Caribbean Space Agriculture Mission

Design sustainable food systems for space missions using Caribbean crops

Space Systems
Matter & Energy in Ecosystems
Engineering Design
Advanced Level

Mission Overview

Students designing space agriculture systems with Caribbean crops

Students become space agriculture engineers, designing sustainable food production systems for long-duration space missions using traditional Caribbean crops. This project integrates space science, plant biology, and engineering to solve real challenges faced by space agencies while celebrating Caribbean agricultural heritage.

3-4 weeks
4-5 students
Advanced

Mission Objectives

  • Understand plant growth requirements and photosynthesis in controlled environments
  • Analyze solar energy patterns and efficiency for space applications
  • Design closed-loop agricultural systems with minimal waste
  • Study space environment challenges including microgravity and radiation
  • Present mission proposals to space agency representatives

Week-by-Week Mission Plan

Week 1: Space Agriculture Research

  • • Research current space agriculture projects (ISS, Mars missions)
  • • Study Caribbean crops suitable for space cultivation
  • • Investigate space environment challenges for plant growth
  • • Analyze nutritional requirements for space travelers
  • • Interview space agriculture researchers (virtual)

Week 2: Plant Growth Experiments

  • • Test Caribbean crop seeds under different light conditions
  • • Compare LED vs. natural sunlight for plant growth
  • • Measure photosynthesis rates and oxygen production
  • • Monitor water and nutrient uptake
  • • Document growth data in mission logs

Week 3: Solar-Powered Growing Systems

  • • Design hydroponic systems powered by solar panels
  • • Build automated watering and lighting systems
  • • Create closed-loop nutrient recycling systems
  • • Test energy efficiency and crop yields
  • • Optimize systems based on performance data

Week 4: Mission Proposal and Presentation

  • • Compile growth data and system performance results
  • • Create comprehensive mission proposals
  • • Design mission timelines and resource requirements
  • • Prepare presentations for space agency panel
  • • Present findings and receive expert feedback

Assessment Mission Control

Mission Proposal (35%)

Comprehensive proposal including system design, crop selection, and mission timeline

System Design and Testing (30%)

Functional growing system with solar power and data on crop performance

Growth Data Analysis (20%)

Scientific analysis of plant growth under different conditions with graphs and conclusions

Space Agency Presentation (15%)

Clear communication of mission proposal to expert panel

Mission Equipment

Caribbean Crop Seeds

  • • Black beans and pigeon peas
  • • Hot peppers and sweet peppers
  • • Herbs (basil, cilantro, thyme)
  • • Leafy greens (callaloo, lettuce)
  • • Cherry tomatoes

Growing Systems

  • • LED grow lights (full spectrum)
  • • Small solar panels
  • • Hydroponic containers and tubes
  • • Water pumps and timers
  • • pH and nutrient testing kits

Measurement Tools

  • • Digital scales for harvest weights
  • • Rulers and measuring tapes
  • • Light meters
  • • Thermometers
  • • Mission log notebooks

Mission Extensions

  • Connect with NASA or ESA space agriculture programs
  • Design complete life support systems for space stations
  • Create space nutrition meal plans using grown crops
  • Partner with university aerospace programs

Caribbean Heritage

  • • Celebrate traditional Caribbean crops in space
  • • Research indigenous agricultural practices
  • • Study nutritional benefits of Caribbean foods
  • • Connect with local farmers and agricultural experts
  • • Explore cultural significance of selected crops

Mission Control

Create Mission Plan