ASU and Honeywell Collaborate on Next-Gen Aircraft Tech

Advancing Aerospace: ASU and Honeywell’s Vision for the Future of Flight

Aircraft technology is entering a transformative era, driven by the urgent need for sustainability, efficiency, and safety. At the forefront of this change are Arizona State University (ASU) and Honeywell Aerospace Technologies, whose collaboration is shaping the next generation of aviation. Their joint efforts aim to electrify aircraft systems, improve fuel efficiency, and develop safer, more reliable propulsion technologies.

The recent “More Electric, More Efficient” Aircraft Industry Day, held at ASU’s Tempe campus, showcased the depth and breadth of this partnership. The event brought together leaders from academia, industry, and government, including representatives from NASA, to explore innovations in electric propulsion, battery chemistry, and avionics. These discussions highlighted the critical role of collaboration in solving the complex challenges facing modern aviation.

With the aviation industry under increasing pressure to reduce carbon emissions and align with global sustainability goals, the ASU-Honeywell alliance presents a compelling model for how academic research and industrial expertise can converge to drive impactful change.

Technological Innovations Powering Next-Gen Aircraft

Electrification and Hybrid Propulsion

One of the central themes of the ASU-Honeywell partnership is the electrification of aircraft systems. Electrification offers the potential to reduce reliance on fossil fuels, lower emissions, and improve operational efficiency. Honeywell is developing groundbreaking technologies such as high-temperature electrical insulators designed for electric propulsion systems, which are crucial for maintaining performance under extreme conditions.

Additionally, electromagnetic braking systems are being tested to replace traditional friction-based systems. These systems not only reduce maintenance costs but also contribute to overall aircraft weight reduction, which can improve fuel efficiency.

ASU researchers are contributing significantly to this effort. Professor Candace Chan’s work on solid-state batteries represents a leap forward in battery safety and energy density. Unlike conventional lithium-ion batteries, solid-state variants use non-flammable materials, mitigating the risks of thermal runaway and in-flight incidents.

“There’s this interesting graphic on the FAA website where they keep track of new battery incidents on planes. They’re increasing, and they’re going to keep increasing, Prof. Candace Chan, ASU

Advanced Avionics and Sensing Technologies

Beyond propulsion, avionics and sensing technologies are also undergoing rapid innovation. Assistant Professor Suren Jayasuriya presented his research on non-line-of-sight imaging, a technology that enables aircraft to detect obstacles even when they’re not directly visible. This capability is especially valuable for urban air mobility (UAM) applications and emergency response operations.

These imaging systems use light and sensors to reconstruct environments around corners or through obstructions, creating safer navigation systems for both piloted and autonomous aircraft. Honeywell’s integration of such technologies into their avionics systems aligns with their broader strategy of enhancing situational awareness and system reliability.

Meanwhile, ASU’s research into composite materials is supporting NASA’s efforts to reduce aircraft weight. By incorporating carbon-fiber-reinforced polymers (CFRP), structural weight can be reduced, increasing range and reducing fuel consumption.

Battery Chemistry and Safety Innovations

Battery safety remains a critical challenge in the electrification of aircraft. Lithium-ion batteries, while widely used, pose fire risks due to their liquid electrolytes. Professor Chan’s team is exploring solid-state batteries, which not only offer higher energy densities but also eliminate flammable components.

These batteries are being developed in collaboration with NASA’s SABERS project, which aims to commercialize the technology by 2035. The goal is to reduce battery production costs, making them viable for widespread aviation use.

Such advancements are essential for meeting the International Air Transport Association’s (IATA) net-zero emissions target by 2050, as battery-powered aircraft become a larger part of the aviation ecosystem.

Building a Sustainable and Skilled Aerospace Ecosystem

Industry-Academia Collaboration

The partnership between ASU and Honeywell extends beyond research—it’s also about building a sustainable workforce. The Honeywell Innovation Hub on ASU’s Tempe campus serves as a bridge between students and industry, offering hands-on experience with engineering tools, mentorship from Honeywell professionals, and exposure to real-world challenges.

Students benefit from weekly tech talks, annual hackathons, and internship opportunities that prepare them for careers in aerospace. Over 100 students annually engage in Honeywell-led projects, gaining insights into areas like avionics, propulsion, and systems engineering.

Grace Llamas, a sophomore in mechanical engineering, shared how the event shifted her academic perspective: “I still have a lot to learn about the electrification of all different kinds of aspects of aircraft. What I heard the speakers talk about is going to give me more motivation to hold on to those concepts.”

Global Impacts and Market Trends

The innovations discussed at the Aircraft Industry Day align with broader market trends. The global electric aircraft market is projected to experience significant growth. This growth is driven by the rise of electric vertical takeoff and landing (eVTOL) aircraft and increasing investment in sustainable aviation technologies.

Honeywell’s avionics systems, tested under Phoenix’s extreme climate conditions, are vital to this growth. These systems enable autonomous operations and support the integration of UAM into congested urban airspaces. Regulatory frameworks, like the FAA’s NextGen program, are also evolving to accommodate these technological advancements.

However, infrastructure remains a challenge. The development of vertiports—landing and takeoff zones for eVTOLs—requires substantial global investment by 2040. Addressing these needs will be essential for realizing the full potential of electric flight.

Future Events and Continued Collaboration

Looking ahead, Honeywell and ASU plan to host more events to foster innovation and collaboration. These gatherings serve as platforms for knowledge exchange, networking, and the incubation of new ideas that can shape the future of aerospace.

Ryan Barlow, a master’s student in aerospace engineering, emphasized the value of these opportunities: “I met numerous professionals in my desired field of work. It’s exceptionally beneficial using the event as a low-pressure networking opportunity.”

Such testimonials underscore the importance of sustained engagement between academia and industry, not only for technological progress but also for cultivating the next generation of aerospace leaders.

Conclusion

The collaboration between ASU and Honeywell Aerospace Technologies is more than a partnership—it’s a blueprint for how innovation, education, and industry can converge to address the pressing challenges of modern aviation. Through advancements in electrification, battery safety, and avionics, they are paving the way for a more sustainable and efficient future in air travel.

As global aviation moves toward net-zero emissions and smarter, safer operations, initiatives like these will play a pivotal role. By fostering cross-sector collaboration and investing in student development, ASU and Honeywell are not only innovating for today but also building the foundation for tomorrow’s aerospace breakthroughs.

FAQ

What is the goal of the ASU-Honeywell collaboration?
To develop next-generation aircraft technologies focused on electrification, sustainability, and safety through joint research, student engagement, and industry partnerships.

What are solid-state batteries and how do they differ from lithium-ion batteries?
Solid-state batteries use solid electrolytes instead of flammable liquids, offering higher energy density and improved safety, making them ideal for aviation applications.

How does ASU support student involvement in aerospace innovation?
Through the Honeywell Innovation Hub, internships, tech talks, and collaborative projects, ASU provides students with hands-on experience and networking opportunities in the aerospace field.

What are the future plans for this collaboration?
ASU and Honeywell plan to host more industry events and expand research initiatives, aiming to accelerate the development of sustainable aviation technologies and workforce readiness.

Sources: ASU News