Introduction
The year is 2045. Earth's space agencies have selected you to join the first generation of pioneers to colonize Mars. But living on the Red Planet is not like living on Earth. Mars has no breathable oxygen, freezing temperatures, radiation, and zero liquid water on the surface.
If your team cannot build a self-sustaining system to produce food, water, oxygen, and energy, the mission will fail. Are you ready to engineer the future of humanity? Your crew is counting on you!
Task
Your team must design a comprehensive Mars Colony Sustainability Plan and present it to the International Space Federation (your class).
You will work in teams of 4. Each member will choose one specialized role:
- Atmospheric Engineer: Focuses on generating breathable air and protecting against radiation.
- Agricultural Scientist: Focuses on growing food and managing the soil/hydroponics.
- Hydrologist: Focuses on extracting, recycling, and purifying water.
- Energy Specialist: Focuses on generating power (solar, nuclear, wind) and managing energy storage.
Your final product will be:
- A Colony Blueprint (a sketch, digital design, or 3D model of your base).
- A 5-Minute Pitch Presentation explaining how your colony will survive its first year.
Process
Follow these steps to complete your mission:
Step 1: Form Your Crew & Choose Roles
- Gather in groups of four.
- Assign one role to each person: Atmospheric Engineer, Agricultural Scientist, Hydrologist, or Energy Specialist.
Step 2: Individual Research
Use the provided resources to answer your role's specific questions. Take notes in your science journal.
- 🚀 Everyone (Base Knowledge):
- NASA’s Mars Exploration Program
- National Geographic: Galactic Explorer Guide
- 💨 Atmospheric Engineer (Oxygen & Shielding):
- Research Question: How can we make oxygen from Mars' carbon dioxide atmosphere? How do we stop cosmic radiation?
- Resource: NASA's MOXIE Experiment on Mars
- Resource: Space.com: How Radiation Affects Mars Astronauts
- 🌱 Agricultural Scientist (Food & Soil):
- Research Question: Can we grow crops in Martian soil (regolith)? What nutrients do plants need to survive in a closed dome?
- Resource: NASA: Growing Plants in Space
- Resource: Science News: Farming on Mars
- 💧 Hydrologist (Water Systems):
- Research Question: Where is the water on Mars, and how do we mine it? How do we recycle 100% of waste water?
- Resource: NASA: Finding Water on Mars
- Resource: ESA: How Space Station Wastewater Becomes Drinking Water
- âš¡ Energy Specialist (Power Grid):
- Research Question: How do we power the colony during a massive Mars dust storm? What are the pros and cons of solar vs. nuclear power on Mars?
- Resource: Space.com: Powering a Mars Colony
- Resource: NASA: Kilopower Nuclear Reactors for Space
Step 3: Collaboration & Blueprinting
- Meet back with your team. Share your findings.
- Draw or digitally design your colony blueprint. Ensure all four systems (Air, Food, Water, Power) connect logically.
Step 4: Prepare the Pitch
- Create a presentation (using Google Slides or Canva) to pitch your colony design to the class.
Evaluation
| Criteria | 4 - Stellar Explorer | 3 - Capable Astronaut | 2 - Rookie Trainee | 1 - Grounded |
| Scientific Accuracy | All systems are backed by real space science and NASA data. | Most systems are scientifically accurate with minor errors. | The plan lacks scientific backing; relies on science fiction. | Systems are scientifically impossible or missing. |
| Collaboration | All 4 roles seamlessly integrate into the final colony blueprint. | The blueprint includes all roles, but connections are weak. | Only 2–3 roles are visible in the final design. | The team did not collaborate or share findings. |
| Creativity & Design | The blueprint is highly detailed, clear, and uniquely named. | The blueprint is clear and labeled but lacks detail. | The blueprint is messy, unclear, or missing labels. | No blueprint was submitted. |
| Presentation / Pitch | The presentation is engaging, clear, and perfectly timed. | The presentation is clear but lacks engagement or structure. | The team was unprepared or spoke unclearly. | The presentation was not delivered. |
Conclusion
Congratulations, Pioneers! You have successfully mapped out the blueprint for human survival on the Red Planet. Through this journey, you didn't just learn about Mars—you discovered how fragile and interconnected our ecosystems are right here on Earth.
If we can build a clean, self-sustaining world on a dead planet like Mars, what can we do to save our own home planet?