
A 10-Week Space Mission Journey
Led by real aerospace engineers, XEcho Space Camp is designed as a complete 10-week space mission journey.
Throughout the program, students take part in a structured learning experience built around three major missions, each representing a critical aspect of real-world space exploration.
Each mission includes a series of 5 to 8 hands-on projects, ranging from individual builds to collaborative team challenges. These projects vary in scale and complexity, allowing students to progressively develop both technical skills and creative thinking.
During this journey, students engage in a fully integrated learning process that combines:
• Hands-on model building
• Robotics-based simulation and testing
• 3D printing and physical prototyping
• Creative design and space-themed artistic exploration
From initial concept and design, to testing, iteration, and final presentation, students experience how real engineering projects come to life.
This is not just a collection of activities, but a complete, guided space mission experience.
3 Missions · 10 Weeks · Hands-on Projects · Real Engineering Thinking

Mission 1
Mars Exploration Mission
Duration: Weeks 1–3 (June 8 – June 26)
Goal
Introduce students to the fundamentals of aerospace engineering through rocket science, Mars exploration, and planetary engineering challenges.
Students will learn how rockets launch, how rovers explore distant planets, and how future astronauts may live and work on Mars.
What Students Will Do
• Build and launch rockets
• Learn the science of flight and propulsion
• Design and build a Mars rover
• Explore Martian terrain and missions
• Create a Mars base and communication system
• Discover how humans may live on Mars in the future
Skills Developed
• Engineering fundamentals
• Scientific observation
• Problem-solving
• Design thinking
• Team collaboration
Final Outcome
Students will complete a Mars Exploration Project that includes a rocket, rover, and future Mars habitat concept.

Mission 2
Apollo Moon Mission
Duration: Weeks 4–6 (June 29 – July 17)
Goal
Explore the history and future of lunar exploration while learning how astronauts travel, live, and work beyond Earth.
Students will experience key concepts from the Apollo missions and design systems needed for future Moon bases.
What Students Will Do
• Build an Apollo-style rocket
• Learn about the Moon landing missions
• Explore lunar geology and terrain
• Design and test a Moon rover
• Build a lunar space station
• Investigate communication and life-support systems
Skills Developed
• Space science knowledge
• Engineering design
• Systems thinking
• Data collection and analysis
• Collaboration and communication
Final Outcome
Students will create and present a complete Lunar Exploration System including transportation, exploration, and habitat components.

Mission 3
Future Space City
Duration: Weeks 7–9 (July 20 – August 7)
Goal
Encourage students to imagine and engineer the future by designing sustainable cities beyond Earth.
Students will combine engineering, robotics, communication technology, and creativity to build their own vision of a future space civilization.
What Students Will Do
• Design a custom rocket
• Build satellites and space station systems
• Learn how communication networks connect planets
• Create transportation and energy systems
• Design and construct a future space city
• Present solutions for future human life in space
Skills Developed
• Innovation and creativity
• Engineering integration
• 3D design and prototyping
• Presentation and communication skills
• Future-focused problem solving
Final Outcome
Students will present a Future Space City Project that combines engineering, design, sustainability, and imagination.
From rocket launch to space communication and future city design, students go through a complete space exploration journey.
