Clementine
(NASA/DoD, 1994)

Lunar Prospector
(NASA, 1997)

SMART-1
(ESA, 2003)

Lunar-A
(JAX, 2006)

CHANDRAYAAN -1
(India, 2007)

Selene
(JAX, 2007)

Lunar Reconnaissance Orbiter
(NASA, 2008)

Robotic Construction of 1st Base

Human Return
(NASA, 2018)

New Spacecraft
Architecture PPt.

 

 

Over the next several years the space agencies of the United States, Europe, Japan, India, China and Russia are planning lunar explorations to identify sites for lunar colonization with both the United States and the People's Republic of China planning human missions to the Moon by 2020. Japan has stated interest in a 2025 human mission.

Between 2025 and 2050 Earth colonists will depart for the Moon to build habitats, install solar power stations, mine resources, develop maglev trains, engineer electromagnetic catapults, and conduct deep space astronomy. The human lunar population will greatly expand after the third decade of the 21st Century after gaining more extensive lunar living experience and understanding of the lunar surface.

Success of lunar colonists will depend upon building an economy that will reduce dependence on the costly initial resources sent from Earth. Among the first requirements will be to transform the lunar rogolith to oxygen, water, and rocket propellant to support commercialization of the initial human lunar bases. The lunar in-situ resources will then enable human colonists to mine rare minerals for use on Earth and begin manufacturing processes on the Moon.

Surface reconnaissance, remote sensing, and ground truthing for detailed lunar surface mapping will be essential to nearly every aspect of lunar colonization. Having a high-quality understanding of the lunar surface will dictate location of habitats, perhaps in inactive lunar lava tubes. Habitat location will determine the radius from which humans may traverse to develop in-situ resources.

Upon locating frozen water-ice in dark craters, humans will have to create means to transport the water-ice to development locations along the lunar surface. Lunar topography will limit the pathways of maglev trains and other means to move raw materials. Mining lunar regolith for oxygen and other valuable minerals will require extensive mapping and utilization of lunar GIS.

DEVELOP Scholars realize that it is the current college and university students that will enable colonization of the Moon in the 21st Century. Lunar colonization will require professionals with knowledge in astroengineering, civil engineering, geochemistry, space medicine research, astrosociology, astronomy, physics, computer sciences, manufacturing management, agriculture, and a host of other skills to support permanent human activity of what will become lunar towns and cities of the future.

Understanding the topography and geology of the lunar surface through the best available mapping will be essential tools to the first explorers. DEVELOP Scholars hope to contribute to the greater understanding of the potential of lunar development through Lunar GIS. Gaining surface knowledge from utilization of spacecraft data from Clementine, Lunar Prospector, SMART-1, the Hubble Space Telescope, and other upcoming lunar missions, will provide DEVELOP Scholars the opportunity to contribute to what may prove to be the most important human endeavor of the 21st Century.