Technology & Innovation
Altair Showcases AI and Smart Manufacturing at Paris Air Show 2025
Altair reveals AI-driven aerospace innovations for sustainable design, digital twins, and smart manufacturing at Paris Air Show 2025.
The aerospace industry is undergoing a profound transformation, driven by the integration of artificial intelligence (AI), smart manufacturing, and connected technologies. At the forefront of this shift is Altair, a global leader in computational intelligence. The company is set to showcase its latest innovations at the Paris Air Show 2025, one of the world’s most prestigious aerospace events. This platform will allow Altair to demonstrate how its solutions are reshaping the aerospace sector, from conceptual design to real-time flight operations.
With aerospace organizations under increasing pressure to meet sustainability goals, reduce costs, and accelerate innovation, the role of AI and data-driven design has never been more critical. Altair’s participation at the Paris Air Show will highlight how its AI-powered engineering tools, high-performance computing (HPC), and digital twin technologies are enabling smarter, faster, and more connected aerospace development.
As part of the Siemens Digital Industries Software portfolio following a recent acquisition, Altair is positioned to deliver comprehensive digital transformation solutions. These offerings are expected to support a wide range of aerospace stakeholders, from OEMs and defense contractors to startups and SMEs, in achieving operational readiness and long-term competitiveness.
Altair is pioneering the integration of AI into simulation workflows, enabling engineers to significantly reduce design cycles while optimizing structural performance. At the Paris Air Show 2025, Altair will demonstrate how machine learning algorithms are embedded into its engineering platforms to assist in decision-making, automate repetitive tasks, and improve overall design efficiency.
These tools allow engineers to explore a wider range of design variables and scenarios, ultimately leading to lighter, stronger, and more fuel-efficient aircraft structures. This is particularly relevant as the aerospace industry seeks to reduce carbon emissions and improve sustainability without compromising safety or performance.
One example is Altair’s AI-assisted modeling environment, which supports generative design and topology optimization. These capabilities empower designers to create innovative geometries that meet strict aerospace standards while minimizing material usage and weight.
“AI, data, and connectivity are no longer future concepts—they are today’s competitive advantages,” said Dr. Pietro Cervellera, Senior Vice President of Aerospace and Defense at Altair.
Digital twin technology is another area where Altair is making significant strides. By creating virtual replicas of physical systems, engineers can monitor real-time performance, simulate stress conditions, and predict maintenance needs. This reduces unplanned downtime and extends the lifecycle of critical aerospace components.
Altair’s digital twin solutions are integrated with IoT-enabled sensors and data analytics, offering a holistic view of aircraft health and performance. These tools enable proactive maintenance strategies, improving safety and reducing operational costs. At the Paris Air Show, visitors will see how digital twins support everything from initial design validation to in-flight system monitoring. Such capabilities are especially valuable for defense organizations and commercial airlines, where reliability and readiness are paramount. By leveraging AI-driven insights, operators can make informed decisions faster and with greater confidence.
Altair is not only serving large OEMs but also supporting emerging aerospace startups and government defense agencies. Through the Altair Aerospace Startup Acceleration Program (ASAP), the company provides enterprise-grade tools to over 150 small and medium-sized enterprises (SMEs) in partnership with the Campania Aerospace District (DAC).
This initiative ensures that startups have access to the same advanced simulation and data analytics platforms used by industry leaders. It levels the playing field and accelerates innovation across the aerospace ecosystem.
Defense programs also benefit from Altair’s AI-powered platforms, which streamline development cycles and enhance mission readiness. From unmanned aerial vehicles (UAVs) to next-generation fighter jets, Altair’s solutions are enabling faster prototyping and more agile system development.
Altair’s smart manufacturing solutions are designed to meet the growing demand for precision, scalability, and efficiency in aerospace production. By integrating real-time data collection with advanced analytics, manufacturers can monitor production lines, identify bottlenecks, and optimize throughput.
This data-driven approach reduces scrap, minimizes rework, and supports continuous improvement initiatives. At the Paris Air Show, Altair will showcase how these capabilities are being applied in smart factories, enabling more adaptive and responsive manufacturing environments.
One key feature is the digital thread, which connects every stage of the product lifecycle—from design and engineering to manufacturing and maintenance. This seamless integration ensures traceability, compliance, and faster feedback loops.
Quality control is a critical concern in aerospace manufacturing, where even minor defects can have serious consequences. Altair’s solutions use AI to detect anomalies in real-time, allowing for immediate corrective action. This not only improves product quality but also reduces material waste and energy consumption. Predictive analytics further enhance production planning by forecasting demand, machine performance, and supply chain disruptions. These insights help manufacturers make proactive adjustments, improving overall resilience and competitiveness.
Several aerospace OEMs have already adopted Altair’s smart manufacturing tools, reporting measurable improvements in cycle times, defect rates, and operational efficiency.
Environmental sustainability is a top priority for the aerospace industry. Altair’s technologies support this goal by enabling lighter designs, reducing energy use in production, and facilitating circular manufacturing practices.
For example, AI-assisted simulations can optimize the use of recyclable materials without compromising structural integrity. Meanwhile, digital twins help track component wear and usage, promoting refurbishment over replacement.
These innovations contribute to broader industry efforts to meet regulatory standards and reduce the environmental impact of aerospace operations.
Altair’s presence at the Paris Air Show 2025 underscores its commitment to driving digital transformation in aerospace. By integrating AI, simulation, and connectivity, the company is enabling smarter design, agile manufacturing, and real-time system management. These capabilities are essential for meeting the evolving demands of commercial and defense aviation.
As the aerospace industry continues to embrace digital technologies, Altair’s solutions offer a blueprint for innovation. Whether through AI-powered engineering, smart factory systems, or startup empowerment programs, Altair is helping shape a more efficient, sustainable, and connected future for flight.
What will Altair showcase at the Paris Air Show 2025? How does Altair support aerospace startups? What is the significance of Altair’s partnership with Siemens? Sources: PR Newswire, Paris Air Show Official Website, Aerospace Technology Insights 2024, Aerospace Tech Conference 2024, Altair Engineering Inc. 2023 Annual Reports
Altair’s Vision for the Future of Aerospace: AI, Smart Manufacturing, and Connected Systems
AI-Powered Engineering: Accelerating Aerospace Innovation
Revolutionizing Design with AI-Driven Simulation
Digital Twins and Predictive Maintenance
Empowering Startups and Defense Programs
Smart Manufacturing: From Factory Floor to Flight
Real-Time Optimization for Aerospace Production
Enhancing Quality and Reducing Waste
Supporting Sustainability Goals
Conclusion: A Connected, Intelligent Future for Aerospace
FAQ
Altair will present AI-powered engineering tools, smart manufacturing solutions, and connected aerospace systems, including digital twins and predictive maintenance technologies.
Through the Aerospace Startup Acceleration Program (ASAP), Altair provides SMEs with enterprise-grade tools to accelerate innovation and compete with larger OEMs.
The acquisition by Siemens enhances Altair’s ability to deliver comprehensive digital twin and AI-powered solutions as part of the Siemens Xcelerator portfolio.
Photo Credit: Altair
Technology & Innovation
Wave Function Ventures Invests in Natilus Blended-Wing-Body Aircraft
Wave Function Ventures invests in Natilus to support BWB aircraft development, including Kona cargo and Horizon passenger models with strong order backlog.
This article is based on an official press release from Wave Function Ventures and Natilus, with additional context from company reports.
On February 17, 2026, Wave Function Ventures® (WaveFx®) announced a strategic investment in Natilus, the San Diego-based aerospace company designing Blended-Wing-Body (BWB) aircraft. This capital injection is part of Natilus’s Series A funding round, which has raised approximately $28 million to date under the leadership of Draper Associates.
The investment signals growing confidence in hardware-focused “Deep Tech” solutions for aviation sustainability. According to the announcement, the funding will support the manufacturing of Natilus’s regional cargo-aircraft prototype, the Kona, and advance the engineering of its passenger program, the Horizon. By moving away from the traditional “tube-and-wing” design, Natilus aims to deliver aircraft that offer significantly higher internal volume and fuel efficiency while utilizing existing airport infrastructure.
Wave Function Ventures joins a syndicate of investors including Flexport, Type One Ventures, The Veteran Fund, and New Vista Capital. The firm, known for its “atoms over bits” investment thesis, focuses on engineering-led startups solving physical-world problems in aerospace, defense, and energy.
Al Peters, Founder of Wave Function Ventures, emphasized the pragmatic nature of the Natilus design in a statement regarding the investment:
“We see an incredible convergence. It’s smart engineering that helps the planet by cutting emissions while integrating into existing airport infrastructure. Our investment in Natilus supports founders building technology that makes a real difference.”
The partnership aligns with the broader industry push to decarbonize. Aviation currently contributes approximately 3% of global CO₂ emissions, and traditional airframe designs have reached a plateau in efficiency gains. Natilus claims its BWB architecture can reduce emissions by 50% and fuel consumption by 30% compared to current aircraft.
The core of Natilus’s innovation is the Blended-Wing-Body design, where the fuselage and wings merge into a single lifting body. This configuration reduces aerodynamic drag by roughly 30% and provides 40% more cargo volume than traditional aircraft of the same weight class.
Aleksey Matyushev, CEO of Natilus, highlighted the company’s modern approach to development: “Our digital-first engineering approach reduces reliance on costly prototypes without compromising safety. We’re not just designing aircraft, we’re future-proofing logistics.”
According to company data, Natilus is developing two primary aircraft models to address different segments of the market:
Natilus reports significant commercial traction for these models, citing an order backlog of over 570 aircraft valued at more than $24 billion. Commitments have been secured from major operators including Ameriflight, Volatus Aerospace, and Flexport.
The “Step-Stone” Strategy to Certification Infrastructure Compatibility What is a Blended-Wing-Body (BWB) aircraft? Who are the key investors in Natilus? When will Natilus aircraft fly? Is the Natilus Kona autonomous?
Wave Function Ventures Backs Natilus to Accelerate Blended-Wing-Body Aircraft Development
Strategic Investment in Sustainable Aviation
The Blended-Wing-Body Advantage
Aircraft Program Specifications
AirPro News Analysis
The investment by Wave Function Ventures highlights a critical strategic differentiator for Natilus: the decision to prioritize an uncrewed cargo aircraft (Kona) before attempting a passenger liner. By validating the BWB airframe in the cargo market, where regulatory hurdles for autonomy and new airframes may be navigated differently than in passenger travel, Natilus can generate revenue and flight data to de-risk the larger Horizon program.
One of the historical barriers to BWB adoption has been airport compatibility. Radical new shapes often require new gates or hangars. However, Natilus has explicitly engineered its fleet to fit existing gates and maintenance facilities. This “drop-in” capability is likely a key factor driving the $24 billion backlog, as it allows operators to adopt the technology without lobbying for massive infrastructure overhauls at major hubs.
Frequently Asked Questions
A BWB is an aircraft design where the wings and body are merged into a single lifting shape. This differs from the traditional “tube-and-wing” design (a cylinder with attached wings) and offers superior aerodynamics and internal volume.
The Series A round was led by Draper Associates. Other key investors include Wave Function Ventures, Flexport, Type One Ventures, The Veteran Fund, and New Vista Capital.
The Kona cargo prototype is expected to fly by approximately 2028. The Horizon passenger aircraft is targeted for service entry in the early 2030s.
Yes, the Kona is designed as a regional autonomous or remote-piloted freighter, intended to serve feeder cargo routes.
Sources
Photo Credit: Wave Function Ventures
Technology & Innovation
Collins Aerospace SkyNook Named 2026 Crystal Cabin Award Finalist
Collins Aerospace’s SkyNook suite, designed to utilize unused aft cabin space, is a finalist for the 2026 Crystal Cabin Awards in Passenger Comfort.
This article is based on an official press release from Collins Aerospace.
On February 17, 2026, Collins Aerospace, a business of RTX, announced that its new cabin concept, the “SkyNook” suite, has been named a finalist for the 2026 Crystal Cabin Awards. Competing in the “Passenger Comfort” category, the product is designed to monetize underutilized space on widebody Commercial-Aircraft while providing enhanced amenities for families, pet owners, and travelers with sensory sensitivities.
The winners of the prestigious awards are scheduled to be announced on April 14, 2026, at the Aircraft Interiors Expo in Hamburg, Germany. According to the company’s announcement, the SkyNook aims to solve a longstanding engineering challenge regarding the tapering fuselage at the rear of aircraft.
The primary engineering innovation behind the SkyNook is its placement. In widebody aircraft, the fuselage narrows toward the tail, often making standard seat rows impossible to install efficiently. This creates gaps between seats and the sidewall, historically referred to as “dead space” or used merely for storage.
Collins Aerospace has developed SkyNook to convert this area into a revenue-generating product. By utilizing this specific footprint, Airlines can offer a semi-private retreat without removing existing revenue seats. In their official statement, the company described the core function of the suite:
“The SkyNook suite transforms unused space into a flexible, semi-private retreat at the aft of a widebody aircraft.”
, Collins Aerospace Press Release
According to the product details released by Collins Aerospace, the suite is modular and includes specific features designed to accommodate passengers who often struggle in standard economy seating. The suite features a convertible console capable of securing various items that are typically difficult to manage in a standard row.
The Manufacturers highlights that the console is explicitly designed to hold: Additionally, the suite includes a deployable privacy divider. This barrier visually separates the occupants from the aisle, providing a shield against the high foot traffic often found near rear lavatories and galleys. This feature is marketed not only for privacy but also as a solution for neurodivergent passengers or those with sensory sensitivities who require a “calm zone” dampened from cabin noise and visual overstimulation.
The Crystal Cabin Awards are widely regarded as the leading international accolade for excellence in aircraft interior innovation. SkyNook’s nomination in the “Passenger Comfort” category places it alongside other major industry players.
According to award nomination details, SkyNook is competing against distinct concepts that highlight different strategies for cabin utilization:
While competitors are refining existing class structures, either ultra-luxury or sustainable economy, Collins Aerospace is attempting to create a new ancillary revenue stream by capitalizing on previously wasted floor space.
The Push for Inclusive Revenue Generation
The nomination of the SkyNook highlights two converging trends in the 2026 Market-Analysis: the aggressive pursuit of ancillary revenue and the demand for inclusive design. Airlines are under immense pressure to maximize yield per square inch of the cabin. Historically, the aft taper has been a liability; Collins Aerospace is proposing a solution that turns this liability into a premium “economy-plus” product.
Furthermore, the explicit inclusion of design elements for service animals and sensory-sensitive travelers suggests a shift in how manufacturers view “comfort.” It is no longer just about legroom; it is about accessibility. By creating a dedicated space for these demographics, airlines can potentially reduce friction in the boarding process and improve the travel experience for passengers with diverse needs, all while charging a premium for a space that was previously empty.
Sources: Collins Aerospace (RTX)
Collins Aerospace Named 2026 Crystal Cabin Award Finalist for SkyNook Concept
Transforming the Aft Cabin “Dead Zone”
Key Features and Target Demographics
Industry Context: The 2026 Crystal Cabin Awards
AirPro News Analysis
Sources
Photo Credit: RTX
Sustainable Aviation
SkyNRG Closes Financing for Europe’s First Standalone SAF Plant
SkyNRG reaches financial close for DSL-01, Europe’s first standalone SAF plant in the Netherlands, targeting full operations by mid-2028.
This article is based on an official press release from SkyNRG and accompanying project documentation.
SkyNRG has officially reached financial close for DSL-01, its first dedicated commercial-scale Sustainable Aviation Fuel (SAF) production facility. Located in Delfzijl, Netherlands, the project marks a significant milestone in the European aviation sector’s transition to renewable energy. According to the company’s announcement, construction on the facility has already commenced, with full operations targeted for mid-2028.
The DSL-01 project is distinguished as Europe’s first standalone greenfield SAF plant, meaning it is being built from the ground up rather than as an expansion of an existing fossil fuel refinery. Once operational, the facility is projected to produce 100,000 tonnes of SAF annually, alongside 35,000 tonnes of by-products including bio-propane and naphtha.
Maarten van Dijk, CEO and Co-Founder of SkyNRG, emphasized the strategic importance of this development in a statement regarding the launch:
“Reaching this important milestone… marks an important step in our transition to becoming an owner and operator of SAF production capacity. This milestone demonstrates growing market confidence in scalable SAF production and provides a model for future sustainable fuel projects globally.” The facility will utilize Topsoe’s HydroFlex™ technology, operating on the Hydroprocessed Esters and Fatty Acids (HEFA) pathway. SkyNRG has stated that the plant will process waste oils and fats,predominantly sourced from regional industries,and will explicitly exclude virgin vegetable oils such as palm or soy to avoid competition with food supplies. The project aims to deliver a lifecycle CO2 emissions reduction of more than 85% compared to fossil jet fuel.
Technip Energies has been awarded the Engineering, Procurement, and Construction (EPC) contract for the site. While specific contract values are often confidential, industry reports estimate the value between €500 million and €1 billion. The construction phase is expected to generate hundreds of jobs in the Groningen Seaports region, contributing to the area’s developing green industrial cluster.
A critical aspect of the DSL-01 project is its financial structure. It is the first commercial-scale SAF plant to secure non-recourse project financing, a move that signals increasing maturity in the SAF market. Under this structure, lenders are repaid based on the project’s future cash flow rather than the general assets of the parent company.
The investment consortium includes: Arjan Reinders, Head of Infrastructure Europe at APG, noted the alignment of this investment with broader sustainability goals:
“SkyNRG represents the first investment in the SAF sector on behalf of our client [ABP], which is closely aligned with our ambition to create impact by investing at the forefront in energy transition assets.” To ensure the commercial viability of the plant, SkyNRG has secured long-term offtake agreements. KLM Royal Dutch Airlines has committed to purchasing 75,000 tonnes of SAF annually for a period of 10 years. This volume represents three-quarters of the plant’s total SAF output and is essential for KLM to meet upcoming EU mandates under the ReFuelEU Aviation Regulation.
Additionally, SHV Energy has agreed to purchase the bioLPG (bio-propane) by-products produced by the facility. Shell, a strategic partner of SkyNRG since 2019, retains an option to purchase SAF from the plant and continues to provide technical and commercial expertise.
The successful financial close of DSL-01 represents a pivotal moment for the SAF industry, specifically regarding “bankability.” Historically, SAF projects have struggled to attract traditional project finance due to perceived technology and market risks. The willingness of a major banking syndicate to provide non-recourse debt suggests that financial institutions now view HEFA-based SAF production as a stable asset class.
Furthermore, the timing of this project aligns directly with the European Union’s “Fit for 55” regulatory package. With the ReFuelEU Aviation Regulation mandating a 2% SAF blend by 2025 and rising to 6% by 2030, the DSL-01 facility will come online just as demand pressures intensify. Unlike competitors expanding existing refineries, SkyNRG’s success with a standalone greenfield site provides a “proof of concept” that could accelerate the development of similar independent facilities globally, such as their planned projects in the United States and Sweden.
Sources:
SkyNRG Reaches Financial Close on Europe’s First Standalone Greenfield SAF Plant
Project Specifications and Technology
Financial Structure and Investment Partners
Strategic Partnerships and Offtake Agreements
AirPro News Analysis
Photo Credit: SkyNRG
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