestone achieved in the Pearl 10X development programme so far reflects the hard work and dedication of our global engineering and experimental test teams.” — Dr. Phillip Zeller, Rolls-Royce
Certification and Testing Campaign
The Pearl 10X has undergone an extensive certification campaign, including 3,400 hours of testing and 25 flight test sorties covering 41,000 miles. Ground testing began in 2022, validating key systems like the combustor and gearbox. The engine exceeded its thrust targets during its first test run, confirming its design assumptions.
Flight testing was conducted using a Boeing 747-200 testbed in Arizona, evaluating performance across altitudes up to 45,000 feet and speeds up to 690 mph. Tests included inflight relights, performance checks, and emissions assessments. As of mid-2025, only emissions testing remains before final certification.
Certification milestones included bird strike testing, crosswind testing, and emissions compliance. These rigorous tests ensure the engine meets stringent safety and performance standards. The results have aligned with Dassault’s timeline, with Pearl 10X engines already delivered for Falcon 10X prototypes.
Market Context and Competitive Positioning
The Pearl 10X enters a competitive landscape dominated by engines like the Pratt & Whitney PW800 family. However, with 18,250 pounds of thrust, the Pearl 10X surpasses competitors in power output. It also offers a 5% fuel efficiency gain, a critical factor given operating costs of $2,000–$3,000 per hour and charter rates around $11,000 per hour for the Falcon 10X.
The business jets market is projected to grow significantly, from $102.69 billion in 2024 to $254.26 billion by 2032. The aircraft engine market follows a similar trajectory, expected to grow from $118.73 billion in 2025 to $204.80 billion by 2032. Within this context, the Pearl 10X is well-positioned to capture market share in the premium ultra-long-range segment.
Rolls-Royce’s exclusive partnership with Dassault for the Falcon 10X ensures a stable launch platform. The engine’s performance, efficiency, and environmental credentials make it attractive to both OEMs and operators. Its ability to support steep approaches, such as at London City Airport, further expands its operational flexibility.
Environmental and Sustainability Considerations
The Pearl 10X is fully compatible with 100% Sustainable Aviation Fuel (SAF), aligning with industry goals for emissions reduction. SAF can reduce lifecycle carbon emissions by up to 80%, depending on feedstock and production methods. This compatibility allows operators to reduce their carbon footprint without sacrificing performance.
The engine’s 3D-printed combustor tiles also contribute to environmental performance by reducing NOx emissions. Efficient combustor cooling and precise fuel-air mixing minimize hot spots and improve combustion efficiency. Combined with a high bypass ratio and advanced materials, these features reduce both CO2 and noise emissions.
Rolls-Royce’s broader environmental strategy includes commitments to carbon neutrality and sustainable propulsion. The Pearl 10X exemplifies this strategy, balancing performance with environmental responsibility. It is designed to meet current and future ICAO emissions and noise standards, ensuring long-term regulatory compliance.
Conclusion
The Pearl 10X represents a significant advancement in business aviation propulsion. With over 18,000 pounds of thrust, cutting-edge manufacturing techniques, and environmental compatibility, it sets a new benchmark in the ultra-long-range segment. Rolls-Royce’s strategic partnership with Dassault and the engine’s strong performance profile position it for commercial success.
As the engine moves toward final certification, it reflects broader industry trends: the integration of sustainable technologies, the use of additive manufacturing, and the demand for high-performance, low-emission propulsion systems. The Pearl 10X is more than just an engine—it’s a glimpse into the future of business aviation.
FAQ
What aircraft will the Pearl 10X power?
The Pearl 10X is designed exclusively for the Dassault Falcon 10X ultra-long-range business jet.
What is the thrust rating of the Pearl 10X?
The engine delivers 18,250 pounds of thrust, making it the most powerful business aviation engine from Rolls-Royce.
Is the Pearl 10X compatible with Sustainable Aviation Fuel?
Yes, the engine is fully compatible with 100% SAF, enabling significant reductions in lifecycle carbon emissions.
Sources:
Aviation Week,
Rolls-Royce,
Dassault Falcon,
Grand View Research,
FlightGlobal,
NASA,
Pratt & Whitney
Photo Credit: Simple Flying
Business Aviation
Key Regulatory Changes Impacting International Business Aviation in 2026
International business aviation faces stricter regulations including new transponder codes, FAA authorizations, LED lighting challenges, and EU border modernization.

International business aviation is entering a highly demanding regulatory environment characterized by tighter oversight, expanded data requirements, and stricter enforcement of rules. Requirements that were once loosely applied by international regulators are now being actively enforced, fundamentally changing how international trips are planned, documented, and approved.
According to a May 14, 2026, press release and webinar summary from the National Business Aviation Association (NBAA), every aspect of flight operations now requires greater precision and meticulous documentation. Industry experts warn that operators must shift from reactive compliance to proactive mission readiness to avoid delays, rejected permissions, and increased compliance exposure.
The recent NBAA News Hour webinar, moderated by Doug Carr, NBAA’s Senior Vice President of Safety, Security, Sustainability & International Affairs, featured a panel of international aviation specialists who outlined the critical updates flight departments must address to maintain global mobility.
Technical and Procedural Updates
Small technical changes are creating outsized risks for operators who fail to keep their procedures up to date. The NBAA panel highlighted that flight departments must immediately review and adapt to revised flight-planning surveillance codes and updated ADS-B Out filing codes.
Notably, European airspace authorities have introduced a new supplemental lost-communications transponder code: 7601. In the United States, the FAA is expected to issue Letter of Authorization (LOA) C078 for Part 91 operators. This authorization will detail specific procedures and approvals for lower-than-standard Instrument Flight Rules (IFR) takeoff minima, which may align more closely with international operational requirements.
Infrastructure Challenges: LED Airport Lighting
Beyond paperwork and filing codes, physical infrastructure changes at airports worldwide are impacting flight operations. The global transition to LED lighting on runways and taxiways is creating unexpected operational hazards for crews.
Because Enhanced Flight Vision System (EFVS) sensors rely heavily on infrared technology, they do not effectively detect LED lights, which emit very little heat or infrared signature compared to traditional incandescent bulbs. Pilots expecting to use an EFVS approach may find their monitors completely blank.
“One of the challenges that has been discovered is that enhanced flight vision system sensors do not work well with LEDs because they are based on infrared… You may expect to use an EFVS approach and still not see anything on your monitor. We can’t do anything about airports replacing those bulbs, so what operators must do is be prepared for it.”
European Border and Customs Modernization
Operators traveling to Europe face a rapidly growing compliance burden regarding border procedures, passenger data reporting, and taxation. The European Union is currently rolling out a phased border modernization program that requires immediate attention from international flight departments.
This modernization includes the Entry/Exit System (EES), which replaces manual passport stamping with digital tracking of entry, exit, and overstay status for third-country nationals traveling on short-stay visas. Additionally, operators must prepare for the upcoming European Travel Information and Authorisation System (ETIAS) requirement for visa-exempt travelers.
Crucially, a new mandatory Carrier Interface application was implemented by the EU starting April 10, 2026. This system is used for checking traveler entry eligibility, and operators must ensure they are registered and technically capable of interacting with the eu-LISA systems.
“Rather than focusing on whether a particular flight may be exempt, operators are better served by building capability early. Registration and technical readiness provide flexibility, transparency, and fewer surprises when operating into Europe.”
AirPro News analysis
We observe that the era of loosely applied international aviation regulations is definitively over. The shift toward digital border controls and stringent technical compliance means flight departments can no longer rely on outdated manuals or ad-hoc trip planning. The introduction of the EU’s Carrier Interface and specific technical hurdles, such as EFVS limitations with LED lighting, underscore a critical need for continuous training and procedural audits.
Operators who invest in proactive compliance frameworks and update their manuals to reflect new codes (like Europe’s 7601 transponder code) will likely maintain their operational flexibility. Conversely, those who maintain a reactive approach to international permits and border rules will face increasing friction, potential fines, and denied entries in international airspace.
Frequently Asked Questions (FAQ)
What is the new European lost-communications transponder code?
European regulators have introduced a new supplemental lost-communications transponder code: 7601.
Why do LED airport lights affect Enhanced Flight Vision Systems (EFVS)?
EFVS sensors rely on infrared technology to detect heat signatures. Because LED lights emit very little heat compared to traditional incandescent bulbs, EFVS monitors may fail to display the runway lighting.
When did the EU Carrier Interface become mandatory?
The European Union implemented the mandatory Carrier Interface application for checking traveler entry eligibility on April 10, 2026.
Sources
Photo Credit: NBAA
Business Aviation
Otto Aerospace Phantom 3500 Clears Preliminary Design Review
Otto Aerospace finalizes Phantom 3500 design, targets 2027 first flight and 2030 commercial entry with Flexjet as launch customer.

This article is based on an official press release from Otto Aerospace.
Otto Aerospace has successfully completed the Preliminary Design Review (PDR) for its Phantom 3500 business jet, marking a critical milestone that transitions the clean-sheet aircraft program from conceptual design into detailed engineering and production planning. The announcement, made via a company press release on May 13, 2026, confirms that the aircraft’s aerodynamic design and major interfaces are now frozen.
According to the press release, the comprehensive review was conducted in late February at the company’s future manufacturing hub in Jacksonville, Florida. The successful PDR provides engineering and supplier teams with the definitive architecture needed to begin hardware fabrication. Otto Aerospace is currently targeting 2027 for the first flight of Flight Test Vehicle 1 (FTV1), with industry reports indicating a planned entry into commercial service by 2030.
The Phantom 3500 aims to disrupt the business aviation sector by utilizing a full-airframe laminar flow design. By maintaining smooth, uninterrupted airflow over the fuselage and wings, the company projects the aircraft will radically reduce the energy required for flight, cutting fuel burn by up to 60 percent compared to similar-sized jets.
Engineering Milestones and Leadership Transition
Moving Toward Critical Design Review
The completion of the PDR represents a comprehensive assessment of the Phantom 3500’s configuration, performance, and overall design maturity. With the aerodynamic shape now locked in, Otto Aerospace is advancing toward its Critical Design Review (CDR) and the physical assembly of its first test aircraft.
“The Phantom 3500 has crossed the threshold from a promising concept to an aircraft we are preparing to build and fly,” said Otto Aerospace President and CEO Scott Drennan in the official release. “The work now is execution.”
Chief Technology Officer Kyle Heironimus echoed this sentiment in the company statement, noting that the milestone reflects more than a year of disciplined work by the internal team, suppliers, and development partners. The company stated it will now focus on weight management, supplier execution, and certification planning to protect the aircraft’s core performance targets.
New Leadership for the Execution Phase
The PDR announcement follows closely on the heels of a significant leadership restructuring. According to industry research and background reports, Scott Drennan was officially appointed CEO on May 4, 2026, succeeding Paul Touw. Drennan, who previously served as the company’s President and COO, brings over three decades of aerospace experience, including executive tenures at Bell Textron and Hyundai’s Supernal.
Background reports indicate that the Otto Aerospace board viewed Drennan’s operational discipline as essential for the company’s transition into high-stakes manufacturing. Board Chair Dennis Muilenburg noted in a recent industry statement that Drennan is the right leader as the company shifts from conceptual design to building and flying aircraft.
Disruptive Design and Market Validation
Laminar Flow and the Windowless Cabin
To achieve its unprecedented efficiency, the Phantom 3500 relies on several radical design choices. According to verified industry specifications, the aircraft is designed to achieve a range of 3,500 nautical miles, a maximum operating speed of Mach 0.80, and a cruise altitude of 51,000 feet. It will be powered by twin Williams International FJ44-4 turbofan engines.
Most notably, the aircraft features a completely windowless fuselage. To maintain perfect laminar flow and reduce aerodynamic drag, traditional passenger windows have been eliminated. Instead, background reports detail that the cabin utilizes “SuperNatural Vision”, high-definition 4K digital displays that stream real-time panoramic views from external cameras. Despite the lack of physical windows, the 800-cubic-foot cabin is designed to accommodate up to nine passengers with a height of 6 feet 5 inches.
Furthermore, the extensive use of carbon-fiber composites keeps the aircraft’s Maximum Takeoff Weight (MTOW) at approximately 19,000 pounds. Industry analysts note that this weight classification allows the Phantom 3500 to seek certification under the less stringent FAA Part 23 regulations, streamlining its path to market.
The $5.85 Billion Flexjet Order
The commercial viability of Otto Aerospace’s design was heavily validated in September 2025 when global fleet operator Flexjet signed on as the launch customer. According to market research, Flexjet placed a firm order for 300 Phantom 3500 jets, a deal valued at an estimated $5.85 billion based on market pricing.
“The Phantom 3500 exemplifies [our] approach perfectly, marking a bold step into a future where an aircraft’s efficiency and sustainability stand alongside speed, comfort and range as defining standards,” said Flexjet Chairman Kenn Ricci in a prior industry statement.
Manufacturing Footprint in Florida
Cecil Airport Facility
To meet its ambitious 2030 delivery targets, Otto Aerospace is rapidly expanding its physical manufacturing footprint. The company announced in June 2025 that it would relocate its headquarters and construct an 850,000-square-foot final assembly plant at Cecil Airport in Jacksonville, Florida.
According to regional economic reports, the manufacturing project is backed by a $515 million incentive package from the State of Florida and local authorities, with Otto Aerospace committing to a $430 million capital investment. Production preparations are already underway; municipal records show that the city of Jacksonville issued permits for interior demolition in an existing hangar at Cecil Airport in March 2026.
AirPro News analysis
We view the completion of the Phantom 3500’s PDR as a critical indicator that Otto Aerospace is successfully maturing from a stealth-mode research firm into a legitimate commercial OEM. The aviation industry is currently under immense pressure to achieve carbon neutrality by 2050. While legacy manufacturers are largely relying on Sustainable Aviation Fuel (SAF) and incremental engine improvements to meet these ESG goals, Otto Aerospace is attempting to rewrite the fundamental physics of aerodynamic drag.
However, the company’s reliance on a windowless cabin remains a significant gamble. Removing passenger windows is an engineering necessity to maintain laminar flow and save weight, but it requires a massive shift in consumer acceptance. Passengers are accustomed to natural light and physical outside views. The success of the “SuperNatural Vision” 4K displays will be a major test of market flexibility. That said, Flexjet’s massive 300-unit order strongly suggests that major fleet operators believe the promised 50 percent reduction in operating costs and 60 percent reduction in fuel burn will ultimately outweigh traditional passenger preferences.
Frequently Asked Questions
What is the Otto Aerospace Phantom 3500?
The Phantom 3500 is a clean-sheet, super-midsize business jet designed to maximize aerodynamic efficiency through full-airframe laminar flow. It aims to significantly reduce fuel burn and operating costs compared to traditional business jets.
When will the Phantom 3500 fly?
Otto Aerospace is targeting 2027 for the first flight of its Flight Test Vehicle 1 (FTV1), with FAA Part 23 certification and commercial entry into service planned for 2030.
Why does the Phantom 3500 have no windows?
To maintain smooth, uninterrupted airflow (laminar flow) over the fuselage and reduce aerodynamic drag, the aircraft eliminates traditional windows. Passengers will instead view the outside world through high-definition 4K digital displays lining the cabin.
Photo Credit: Otto Aerospace
Business Aviation
Infinity Aviation Group Opens Expanded FBO at Nashua Airport NH
Infinity Aviation Group unveils a remodeled FBO at Nashua Airport with enhanced facilities and hangar space for corporate jets ahead of 2026 FIFA World Cup.

This article is based on an official press release from Infinity Aviation Group.
Infinity Aviation Group has officially opened its newly expanded and remodeled Fixed Base Operator (FBO) terminal at Boire Field / Nashua Airport (KASH) in New Hampshire. The April 24, 2026, announcement marks a significant infrastructure upgrade for general aviation in the New England region.
Positioned approximately 45 to 60 minutes north of Boston, the Nashua facility is designed to serve as a strategic alternative to the heavily congested Boston Logan International Airport (BOS). According to the company’s press release, the upgraded terminal aims to capture growing private aviation demand by offering a more efficient gateway for corporate and private travelers.
The grand opening arrives at a critical time for regional aviation infrastructure. The area is preparing for an influx of high-net-worth travelers and corporate flight departments tied to major upcoming sporting events, including the 2026 FIFA World Cup, for which the Boston area is a host city.
Facility Upgrades and Expanded Capabilities
Transforming Regional Infrastructure
The centerpiece of the expansion is a 12,000-square-foot terminal, which underwent a nine-month renovation to convert a former government building into a state-of-the-art FBO. Infinity Aviation Group notes that the facility now features a modern lobby, a dedicated customer service (CSR) desk, and specialized crew amenities such as a private pilot lounge and a quiet snooze room.
For corporate clients and flight departments, the terminal offers robust meeting spaces. The press release details the inclusion of two 12-seat conference rooms and a larger venue capable of hosting up to 30 people.
Ramp and Hangar Capacity
Beyond the passenger terminal, the complex encompasses over 150,000 square feet of heated hangar and office space. The company states that the ramp and hangars are equipped to accommodate heavy corporate jets, specifically noting capacity for aircraft as large as the Gulfstream G550.
The Nashua FBO, managed by Terrance Hart, provides a full suite of line services. These include premium ground handling, deicing, and fueling services branded under Titan Aviation Fuels.
Strategic Timing and Future Growth
Capitalizing on Sports Tourism
The timing of this grand opening aligns with a projected surge in regional private jet traffic. With Boston serving as a host city for the 2026 FIFA World Cup, alongside regular NBA and NHL playoff traffic, Infinity Aviation is positioning Nashua Airport as a premium, low-congestion gateway.
By offering an efficient alternative to Boston Logan, the FBO allows private travelers to bypass congested commercial airspace and ground traffic, a key selling point highlighted in the company’s strategic rollout.
Continued Expansion Plans
Infinity Aviation is not pausing its development efforts. According to the press release, the company is already constructing an additional 30,000-square-foot aircraft hangar adjacent to the new terminal. This facility is slated to open in 2027 to support long-term leasing and corporate jet storage.
Community Impact and Leadership
The April 24 ribbon-cutting ceremony drew local community members, the Nashua Airport Authority, and the local Chamber of Commerce. To mark the occasion, Infinity Aviation announced a financial donation to the local Experimental Aircraft Association (EAA) “Young Eagles” program, which provides youths aged 8 to 17 with their first free airplane ride.
Steven Levesque, CEO of Infinity Aviation, emphasized the company’s dual focus on customer service and regional investment during the event.
“The opening of our Nashua facility reflects our deep commitment to the local community and to the future of business aviation in the region,” stated Levesque in the company release.
AirPro News analysis
We view the expansion at Nashua Airport as a textbook example of secondary airports capitalizing on primary hub congestion. As Boston Logan continues to face capacity constraints, well-equipped regional FBOs like Infinity Aviation’s KASH facility become highly attractive to corporate flight departments. The proactive investment ahead of the 2026 FIFA World Cup demonstrates strong market foresight, likely securing lucrative international and domestic traffic that prioritizes discretion and speed over immediate proximity to downtown Boston.
Frequently Asked Questions
Where is the new Infinity Aviation FBO located?
It is located at Boire Field / Nashua Airport (KASH) in Nashua, New Hampshire, approximately 45 to 60 minutes north of Boston.
What size aircraft can the Nashua facility accommodate?
According to the company, the ramp and hangars can handle heavy corporate jets up to the size of a Gulfstream G550.
Are there further expansion plans for the airport?
Yes, Infinity Aviation is currently developing an additional 30,000-square-foot hangar scheduled to open in 2027.
Sources
Photo Credit: Infinity Aviation Group
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