Technology & Innovation
NASA Releases LAVA Software for US Aerospace Industry Simulations
NASA’s LAVA software enables efficient, high-fidelity aerodynamic simulations for US aerospace startups and researchers.

This article is based on an official press release from NASA.
During the planning of the Artemis I mission, engineers relied on highly advanced simulations to model exactly how the Space Launch System (SLS) rocket’s massive exhaust plumes would interact with the launchpad and its water-based sound suppression system. These simulations, often visualized with striking red and blue pressure waves alongside teal water contours, were powered by a proprietary tool known as the Launch, Ascent, and Vehicle Aerodynamics (LAVA) framework.
Today, NASA announced the public release of this mission-critical software to the domestic aerospace industry. According to an official press release published by the agency, the goal of this release is to democratize access to high-fidelity aerodynamic testing, placing NASA-grade precision into the hands of universities, small businesses, and commercial Electric-Aviation Startups.
Developed by the LAVA team at NASA’s Ames Research Center in California’s Silicon Valley, the Software was originally created to address complex airflow challenges during the redesign of the launch infrastructure at the Kennedy Space Center. Now, it is poised to help private companies design everything from delivery Drones to supersonic airliners.
The Technical Breakthroughs of LAVA
At its core, LAVA is a computational fluid dynamics (CFD) software package designed to predict how air, gases, and liquids move around rockets, aircraft, and spacecraft. According to the NASA release, the framework allows engineers to conduct “scale-resolving simulations” that capture high-fidelity renderings of complex aerodynamic phenomena, including pressure waves, turbulent swirls, and acoustic signatures.
Historically, achieving this level of aerodynamic simulation required massive supercomputing infrastructure, making it highly resource-intensive and time-consuming. A major breakthrough of the LAVA framework is its ability to run these complex simulations efficiently on modest computing hardware. NASA notes that this efficiency makes the software readily available and easier to use, even for novice engineers.
Multi-Physics Coupling and Grid Flexibility
Beyond basic airflow, LAVA distinguishes itself through multi-physics coupling. The software combines CFD for air motion with structural dynamics and contact mechanics. For example, this allows engineers to simulate the physical deformation of a parachute under extreme stress. The framework also features auxiliary modules for Conjugate Heat Transfer (CHT) and Computational Aero-Acoustics (CAA).
Furthermore, NASA highlights that the software is highly adaptable and “grid agnostic.” It is capable of handling various grid types, including Cartesian, curvilinear, and unstructured grids, to accurately map over highly complex geometric shapes.
From Artemis to Commercial Aviation
Before its public release, NASA relied heavily on LAVA for critical mission planning. In addition to the Artemis I launch environment, the LAVA team is currently utilizing the software to simulate supersonic parachute inflation, a critical component for safe spacecraft recovery and future Mars landings. Engineers also routinely use the tool to determine how spacecraft will navigate the extreme conditions of atmospheric re-entry.
By releasing LAVA to the US aerospace industry, NASA is significantly lowering the barrier to entry for advanced aerodynamic testing. The agency notes that the industry will be able to harness LAVA’s capabilities for a wide array of next-generation aviation projects. Target applications include large supersonic airliners, Advanced Air Mobility (AAM) vehicles such as passenger air taxis, and smaller commercial delivery drones.
“This isn’t only about releasing software; it’s about accelerating innovation. When university researchers can run more complex simulations and when small companies can optimize designs with NASA-grade precision, we’re not only sharing tools, we’re unleashing potential.”
AirPro News analysis
We view the domestic release of the LAVA framework as a significant catalyst for the commercial aerospace sector, particularly for startups operating in the Advanced Air Mobility (AAM) and drone delivery spaces. By removing the need for massive, cost-prohibitive supercomputing infrastructure to run high-fidelity aerodynamic simulations, NASA is effectively leveling the playing field. Small businesses will now have the computational tools necessary to optimize novel wing designs and rotor configurations early in the development cycle, potentially reducing physical prototyping costs and accelerating time-to-market for next-generation Commercial-Aircraft.
Frequently Asked Questions
What does LAVA stand for?
LAVA stands for Launch, Ascent, and Vehicle Aerodynamics. It is a computational fluid dynamics (CFD) software framework developed by NASA.
Who is the target audience for the LAVA software release?
According to NASA, the software is being released to the US aerospace industry. Target beneficiaries include academic researchers at universities, small businesses, and commercial aviation startups working on projects like air taxis, delivery drones, and supersonic aircraft.
Does LAVA require a supercomputer to run?
No. One of the major technical breakthroughs of the LAVA framework is its ability to run complex, high-fidelity aerodynamic simulations efficiently on modest computing resources.
Sources: NASA
Photo Credit: NASA
Technology & Innovation
Honeywell and Shield AI Partner on Certifiable Autonomy Stack
Honeywell Aerospace and Shield AI signed an MoU at Farnborough 2026 to develop a certifiable autonomy software stack.

Honeywell Aerospace and Shield AI signed a Memorandum of Understanding (MoU) on July 22, 2026, at the Farnborough International Airshow to develop a certifiable autonomy software stack for defense and commercial aircraft.
Announced in a joint press release, the collaboration targets a primary hurdle in uncrewed and autonomous aviation: regulatory Certification. By integrating Honeywell’s certified aerospace hardware with Shield AI’s mission autonomy Software, the companies intend to create a standardized foundation that eliminates the need to rebuild and recertify trust architectures for every new aircraft platform.
Integrating Anthem Avionics with Hivemind autonomy
The agreement centers on pairing the Honeywell Anthem avionics, navigation, and sensing portfolio with the Shield AI Hivemind Software Development Kit (SDK). Hivemind provides artificial intelligence-piloted flight capabilities, while Anthem supplies the design-assured hardware foundation required by aviation regulators.
This combined architecture is designed to support both defense and commercial applications, allowing operators to deploy autonomous systems across various uncrewed aircraft platforms without engineering bespoke hardware solutions for each vehicle.
“Honeywell Aerospace’s certified avionics, navigation, and sensing systems paired with Hivemind, which delivers mission autonomy for intelligent, collaborative operations, create a trusted foundation for AI-piloted flight,” said Gary Steele, Chief Executive Officer of Shield AI. “This collaboration reflects how the aerospace and defense ecosystem is evolving, bringing the best of autonomy and certified hardware to address transportation and national security challenges.”
Addressing the certification bottleneck
The aerospace industry faces persistent challenges in certifying artificial intelligence and machine learning systems. Regulators require strict design assurance before allowing autonomous systems to operate in shared airspace or complex military environments.
Honeywell Aerospace (Nasdaq: HONA) aims to bridge this gap by providing the certified hardware layer that regulators already recognize, enabling Shield AI’s software to operate within an approved safety envelope.
“Autonomy software can fly an aircraft, but trust has to be engineered into the architecture, not bolted on after,” said Matt Milas, President of Defense & Space at Honeywell Aerospace. “Our role is to build the certified, design-assured foundation that lets a warfighter, a regulator and a fleet operator all trust the same platform. That’s the layer we bring to this collaboration, the one that turns intelligence like Hivemind into something that can be deployed safely and at scale anywhere in the world.”
AirPro News analysis
The partnership between Honeywell and Shield AI highlights a critical maturation point
Photo Credit: Honeywell Aerospace
Technology & Innovation
Vertical Aerospace Signs eVTOL MoU for Portugal Resort
Vertical Aerospace and VIC Properties sign an MoU to evaluate Valo eVTOL services at the Pinheirinho estate in Comporta, Portugal.

UK-based manufacturer Vertical Aerospace and Portuguese real estate developer VIC Properties signed a Memorandum of Understanding (MoU) on July 27, 2026, to evaluate the integration of electric air mobility services at the 400-hectare Pinheirinho estate in Comporta, Portugal.
The agreement, announced in a joint press release, initiates site and infrastructure planning to establish the luxury resort destination as a test case for regional Electric Vertical Take-Off and Landing (eVTOL) transport. The partnership aims to connect major transit hubs, such as Lisbon, directly to the coastal estate, which will house the Six Senses Comporta resort.
Infrastructure and resort integration
VIC Properties, which manages €3 billion in assets and was established in 2018, is developing the Pinheirinho estate with a focus on luxury hospitality. The MoU outlines a framework to assess the physical and operational requirements for hosting Vertical Aerospace’s piloted, four-passenger Valo aircraft on the property.
João Cabaça, Co-founder and Chief Executive Officer of VIC Properties, stated that the estate is being developed to create a new benchmark for luxury hospitality on the Atlantic coast.
“A partnership with Vertical, a recognised pioneer in this emerging sector, is a natural extension of that ambition, as we truly believe that air mobility will shape the experience, the reach and connectivity of next-generation destinations such as Pinheirinho Comporta,” Cabaça said.
Vertical Aerospace expands operational footprint
The Portuguese agreement follows a series of regulatory and developmental milestones for Vertical Aerospace throughout July 2026. The manufacturer recently concluded its participation at the Farnborough International Airshow, where it conducted the first public demonstrations of the Valo eVTOL.
Vertical Aerospace currently holds approximately 1,500 pre-orders for the Valo aircraft across four continents. The company has secured commitments from commercial operators and lessors including American Airlines (AA), Japan Airlines (JL), GOL Linhas Aéreas (G3), Bristow Group, and Avolon.
Recent regulatory and funding milestones
Beyond the MoU with VIC Properties, Vertical Aerospace announced a strategic regulatory collaboration on July 22, 2026, with Saudi Arabia’s General Authority of Civil Aviation (GACA) to advance certification frameworks. The day prior, the UK government announced a £3.4 million backing for the ECLiPSE programme, led by Vertical Aerospace, to develop next-generation charging and thermal management technologies. The company also joined Honeywell Aerospace’s Project VERTI-GO, an EU-funded initiative focused on safely integrating eVTOL aircraft into European airspace.
Stuart Simpson, Chief Executive Officer of Vertical Aerospace, emphasized the role of the Valo in transforming regional transit for premium markets.
“The most exceptional destinations deserve an equally exceptional way to arrive. Vertical is creating a safer, cleaner, and quieter way to travel that is quicker, simpler and more enjoyable. This partnership is about understanding how a new category of air travel can integrate into the future of resort living and luxury hospitality,” Simpson noted.
AirPro News analysis
We view the partnership between Vertical Aerospace and VIC Properties as a strategic alignment of advanced air mobility with high-net-worth consumer markets. By targeting luxury resort destinations like the Pinheirinho estate, eVTOL manufacturers can establish early use cases where the premium cost of early-stage electric air travel aligns with customer expectations and willingness to pay.
Connecting a major international gateway like Lisbon directly to a coastal resort bypasses traditional ground infrastructure bottlenecks, providing a tangible value proposition for the Valo aircraft. Furthermore, Vertical Aerospace’s concurrent push for regulatory alignment in Europe and the Middle East suggests a deliberate strategy to secure operational footholds in regions heavily invested in luxury tourism and next-generation infrastructure.
Sources: Business Wire, Vertical Aerospace
Photo Credit: Vertical Aerospace
Technology & Innovation
Safran and AURA AERO Sign TG600 Deal for ERA Aircraft
Safran Helicopter Engines and AURA AERO signed a definitive TG600 turbogenerator agreement on July 27, 2026, for the hybrid-electric ERA.

Safran Helicopter Engines and AURA AERO signed a definitive agreement on July 27, 2026, to develop and integrate TG600 turbogenerators into the prototype of the Electric Regional Aircraft (ERA). The contract secures the critical power-generation architecture for the 19-seat hybrid-electric aircraft, advancing the program toward its first flight and industrialization.
Announced in a joint press release, the agreement transitions a June 2023 Memorandum of Understanding into a binding development phase. The ERA will utilize a distributed hybrid-electric Propulsion system, relying on two Safran TG600 turbogenerators to supply power to eight ENGINeUS electric motors mounted along the wings.
Propulsion architecture and technical specifications
The integration of the propulsion system is a joint effort between Safran Helicopter Engines, Safran Electrical & Power, and AURA AERO. Each TG600 turbogenerator is capable of delivering 600 kilowatts of electrical power output. These units will generate the electricity required to drive the eight ENGINeUS motors during flight phases that demand sustained power, enabling the aircraft to achieve its maximum range of 900 nautical miles (1,500 kilometers).
Cédric Goubet, President of Safran Helicopter Engines, stated that the TG600 will be an essential element of the ERA’s hybrid propulsion system.
“We are particularly pleased to reach this important milestone in our Partnerships with Aura Aero and thus contribute to advancing the decarbonization of aviation alongside this up-and-coming French aircraft manufacturer. Our teams will now work with those of Aura Aero towards the first flight of a prototype.”
The turbogenerator agreement follows a related announcement on July 20, 2026, in which Safran Electrical & Power and AURA AERO expanded their strategic partnership. That agreement focused on the serial production of the fully electric INTEGRAL E trainer aircraft and confirmed the selection of the ENGINeUS motors for the ERA. Jérémy Caussade, President and Co-founder of AURA AERO, noted that strengthening the partnership with Safran Electrical & Power consolidates the technological and industrial roadmap for both aircraft programs.
Market momentum for the ERA and TG600
The definitive agreement with Safran provides industrial backing for the ERA as AURA AERO works to convert its initial market interest into a firm backlog. In March 2026, French private airline Pan Européenne Air Service placed the first firm Orders for the ERA. Prior to this firm order, AURA AERO had secured approximately 700 Letters of Intent (LOIs) for the aircraft, representing an estimated total value of $12 billion.
The TG600 turbogenerator is also gaining traction beyond the ERA program. On July 15, 2026, Safran Helicopter Engines secured a life-of-program production agreement with United States-based Manufacturers Electra. Under that Contracts, Safran will supply the TG600 for Electra’s EL9 Ultra Short hybrid-electric aircraft, demonstrating broader industry adoption of the 600 kW power generation architecture for next-generation regional platforms.
AirPro News analysis
We view the July 27 agreement as a critical de-risking milestone for AURA AERO. Transitioning from a Memorandum of Understanding to a definitive development contract with a Tier 1 aerospace supplier like Safran provides the ERA program with necessary industrial credibility. The sequential announcements throughout July 2026, including the INTEGRAL E production agreement and the Electra TG600 contract, indicate that Safran is aggressively positioning its turbogenerator and electric motor portfolios as the default propulsion solutions for the emerging sub-20-seat hybrid-electric market. Securing firm hardware commitments is essential for AURA AERO to convert its substantial $12 billion backlog of Letters of Intent into firm orders, following the initial commitment from Pan Européenne Air Service.
Sources: AURA AERO
Photo Credit: AURA AERO
-
Technology & Innovation5 days agoVlindair Launches as Europe’s First All-Electric Regional Airline
-
MRO & Manufacturing3 days agoAirbus A350F Manufacturing Network Spans Five Countries
-
Defense & Military7 days agoGE Aerospace and Magellan Sign F414 MRO MOU for Canada
-
Defense & Military6 days agoGE Aerospace and Shield AI Complete X-BAT Engine Test
-
UAV & Drones6 days agoArcher Aviation and Anduril Unveil Dual-Use VTOL Platform
