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Collins Aerospace, a leading provider of aerospace and defense solutions, has reached a significant milestone with the delivery of its 3,000th F-35 Gen III helmet-mounted display system to the Joint Strike Fighter force. This state-of-the-art technology, recognized as the world’s most advanced helmet-mounted display system, plays a crucial role in enhancing the capabilities of pilots who safeguard the United States and its allies.

The F-35 Gen III system, developed in collaboration with Elbit Systems under the joint venture Collins Elbit Vision Systems (CEVS), boasts a next-generation user interface that serves as a pilot’s primary display system. It provides seamless access to vital flight, tactical, and sensor information day or night, empowering pilots with unparalleled situational awareness in combat zones.

Daniel Karl, co-general manager of CEVS, emphasized the commitment to pilot safety and readiness over the past three decades, stating, “The joint venture between Collins and Elbit Systems has kept pilots safe and battle-ready for nearly 30 years.” He highlighted the system’s ability to offer pilots in combat zones unmatched situational awareness, enabling faster decision-making with the critical information they need.

The 3,000th delivery marks a remarkable achievement for CEVS, having supplied more than 20,000 systems to warfighters and accumulated over 1 million flight hours on 40 different fighter aircraft platforms. This success underscores the crucial role played by Collins Aerospace in supporting the defense capabilities of the United States and its allies.

Jeff Hoberg, co-general manager of CEVS, celebrated the milestone by showcasing the recent unveiling of the Zero-G helmet system, which he described as “the most capable and safest helmet-mounted display system ever developed.” This innovative technology further solidifies Collins Aerospace and Elbit Systems’ commitment to advancing aviation solutions for the modern warfighter.

The achievement comes as Collins Aerospace, an RTX company, continues to be a key contributor to the defense industry and remains the largest employer in Cedar Rapids, Iowa.

As the aerospace and defense landscape evolves, Collins Aerospace’s dedication to innovation and excellence continues to position the company at the forefront of delivering cutting-edge solutions that enhance the capabilities and safety of military personnel worldwide.

Take a closer look at the image above from Collins Aerospace, and you’ll notice the pilot of this F-35 combat jet donning a helmet with a display screen, crafted by Collins Aerospace. This cutting-edge technology seamlessly presents crucial information directly to the pilot, exemplifying the forefront of aerospace innovation.

As a trusted supplier of Collins Aerospace Equipment, PartYard Military is dedicated to delivering cutting-edge solutions that elevate military capabilities and safety. Celebrating Collins Aerospace’s recent milestone of delivering the 3,000th F-35 Gen III helmet-mounted display system, we invite defense organizations and partners to explore our comprehensive range of advanced equipment and services. Choose PartYard Military as your reliable supplier, offering high-quality products and an unwavering commitment to innovation. Contact us today for infinite possibilities in advancing your defense missions.

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The modern battlefield is a complex and ever-changing environment, demanding peak performance and adaptability from soldiers. Traditional training methods, while valuable, often struggle to fully replicate the dynamic and high-pressure situations soldiers face in real-world combat.

SKIFTECH, a company at the forefront of military training innovation, is bridging this gap with its cutting-edge tactical engagement simulation systems. These systems utilize a blend of advanced technologies, including:

Beyond the technological advancements, SKIFTECH’s training systems offer several tangible benefits:

Ethical Considerations:

While SKIFTECH’s training systems offer significant advantages, it’s important to acknowledge the ongoing discussion surrounding the ethical considerations of using highly realistic combat simulations. Some experts raise concerns about potential desensitization to violence and the psychological impact of repeated exposure to simulated combat situations. As with any new technology, it’s crucial to have open and ongoing dialogue about the responsible application and potential drawbacks of these training methods.

SKIFTECH’s innovative training systems represent a significant step forward in preparing soldiers for the complexities of modern warfare. By combining advanced technology with a focus on real-world application, SKIFTECH is helping to shape a future where soldiers are better equipped, safer, and ultimately more effective in defending themselves and their missions.

In an era where artificial intelligence (AI) has come under scrutiny for its deceptive potential, its role in the military is evolving, especially away from the frontlines. The recent tightening of regulations by the Federal Trade Commission underscores concerns about AI’s mimicry capabilities. Simultaneously, the military grapples with questions about the maturity of AI technology, even as the updated Department of Defense (DOD) AI Adoption Strategy urges its integration across the military for strategic advantage.

The challenge is twofold: identifying areas where AI provides a clear advantage without introducing significant risks. While military leaders exercise caution, AI integration is making headway, showcasing its value in unexpected domains.

Revolutionizing Soldier Proficiency with AI Assistance

At the Human Performance Training Center in Fort Carson, Colorado, AI is reshaping how individual soldiers enhance their skills. The 10th Special Forces Airborne Group recently completed a training course where AI tailored challenges based on each soldier’s performance. In contrast to static scenarios of legacy programs, the VirTia Military Training initiative delivers dynamic, video game-like scenarios, focusing on specific skills like combat shooting and decision-making. An AI oversees the exercises, evaluating participants and adapting future challenges based on their performance.

AI-Driven Acceleration of Recruitment Processes in the UK

The United Kingdom’s armed forces confront a recruitment crisis, exacerbated by protracted induction processes. A bottleneck, often taking up to five months for medical approvals, hinders enlistment. To streamline this, the British Ministry of Defense is testing an AI-backed system developed by the Capita consulting firm. Crucially, the AI does not directly assess recruit eligibility but expedites backend paperwork. It ensures accuracy and transforms diverse records, including handwritten notes, emails, and voicemails, into a unified, searchable format.

Charting the Future of AI in Military Operations

Despite persistent concerns about AI’s involvement in critical decisions, the DOD AI Adoption Strategy signals its increasing prominence within the military. The success of AI in recruitment and training could serve as a catalyst for broader deployments and increased responsibilities, demonstrating its readiness for a more significant role in shaping the future of military operations.

Conclusion: AI’s Growing Footprint in Defense

In conclusion, as AI continues to demonstrate its value in peripheral military applications, the technology could become a linchpin in reshaping military operations. Balancing advancements with ethical considerations remains crucial, but the success stories in training and recruitment suggest that AI is carving out its place in the future landscape of defense strategies.

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In a significant development, Tinker Air Force Base is gearing up for extensive upgrades to the iconic B-52 Stratofortress, with a focus on replacing aging engines and implementing various enhancements to extend the aircraft’s operational life well into the future.

Milestone B Decision and Engine Testing

The United States Air Force anticipates completing qualification testing for the new engines earmarked for the B-52 Stratofortress by the end of 2024. A pivotal Milestone B decision on the Commercial Engine Replacement Program is expected by the end of the summer. This decision will propel the program into the engineering and manufacturing development phase, a crucial step in the modernization journey.

Comprehensive Modernization Efforts

Colonel Scott Foreman, B-52 system program manager overseeing sustainment and modernization efforts at Tinker Air Force Base, emphasized the comprehensive nature of the upgrades. These enhancements encompass new engines, radar systems, avionics, and other improvements aimed at ensuring the B-52’s relevance until potentially 2060, almost a century after its introduction.

The B-52’s current TF33 engines, dating back to the 1960s, are at the end of their operational lifespan and will be replaced by Rolls-Royce’s F130 engine. To facilitate the modernization process, Tinker Air Force Base plans to construct a substantial hangar starting in 2026, capable of accommodating up to four B-52s simultaneously, thereby increasing the efficiency of upgrade work.

Testing and Validation of Rolls-Royce’s F130 Engine

The Air Force is diligent in testing the F130 engine’s compatibility with the B-52. Initial twin-pod testing of the F130 engines at NASA’s Stennis Space Center in Mississippi was completed last year. Additional tests, including sea-level performance testing and durability testing, are scheduled through 2025. The upcoming tests at the Arnold Engineering Development Complex in Tennessee will simulate altitudes to gather crucial data on the engine’s in-flight behavior.

Upcoming Phases and Facilities

Following successful testing, the first two B-52s are set to undergo modifications at Boeing’s San Antonio facility in 2026. The comprehensive upgrades are expected to take a few years, with ground and flight tests scheduled from late 2028 to 2031. Boeing will establish systems integration laboratories to ensure a smooth integration process, with multiple labs located in Oklahoma City and one focusing on electrical systems near Seattle.

Boeing is expected to provide updated cost estimates around late spring or June, essential for the Air Force to finalize its cost expectations and make the Milestone B decision. The Rolls-Royce engine contract alone is valued at $2.6 billion, with the overall cost estimate for the complete program reaching approximately $12.4 billion.

Tinker’s Role in the Modernization Effort

Tinker Air Force Base, where all production B-52Hs will be upgraded into B-52Js, is strategically positioned to play a pivotal role in the extensive modernization effort. The base’s workforce will conduct upgrades, including engine replacements and radar enhancements, during the regular depot maintenance cycle, which occurs every four years.

As the Air Force aims to conduct as many upgrades as possible during depot maintenance, Tinker is preparing for increased capacity demands. The construction of the “bomber agile common hangar,” starting in 2026 and scheduled for completion by the end of 2030, will provide additional space for simultaneous upgrading of multiple B-52s.

Colonel Foreman highlighted the disciplined approach to structural integrity inspections, ensuring the B-52’s longevity into the 2050s and potentially beyond. With a master plan guiding modifications over the next decade, the Air Force envisions a fleet of 76 B-52s equipped with new engines, radar systems, communications, and more, reinforcing the aircraft’s capabilities for decades to come.

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Semiconductor devices, crucial components in modern electronics, manage the flow of electrons in high-tech products like cell phones, laptops, and medical devices. Despite their importance, material impurities or temperature variations can disrupt electron flow, causing instability. However, a team of theoretical and experimental physicists from the Würzburg-Dresden Cluster of Excellence ct.qmat has developed a groundbreaking semiconductor device using aluminum-gallium-arsenide (AlGaAs), as detailed in the esteemed journal Nature Physics.

The device, boasting electron flow safeguarded by a topological quantum phenomenon, counters interference from impurities or external perturbations. Professor Jeroen van den Brink, director of the Institute for Theoretical Solid State Physics at the Leibniz Institute for Solid State and Materials Research in Dresden (IFW) and a principal investigator of ct.qmat, explains that the topological skin effect eliminates the need for extremely high material purity, potentially reducing the costs of electronics manufacturing.

This topological quantum device, measuring about 0.1 millimeters in diameter, demonstrates exceptional stability and precision. Van den Brink notes its suitability for power-intensive applications and touts it as a new option in sensor engineering. The device’s success lies in realizing the topological skin effect on a microscopic scale in a semiconductor material, a feat not previously achieved in a natural material.

The topological quantum device’s current-voltage relationship is protected by the topological skin effect, confining electrons to the edge. This ensures stable current flow even in the presence of impurities. Additionally, the device’s contacts can detect minute fluctuations in current or voltage, making it well-suited for high-precision sensors and amplifiers with minuscule diameters.

Creative material and contact arrangement on an AlGaAs semiconductor device, combined with ultra-cold conditions and a strong magnetic field, induced the topological effect. The breakthrough is a result of collaborative efforts between scientists in Würzburg and Dresden, part of the ct.qmat project investigating topological quantum materials. The researchers aim to explore this phenomenon further for potential technological innovations.

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In a significant stride towards NASA’s space exploration goals, Collins Aerospace has recently accomplished a crucial design milestone in the development of a next-generation spacesuit for use on the International Space Station (ISS).

The milestone, involving a pressure garment system fit and functionality test in a microgravity-like environment, is a pivotal step towards creating a suit that can facilitate ongoing operations and enhance scientific exploration in low Earth orbit.

NASA has entrusted Collins Aerospace with the task of designing a new spacesuit to replace the current extravehicular mobility unit, worn by astronauts for over two decades during the assembly and maintenance of the space station.

To simulate microgravity conditions, Collins conducted the test aboard a commercial microgravity aircraft, which provides brief periods of weightlessness during parabolic flights. These flights, characterized by roller-coaster-like maneuvers, create weightless conditions for around 20 seconds, allowing engineers, scientists, and students to assess hardware and conduct scientific experiments in a space-like gravity environment without leaving Earth.

This test represents a crucial phase in NASA’s preliminary design review process, ensuring that the design meets all system requirements before moving forward to the manufacturing of flight-ready units.

Collins Aerospace plans to continue testing the spacesuit in a vacuum chamber, where air will be removed to create a space-like atmosphere. Additionally, further testing will take place at NASA’s Neutral Buoyancy Laboratory, a 40-foot deep pool at the Johnson Space Center in Houston, simulating a microgravity environment for astronaut spacewalk training.

The development of this next-generation spacesuit aims to enhance NASA’s spacewalking capabilities in low Earth orbit, supporting station maintenance and operations. As NASA and its international partners pursue scientific research for the benefit of humanity, this advanced spacesuit will also play a crucial role in demonstrating new technologies for future human and robotic missions.

Original Article by NASA

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In a significant development for military technology, Nexter, a proud member of KNDS, and Safran Electronics & Defense have secured a contract from the French Ministry of Defense’s procurement and technology agency (DGA) for the modernization of sights on the revamped Leclerc tank, now known as Leclerc XLR.

The temporary company grouping (GME) composed of Nexter and Safran Electronics & Defense has been tasked with developing and integrating cutting-edge observation and engagement systems for both the tank commander and gunner. These systems are vital for the crew, enabling them to detect, identify, and target objects several kilometers away before engaging them, meeting the demanding requirements of the modern battlefield.

A pivotal component of this modernization effort is the integration of the state-of-the-art PASEO sight, a product of Safran Electronics & Defense. Known for its success in armored vehicles like the JAGUAR, the PASEO sight is set to elevate the Leclerc XLR’s capabilities to new heights.

Undergoing a digital transformation, the Leclerc tank’s optronic core will be digitized to enhance data flow and deliver high-quality images in diverse conditions. The transition from an analogue to a digital video system represents a technological leap, with the gunner’s sight benefiting from the inclusion of the latest-generation optronic sensors and electronics.

Equipped with Scorpion vetronics, reinforced protection, a new remotely operated turret, and these advanced sights, the Leclerc XLR is poised to face a spectrum of threats on the modern battlefield until its successors take the reins. Production of the Leclerc XLR commenced in 2023, with the tanks set to be delivered, complete with their upgraded sights, by 2035.

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The quantum industry, although still in its early stages, holds tremendous potential for influencing technology and society. Quantum computing (QC), a widely discussed application, has the capacity to transform fields like machine learning (ML) and cryptography. By leveraging the principles of quantum mechanics, these computers promise to perform complex calculations at speeds beyond the reach of classical computers. It’s crucial to note that practical, widespread applications are still years away as the technology is in its developmental phase.

In 2023, the quantum technology market, encompassing quantum computing, attracted over $1 billion in new private capital through nearly 80 disclosed funding rounds, indicating a growing interest in the sector. The distribution of this investment underscores the complexity and diversity of the quantum technology market, with 48% going to quantum computing hardware components, 18% to quantum computers, and 22% to quantum sensing and imaging. Software development in quantum computing accounted for 6% of the investment.

Quantum Technology Applications

Quantum technology has the potential to drive innovation in various sectors, including computing, communications, and sensing. Quantum computing, using qubits, offers unparalleled processing power, surpassing traditional computing. This advancement has attracted interest from major companies and governments, as evidenced by Google’s Sycamore achieving “quantum supremacy” in 2019. However, challenges in hardware, error correction, and scalable systems persist. Despite these challenges, quantum computing is poised to drive significant industry transformations, demanding attention from businesses and professionals to harness its future impact.

The technology stack for quantum computing involves various layers, including end users accessing quantum devices through interfaces, Quantum Processing Units (QPUs) using multiple qubit implementations, and the overlap of quantum compilers and application interfaces. Control hardware and software are crucial for operating quantum devices. The stack also includes classical processing units (CPUs) and graphical processing units (GPUs) in addition to quantum processors.

Image: IBM

In quantum communication, concepts like quantum internet are emerging, potentially offering unprecedented levels of security using quantum cryptography to create unbreakable encryption. However, as with computing, practical realization of a quantum internet is a long-term goal, posing challenges to existing encryption methods. Quantum communications, leveraging quantum key distribution (QKD), could potentially enhance security. Meanwhile, quantum sensing could revolutionize fields like medical imaging and navigation. Despite their promise, these technologies are still under development and not yet ready for widespread clinical use.

Quantum’s Impact on Industries

Quantum technology, at the forefront of heavy engineering trends, promises to transform industries, from material development and natural resource exploration to enhancing security. Quantum computing, with its advanced simulation capabilities and optimization calculations, stands out in sectors like logistics, finance, and transportation. It also has implications for cybersecurity, with the potential to break and reinforce encryption methods. As industries and governments invest in exploring its applications, quantum technology’s role in future innovations is becoming increasingly significant.

Investment spans various hardware components, including dilution refrigerators, vacuum chambers, and coaxial cables. There’s significant investment in quantum software interfaces and Quantum Computing as a Service (QCaaS) offerings. Diverse qubit modalities received investment, with silicon (38%), photonics (27%), and neutral atoms (20%) leading the way, as of 2023. The private investment in Quantum Processing Units (QPUs) varied by modality, indicating the sector’s evolving nature.

Challenges and Limitations in the Quantum Industry

Quantum computing has made impressive progress but faces significant challenges before becoming widely practical. These include managing qubit decoherence, developing error correction techniques, scalability, hardware, and software advancements, interfacing with classical computers, establishing standards and protocols, increasing the trained workforce, and managing high costs. Despite these hurdles, ongoing research and investments suggest a gradual overcoming of these obstacles through small advancements and collaborative efforts across various sectors.

The investor landscape in the quantum industry is diverse, with a range of investors, including venture capitals, corporate VCs, and government offices. Some sector specialists and consistent investors are emerging, with a notable focus on early-stage ventures in deep physics and quantum technologies. Investment is not limited to private capital but also includes substantial government funding and corporate investment.

What Does the Future Hold for the Quantum Industry?

Most experts in the industry expect significant advancements in quantum computing within the next decade, particularly in achieving a quantum advantage over conventional computing for specific applications. However, there’s no clear consensus on which qubit technology will dominate. Gate-based quantum computers are seen as the most promising, but other types remain contenders. The development pace is expected to reach operational levels by the 2030s, yet widespread commercial availability remains uncertain. Factors like resource availability and geopolitical climate are crucial in shaping the future of quantum computing, with potential impacts on development and international cooperation. The quantum computing landscape is still evolving, with uncertainties around technology maturity and geopolitical stability.

Despite a decrease in private investment in 2023, returning to 2019/2020 levels, the sector remains robust. Government initiatives and funding are critical for the quantum technology sector, with over 33 governments having ongoing quantum technology initiatives. The future outlook suggests a continued interest in quantum technologies, with expectations of more technical and engineering breakthroughs, increased government procurement, and a possible evolution in venture capital focus towards deep tech.

Key Players in the Quantum Industry

In the quantum computing sector, key players are the big corporations which include IBM, Google Quantum AI, Microsoft, AWS, Alibaba Group, Atos Quantum (EVIDEN), Baidu, and Intel. Each entity brings unique contributions and advancements to the field:

Each company is making progress in the field, yet the future of quantum computing remains in development with various technical and geopolitical factors influencing progress.

2023 has seen the quantum technology market receive significant investment, distributed across various sub-sectors with the majority going into full-stack quantum companies, drawing attention to the sector’s capital intensity. This investment trend reflects the complexity of the quantum computing technology stack, which includes various layers already mentioned. Funding, too, with its diverse investor landscape includes venture capitals, corporate VCs, and government offices, giving credence to the sector’s evolving nature and the importance of government initiatives in funding.

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NATO and Partner air forces have embarked on a new year with a significant milestone – the commencement of the first multinational Flying Course at the Tactical Leadership Programme (TLP) in Albacete, Spain. Over 30 jets from various nations are participating in this groundbreaking initiative, bringing together 650 individuals, including pilots, intelligence officers, and Ground-controlled interception (GCI) controllers.

Multinational Collaboration: The course features simulated flying operations involving 34 fighter jets, with contributions from nations such as the Czech Republic, France, Greece, Italy, Spain, and Switzerland. NATO and French Airborne Warning and Control System (AWACS) aircraft are overseeing the missions, ensuring a comprehensive and collaborative training experience.

Diverse Training Elements: The training program incorporates a range of elements to create a theatre-realistic environment. Spanish MQ-9 Predator unpiloted systems, Italian personnel recovery experts, and joint terminal attack controllers from the United States and Spain contribute to the diverse skill sets being honed. Additionally, helicopters and air extraction teams from Italy, Spain, and the United States are actively participating in the exercises.

State-of-the-Art Simulations: Lieutenant Colonel Luca C. Restelli, the lead of the flying course, highlighted the comprehensive preparatory training that includes laying theoretical and doctrinal foundations. Simulations are conducted in the Modern Air Combat Environment (MACE) simulator, providing participants with a dynamic and realistic virtual phase. The subsequent weeks focus on improving leadership, flying skills, and tactical interoperability.

Tactical Leadership Development: During synthetic and live missions, participants are tasked with developing the tactical leadership skills necessary to plan, brief, fly, and debrief fully integrated multinational formations. The course structure involves different crews leading others through all phases of missions, gradually increasing in complexity. The scenarios presented are frequently updated to incorporate modern warfare tactics and integrate new weapon systems.

Objectives and Strategies: Colonel Alberto Martínez Ruiz, Commandant of the TLP, underscored the program’s primary objective of enhancing the effectiveness of Allied and Partner air forces in tactical leadership and strategic initiatives. The TLP follows a five-pillar strategy, including the integration of 4th, 5th, and Xth Generation platforms, adopting the Agile Combat Employment concept, live-virtual-constructive training, a state-of-the-art Contested-Degraded Operations environment, and the introduction of Joint All Domain factors in challenging air scenarios.

The multinational Flying Course at the TLP in Albacete represents a significant step forward in fostering collaboration and enhancing the capabilities of NATO and Partner air forces. As participants engage in diverse and challenging scenarios, the program aims to cultivate tactical leadership skills and ensure readiness in the face of evolving global security challenges.

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Source: Defense Industry Europe


Safran Aircraft Engines and the national aerospace research agency of France, ONERA, have initiated initial wind tunnel tests using the ECOENGInE, a 1:5 scale prototype of the future Open Fan. These trials are taking place at ONERA’s wind tunnel facility in Modane, France. This innovative architecture, a critical component of the CFM RISE technology demonstration program, currently shows the most promise in terms of reducing the environmental impact of aviation. The goal of the Open Fan is to decrease fuel burn and CO2 emissions by 20%, with a potential increase to 80% when combined with SAFs or sustainable aviation fuels, for the next generation of single-aisle commercial jets by 2035.

In support of refining the aerodynamics and acoustics of the Open Fan, Safran Aircraft Engines and ONERA recently formalized a framework agreement for an ambitious testing plan spanning from 2024 to 2028. This plan builds upon previous experiments with the ECOENGInE.

Tests on the ECOENGInE, endorsed by the French Civil Aviation Authority (DGAC) as part of the CORAC plan, aim to showcase the aerodynamic and acoustic performance of the fan module by simulating real-world airspeeds in a wind tunnel and validating the design of the fan blades. These blades are crucial to the overall efficiency of the engine. The campaign involves over 200 hours of testing, followed by simulation tests with the engine mounted on a demonstrator plane wing section. For these assessments, Safran Aircraft Engines leverages the expertise of ONERA teams and utilizes the world’s largest sonic wind tunnel, the S1MA tunnel, with its unique dimensions of 8 meters across (over 26 ft) and high airflow speed. This facility plays a pivotal role in developing new propulsion systems for the next generation of aircraft.

Marie-José Martinez, Wind Tunnels Director for ONERA, emphasized ONERA’s role as scientific experts in aerospace and their commitment to reducing the environmental footprint of aviation. She expressed pride in the partnership with Safran, making ONERA’s outstanding facilities and renowned engineers available.

Pierre Cottenceau, VP Engineering and R&T for Safran Aircraft Engines, highlighted the significance of the wind tunnel tests in their Research & Technology roadmap. This roadmap aims to develop the technological foundations for the next generation of commercial jet engines, with the RISE program showcasing the benefits of an unshrouded engine architecture on the ground and in flight by the mid-decade.

Safran is actively coordinating the demonstration of the Clean Aviation OFELIA project (Open Fan for Environmental Low Impact of Aviation), engaging 26 European partners, including ONERA. Additionally, Safran is involved in various technological building blocks, including hybrid propulsion, aligned with the Open Fan architecture.

A comprehensive testing program is underway across Safran sites to advance the maturity of these technologies, essential for helping air transport achieve carbon neutrality by 2050. For instance, the Villaroche center in France has already completed ingestion tests on Open Fan blades and is currently constructing a new test stand facility. Operational in 2025, this facility with an 8-meter-wide (26 ft) chamber will conduct development and certification tests for the RISE program.

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Source: SAFRAN