Australian Virtual Astronaut Challenge
Challenge 1
– What We Eat
NASA Shortfall: 1525 – Food and nutrition for Mars and Sustained Lunar
Energy, nutrition, sustainability.
How can we sustain life off-world? In this mission, you will explore the complex challenges in nutrition that face astronauts for long-term habitation in space.
What is a shortfall?
A shortfall is a technology area requiring further development to meet future exploration, science, and other mission needs. In the case of shortfalls, we may only know where we are today.

The Challenge: Sustained Lunar Food and Nutrition
The primary objective for any long-term presence on the Moon (such as the planned Artemis Base Camp) is sustainability. Sending resupply missions from Earth is incredibly expensive and infrequent.
Astronauts will need a food system that is:
- Nutritionally Sound
Provides the correct balance of calories, macronutrients (proteins, fats, carbohydrates), and micronutrients (vitamins and minerals) required to maintain health under lunar gravity and high-radiation conditions. - Sustainable
Requires minimal resupply from Earth by growing, recycling, or producing food components locally. - Appetising and Diverse
Long missions require food that astronauts will actually want to eat to ensure they consume enough calories and nutrients. - Energy-Efficient
The power required to operate food production (e.g., growing crops, preparing meals) must be minimised to conserve the habitat’s limited energy supply.
Your Mission
There are 3 scenarios that you can explore in Challenge 1: What We Eat. One scenario is open to any solution you can imagine, with the other two curated experiences with more specific challenges and outcomes.
1. Open AVA Challenge: Design your own system, technology, or method that addresses the challenges of energy, nutrition, and sustainability for providing food to a crew of four astronauts living on a lunar base for one year.
2. Grow for Launch: Investigate a staged introduction to hydroponics with the ARC Centre of Excellence Plants for Space. This FREE addition to AVA utilizes an easy-to-use Starter/Imagination Kit as a foundational scaffold with a focus on integrating plant studies with Controlled Environment Agriculture (CEA) and engineering design. Once students have explored hydroponics with the P4S Kit they will create their own hydroponic design through the iSTEM framework. More information can be found at Grow for Launch. There is a limited number of kits, so order yours today!
3. Mission MushVroom: Replay the historic Fram2 mission when Australian explorer and astronaut Eric Philips orbited the Earth over a polar inclination which had never been done before. Along with many research experiments the crew investigated, Eric brought along another first for space research: mushrooms! You investigate the nutritional value of mushrooms and the extended benefit of carbon cycling through decomposition. The investigation is reimagined as the first lunar scientists establishing a lunar science station covering 4 phases over 12 weeks. Once students have explored mushroom spawn expansion with the official substate block they will create their own mushroom cultivation design through the iSTEM framework. This scenario has a nominal cost as every participant must begin with the same substrate block. Optional materials are also available to complete the mission. Basic cost is estimated to start at $40. Learn more when the mission is revealed in February!
Videos – Growing Food in Space
Supporting videos on growing food in space.
How Astronauts Grow Plants in Space
Recently, astronauts were able to grow and eat lettuce in space! How was this possible?. (03:25 Minutes)
NASA is growing chili peppers in space
NASA has begun to grow peppers from 48 Hatch chili pepper seeds for the Plant Habitat-04 (PH-04) experiment. (01:06 Minutes)
China grows rice on the Tiangong station
The Shenzhou-14 crew on the Tiangong space station have grown rice to study how the life cycle is affected by microgravity. This research will help improve nutrition in space and potentially back on Earth. (1:24 minutes)
How to water plants in space
NASA astronaut Christina Koch explains how to water the plants from the Veg-04B experiment in the microgravity environment of the International Space Station. (1:54 minutes)
How Astronauts Plan to Grow Plants on the Moon.
When space biologists recently grew plants in actual moon soil, it was a game changer. Sharmila Bhattacharya, Chief Scientist for Astrobionics and head of the Biomodel Performance and Behavior laboratory at NASA Ames Research Center describes the work. (8:37 minutes)
Growing Fruits and Vegetables in Space
NASA scientists are looking into a way to grow plants in space to make long-term space travel sustainable. NBC News’ Joshua Johnson reports on how research partners at the University of Florida are growing plants in soil from the moon in an unprecedented experiment. (05:32 minutes)
Growing Kale & Lettuce on the ISS
Dr. Gioia Massa, Plant Scientist, NASA Kennedy Space Center discusses the growth of Red Russian Kale, Dragoon lettuce & more on the International Space Station. (5:04 min)
Explore Kennedy Space Center: Plant Research Lab
Learn about the work done at the Plant Research Lab at Kennedy Space Center to prepare experiments for microgravity(4:33 min)
How well did chillies grow in space?
Jacob Torres, Technical & Horticultural Scientist at NASA Kennedy Space Center, describes the shape that chillis formed in microgravity (1:01 min)
Studying Algae in Space on Artemis I
Dr. Timothy Hammond (Duke University) & Dr. Holly Birdsall (Baylor College of Medicine) describe the Fuel to Mars study (2:16 min).
Onboard Artemis I: Effect of Spaceflight on Seeds
Dr. Federica Brandizzi (Michigan State University) talks about Effect of Spaceflight on Seeds with Improved Nutritional Value study, one of four studies under NASA’s Biological & Physical Sciences Division’s Biological Experiment-01. (2:20 min).
Onboard Artemis I: Studying Fungi in Space
Dr. Zheng Wang (Center for Bio/Molecular Science and Engineering, U.S. Naval Research Laboratory) describes Investigating the Roles of Melanin and DNA Repair on Adaptation and Survivability of Fungi in Deep Space (1:49 min).
Onboard Artemis I: Studying yeast cells in space
Dr. Luis Zea (University of Colorado Boulder) describes the Deep Space Radiation Genomics (DSRG) study, one of four studies under NASA’s Biological & Physical Sciences Division’s Biological Experiment-01 (BioExpt-01) aboard Artemis I (2:08 minutes)
Clinostats simulating microgravity on Earth
A clinostat helps scientists simulate microgravity on Earth by constantly changing the axis of a medium so that ‘up’ keeps changing. Gil Cauthorn, a PhD student from UND & Lori Waters and Ted Tagami from Magnitude discuss the technology, with Ian Preston from NSW Virtual STEM Academy showing how to make one from robots in schools (14:02 minutes).













































