A Philadelphia student just pocketed $300,000 from NASA for a meal plan that could save the first humans on Mars
Navigating space food systems.
A Philadelphia student just pocketed a $300,000 prize from NASA for creating a food system that could sustain the first humans on Mars. According to PEOPLE, Chinyere Ukeje, who is currently working toward a master’s degree in computer science at Johns Hopkins University, took home the top honor in NASA’s Mars To Table challenge.
Ukeje’s winning concept, known as the Adaptive Nourishment Infrastructure, or ANI, offers a clever way to keep astronauts fed during long-duration deep space missions. NASA launched the Mars to Table challenge in January 2026. The competition served as a follow up to the earlier Deep Space Food Challenge, which ran from 2021 to 2024 in collaboration with the Canadian Space Agency.
While previous efforts focused on individual food production technologies, this new challenge asked participants to design a complete, integrated system. The agency needed a plan that could feed a 15-person crew for 500 Martian sols, which is roughly 513 Earth days.
Current methods for feeding astronauts won’t work for a Mars mission
Right now, meals are cooked, packaged, and sent from the Space Food Systems Laboratory at the Johnson Space Center. Because a one-way trip to Mars takes at least nine months, bringing enough pre-packaged food for the entire journey simply isn’t sustainable. NASA also noted that shelf stability and mass restrictions mean pre-packaged meals cannot be the default option for these future explorers.
Ukeje’s ANI system is designed to produce 50% of a crew’s food away from Earth. It combines several different methods, including controlled-environment agriculture, fermentation, and fungi cultivation. The system also features closed-loop nutrient recycling through bioreactors.
Named after the Nigerian Earth goddess of harvest and fertility, the system is meant to be resilient. It includes provisions to keep operating even if there are shortages of water, power, equipment, or crew time.
The design is also surprisingly practical for life in space
According to reports, Ukeje outlined a system where astronauts could take cubes of nutritious food and prepare them using portable electric lunch boxes. This approach helps address the psychological side of space travel. “The problem of feeding astronauts on Mars is more than just growing crops,” Ukeje said. “You want them to feel at home when they are millions of miles from home.”
Jennifer Edmunson, the program manager for Centennial Challenges at NASA’s Marshall Space Flight Center, expressed excitement about the results. “We’re thrilled to keep advancing the future of space food systems with this challenge,” she stated. “The future of human space exploration will rely on innovative food systems, and it is amazing how much ingenuity this challenge has helped us identify from participants near and far.”
The competition was quite intense. NASA received 113 submissions from 33 countries and 28 U.S. states. A panel of judges evaluated the entries based on design layouts, meal plans, and concepts of operations. “The criteria we laid out for this competition were challenging, but intentionally so,” head judge Dr. Alexander Meyers noted. The competition highlights the complexity of space food systems and the human ingenuity required to solve these problems.
There were five winning teams
In addition to the first-place prize, NASA awarded $650,000 in total to five winning teams. The second-place prize of $200,000 went to Cislune, a team from Rosemead, California. Their concept, called Fresh, Ferment, Reserve, uses model-selected crops and instrumented culture cassettes to turn harvests into familiar foods. They also included a protected Earth-loaded reserve to help in case of biological variability or utility issues.
Other winners included teams from Hawaii, Indiana, and Arkansas, each receiving $50,000 for their specific contributions. An international team from Belgium was also recognized for their work on a food resilience ecosystem. These projects act as launching pads for future deep space food systems, giving NASA new tools to consider as they plan for the 2030s, when the first missions to Mars might finally take place.
Centennial Challenges have been around for more than 20 years, helping NASA engage the public to solve complex technical problems. These challenges have previously contributed to advancements in areas like robotics, biology, and additive manufacturing.
By opening these problems to the public, NASA is finding creative ways to tackle the immense hurdles of long-term space exploration. While we are still years away from seeing humans walk on the surface of Mars, these food system designs are a major step toward making that future a reality.
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