NASA, in collaboration with partners including the Federal Aviation Administration (FAA), leading universities, and key players in the aviation industry, has officially launched the 2026-2027 "Fueling Flight Design Challenge: New Energy Systems." This initiative, part of the broader "Dream with Us" program, aims to engage middle and high school students in addressing critical challenges facing the United States’ National Airspace System (NAS), particularly the imperative to find sustainable and efficient new energy systems for aviation. As the volume of air traffic continues its upward trajectory, the urgency to enhance safety, reduce operational costs, accelerate travel times, and, critically, discover novel and environmentally friendly fuel sources becomes paramount.
The 2026-2027 challenge specifically zeroes in on the transformative potential of new aircraft fuels. Participants are tasked with exploring how the integration of just one new fuel type can necessitate profound changes, not only to the aircraft themselves but also to the intricate infrastructure of the airports from which they operate. This year’s focus highlights Liquid Natural Gas (LNG) as the emerging fuel source for teams to investigate, pushing young minds to conceptualize the future of sustainable aviation.
Addressing Aviation’s Grand Challenges
The aviation sector stands at a pivotal juncture, grappling with the dual pressures of burgeoning demand and an escalating need for environmental stewardship. Projections from the International Air Transport Association (IATA) indicate that global passenger numbers could reach 8.2 billion by 2037, nearly doubling from 2017 levels. This growth, while indicative of global connectivity, places immense strain on existing infrastructure and accelerates the consumption of traditional jet fuels, which are significant contributors to global carbon emissions. The International Civil Aviation Organization (ICAO) has set ambitious goals for reducing aviation’s environmental footprint, including a long-term aspirational goal (LTAG) for net-zero carbon emissions by 2050, underscoring the critical need for innovation in propulsion and fuel technology.
"The future of flight is not just about faster or higher; it’s about smarter and greener," stated a hypothetical NASA Aeronautics spokesperson, emphasizing the agency’s commitment to sustainable aviation. "Our ‘Dream with Us’ challenge is designed to tap into the boundless creativity of the next generation, asking them to envision solutions to real-world problems that our top engineers and scientists are tackling today. By focusing on new energy systems like LNG, we’re preparing them for a future where sustainable aviation isn’t an option, but a necessity."
For decades, commercial aircraft design has largely adhered to a "tube-and-wing" paradigm, constrained by the materials and manufacturing technologies available. However, advancements in composites, additive manufacturing, and digital design tools have liberated engineers from these traditional limitations, opening doors to radical new aircraft configurations and propulsion systems. Concurrently, extensive research into alternative fuel types, including sustainable aviation fuels (SAFs), hydrogen, battery-electric power, and liquefied natural gas (LNG), is yielding promising results. Each of these alternatives presents unique opportunities and challenges, demanding holistic approaches that consider both aircraft modifications and ground infrastructure adaptations.
The Role of Liquid Natural Gas (LNG) in Aviation
Liquid Natural Gas (LNG) is methane that has been converted to liquid form for ease of storage or transport. It is cooled to approximately -162°C (-260°F), reducing its volume significantly, making it an attractive option for high-energy-density applications. While LNG is already widely used in shipping and heavy-duty road transport as a cleaner-burning alternative to diesel, its application in aviation is still in its nascent stages.
The potential benefits of adopting LNG in aviation are multifaceted. From an environmental perspective, LNG combustion typically produces significantly lower carbon dioxide emissions compared to traditional jet fuel, along with reduced emissions of nitrogen oxides (NOx) and particulate matter. Economically, natural gas is often more abundant and, in some regions, more cost-effective than petroleum-based fuels, potentially offering airlines operational savings. Furthermore, a diversified fuel portfolio enhances energy security and resilience against price volatility in the oil markets.
However, the integration of LNG into aviation is not without its complexities. LNG requires cryogenic storage, which necessitates specialized insulated tanks on aircraft and at airports. Refueling procedures would be significantly different from those for jet fuel, requiring new safety protocols and equipment. The energy density of LNG by volume is lower than jet fuel, meaning larger tanks might be needed, potentially impacting aircraft design and payload capacity. Safety considerations, given the flammability of methane and the extreme cold of LNG, are paramount and require rigorous engineering and operational standards. Students participating in the "Fueling Flight Design Challenge" are expected to delve into these considerations, providing a comprehensive understanding of both the opportunities and obstacles.
Challenge Structure and Eligibility
The "Fueling Flight Design Challenge: New Energy Systems" is thoughtfully segmented to cater to different age groups, ensuring age-appropriate tasks and learning objectives. Middle school teams (grades 6-8) and high school teams (grades 9-12) will undertake distinct but related tasks, both focusing on the integration of LNG. A crucial rule stipulates that teams comprising both middle and high school students must compete in the high school challenge, ensuring a level playing field.
Middle School Challenge: Reimagining Airport Infrastructure
Middle school teams, consisting of 2-4 members, are tasked with an ambitious design challenge: to adapt an existing airport or create an entirely new one that seamlessly incorporates the use of both liquefied natural gas (LNG) and traditional aviation fuel. This exercise pushes students to think holistically about infrastructure, logistics, and operational changes. Their airport designs must be comprehensive, detailing the overall layout and including, but not limited to, control tower(s), hangars, fuel locations, terminal buildings, passenger parking facilities, and runways. Specific requirements for each of these elements will be outlined in the detailed challenge brief. This task aims to cultivate an understanding of complex systems, urban planning, and the practical implications of technological shifts.
Challenge Timeline and Submission Process
The 2026/2027 Dream with Us Design Challenge officially opens its submission period for middle school entrants on September 25, 2026. Teams will have ample time to research, design, and refine their concepts, with the submission window closing on January 22, 2027, at 11:59 pm ET. All entries must be submitted electronically through a dedicated link on the official Dream with Us Design Challenge webpage: https://www.nasa.gov/dream-with-us/.
To ensure broad participation while maintaining ethical guidelines, schools, organizations, and community groups are advised to communicate clearly with parents and guardians. Each team is limited to one entry, fostering focused effort and originality. Team registration requires an individual over the age of 13 to create the account; adult team sponsors are welcome to handle registration on behalf of their teams. Furthermore, signed permission forms from parents or legal guardians are mandatory for all participants, signifying agreement to the terms and requirements detailed on the submission form and challenge webpage.
Submission Components: Technical and Creative
Each team’s submission will be evaluated based on two distinct yet interconnected categories: a technical presentation and a creative presentation. Both components are essential for consideration, ensuring that participants not only grasp the technical complexities but can also effectively communicate their innovative solutions.
The technical presentation, delivered via PowerPoint or a similar presentation software, must comprehensively detail the team’s proposed airport design and its rationale. This section is expected to showcase the students’ research into LNG, its application in aviation, the benefits of introducing an additional fuel source, and the specific modifications required for both aircraft and airport infrastructure. All sources, including images and data, must be meticulously cited, reinforcing academic integrity.
The creative submission offers teams an opportunity to showcase their persuasive communication skills. This component requires the development of an advertisement that highlights the benefits of their newly modified airport, specifically its capability to utilize both LNG and traditional aviation fuel. The target audience for this advertisement is left to the teams’ discretion, allowing for diverse approaches—it could be city or state leadership, potential investors interested in establishing businesses at the airport, or even airlines considering new flight routes to this advanced facility. The format of this advertisement is flexible, encouraging ingenuity: teams might produce a compelling video, design an interactive website, develop a mock mobile application, create a detailed brochure, or propose another innovative presentation format. This creative aspect ensures that students think beyond engineering and consider the broader societal and economic implications of their designs.
A Strict Stance Against Artificial Intelligence
In a firm commitment to fostering genuine student innovation and critical thinking, the "Fueling Flight Design Challenge" explicitly prohibits the use of artificial intelligence (AI) tools for any challenge-related work. This includes, but is not limited to, uploading, processing, or generating content using publicly available browser-based Generative AI (GenAI) services, AI-assisted code generation tools, or AI-generated imagery. All submissions must be the sole creation of the team members, without any assistance from AI systems. This rule underscores the challenge’s core objective: to nurture the problem-solving skills and original ideas of young participants, ensuring that the learning experience is authentic and deeply personal.
Evaluation and Recognition
Entries will undergo a rigorous evaluation process conducted by industry experts. Judges will assess projects based on four key criteria: impact, practicality, originality, and the clarity and effectiveness of communication. These criteria ensure that winning projects are not only innovative and well-researched but also feasible and impactful in addressing the challenge’s objectives.
Winners of the middle school challenge will first be announced during a virtual awards reception, the date of which will be announced later. Following this reception, the winning projects will be celebrated across social media platforms and featured prominently on the Dream with Us design challenge webpage, providing national recognition for the students’ achievements.
Supporting the Next Generation of Innovators
To equip participants with the necessary knowledge and tools, NASA and its partners will provide a wealth of educational resources. These resources include lessons and activities designed to help students learn more about aircraft and airport design, as well as broader considerations for aviation. Specific research links on liquefied natural gas (LNG) as an aviation fuel source will also be made available, enabling teams to conduct thorough investigations.
For educators and student teams seeking additional guidance, a mid-point check-in session will be organized in October 2026. Details regarding these dates and how to participate will be released on the Dream with Us design challenge webpage. This initiative underscores NASA’s dedication to supporting STEM education and inspiring the next generation of aerospace engineers, scientists, and innovators.
"These challenges are more than just competitions; they are incubators for future talent," commented a representative from the FAA. "The insights and creativity shown by students often surprise us and can even inform real-world policy and technological development. We are not just looking for answers; we are fostering a mindset of inquiry and innovation that is crucial for the future safety and efficiency of our National Airspace System."
Broader Implications for Aviation and STEM Education
The "Fueling Flight Design Challenge" holds significant implications beyond the immediate competition. For the aviation industry, it represents a direct engagement with future stakeholders, potentially surfacing novel ideas and perspectives that might otherwise be overlooked. It fosters a culture of innovation from the ground up, encouraging systemic thinking about complex transitions in energy and infrastructure. As the industry strives for decarbonization, student-led designs for multi-fuel airports or innovative aircraft configurations could serve as conceptual blueprints for future development.
For STEM education, the challenge provides an unparalleled opportunity for experiential learning. By tackling a real-world problem of national and global significance, students move beyond theoretical concepts to apply scientific principles, engineering design processes, and critical thinking skills. The interdisciplinary nature of the task—combining physics, chemistry, urban planning, economics, and communication—prepares them for the multifaceted challenges of future careers. The strict "no AI" policy ensures that students develop genuine research, analytical, and creative capabilities, essential skills in an increasingly AI-driven world.
"We believe that every student has the potential to contribute to the future of flight," added the NASA spokesperson. "By setting challenges that mirror the complexities faced by our scientists and engineers, we are not only inspiring them but also providing them with the practical skills and confidence to become the problem-solvers of tomorrow."
For any additional questions regarding the challenge, interested parties are encouraged to reach out to the NASA Aeronautics STEM team at [email protected]. The "Dream with Us" initiative continues to be a cornerstone of NASA’s efforts to cultivate a vibrant, innovative, and sustainable future for air travel, powered by the ingenuity of young minds.
