Preface
The following document contains my first and final drafts for a set of speculative ideas centered on outer space, specifically through the lenses of DOTA and StarCraft, the two games I am most invested in creatively at this time. Space is the primary domain of interest guiding these ideas. While I also value English studies and game development within my college environment, I believe the college already functions well in those areas. That said, it could benefit from more structured events focused on game development, similar to the established events associated with English studies.
Although I initially estimated that the ideas presented here would require roughly two millennia to develop, a more realistic assessment places the timeline closer to 26,000 years. This adjustment reflects the immense scale and complexity of the technologies discussed.
First Draft Concept: Luna Expatriation
Luna Expatriation refers to the theoretical process of migrating a moon from its current orbit around a planet and repositioning it to revolve directly around the Sun as an inner planet, or as a moon of an inner planet. This process would require extraordinary effort, precision, and technological advancement. Entire classes of machines would need to be designed specifically to enable orbital manipulation, migration stability, and long-term planetary transformation.
The solar system contains roughly twenty significant moons that could, in theory, be isolated and repurposed through such a process. Some inner planets lack stabilizing satellites—Venus, for example, has no true moon, and Mars’ moons are small and irregular. Reassigning larger moons could profoundly affect planetary stability and habitability. The concept imagines the use of approximately thirty specialized machines working in coordination to make such migrations possible.
Understanding Orbital Aerospace Terraforming Engineering
Saturday, May 18, 2023
Written by Octavian Park (aka Scarlet)
Tuesday, January 27 2026
Rewritten by ChatGPT
The study and exploration of celestial bodies have always driven astronomical curiosity. In recent years, the speculative concept of Extralunar Migration, formally described here as Orbit Aerospace Terraforming Technology Engineering (O.A.T.T.E.), has emerged as a framework for imagining how humanity might one day reshape the solar system itself.
O.A.T.T.E. proposes the relocation of large moons—particularly those orbiting gas giants such as Jupiter and Saturn—into new heliocentric orbits within the inner solar system. These bodies could become moons of inner planets or evolve into independent inner planets, fundamentally altering solar system dynamics.
Executing Luna Expatriation would require unprecedented technological systems. Specialized machines would need to perform transportation, navigation, orbital redirection, and gravitational modulation. These machines would operate across distances approaching 170 million kilometers, coordinating complex maneuvers while accounting for interactions between the Sun, planets, and moons.
The solar system provides a diverse selection of candidate bodies. Venus could benefit from acquiring a stabilizing moon. Mars could gain a larger satellite to help regulate its axial tilt. Dwarf planets such as Ceres or Pluto could potentially be relocated closer to the Sun and transformed into habitable worlds.
The migration process would involve deploying approximately thirty machines at strategic locations around the target body and throughout the solar system. Through precise calculations and gradual orbital adjustments, these systems would guide moons toward new, stable configurations.
However, the challenges are immense. Gravitational dynamics alone present extreme risks, and atmospheric transformation poses further uncertainty. Moons with methane or ethane lakes—such as Titan—would experience dramatic changes when exposed to increased solar radiation, potentially leading to volatile expansion or atmospheric loss. The computational burden of modeling and managing such systems would also be enormous.
Ethical and environmental considerations must be addressed as well. Any existing ecosystems, potential indigenous life, or long-term cosmic consequences would require careful evaluation. Manipulating celestial bodies on this scale raises profound questions about humanity’s role in altering natural systems.
The development of O.A.T.T.E. would likely require tens of thousands of years. Maintaining continuity of knowledge, intent, and interest across generations—when individual human lifespans rarely exceed a century—would be one of the greatest challenges of all.
Conclusion
While Orbit Aerospace Terraforming Technology Engineering remains a speculative framework, it reflects humanity’s enduring desire to understand and reshape its cosmic environment. Whether or not Luna Expatriation ever becomes feasible, exploring such ideas expands how we think about space, time, and technological responsibility.
O.A.T.T.E. represents not just an engineering challenge, but a philosophical one: a vision of humanity learning to operate on solar-system timescales. The pursuit of such ideas, even as theory, reinforces the importance of curiosity, imagination, and long-term thinking in our exploration of the universe.
