Life Beyond Earth results from an international multidisciplinary initiative to explore the limitations of inhabited environments beyond Earth including advancing the territory of architecture and inspiring us to confront the consequences of future societies in new environments. This work examines what it takes to maintain life under the extreme conditions of extraterrestrial environments.
Five decades after humans first set foot on the Moon, a renaissance of human space exploration is underway—and this time, the aspiration is to establish a permanent settlement on the Moon. Solving the challenges of a sustained lunar presence requires cross-disciplinary collaboration and a completely new way of approaching this ambitious goal. In Life Beyond Earth, ESA, SOM, and MIT worked together to provide a diverse range of expertise to envision a future Moon Village.
Resiliency and self-sufficiency are essential to making this endeavor sustainable. The master plan envisions the Moon Village on the rim of Shackleton Crater near the South Pole, which receives near continuous daylight throughout the lunar year for optimal solar energy potential. This planning envisioned a series of phases where several critical infrastructural components and habitable structures would allow the Village to harness sunlight for energy and set up in situ resource utilization (ISRU) experiments, including the generation of food and other life-sustaining elements using the Moon’s natural resources. Water from the permanently shadowed depressions near the South Pole would be extracted to create breathable air and rocket propellant for transportation and for the support of industrial activities. The settlement would be clustered close to the crater’s water-ice deposits. Additionally, each cluster of modules would be connected to enable seamless mobility between structures, with communications towers on the highest ridges of the uneven terrain.
The individual pressurized modules are designed using softgoods technology to increase user space for future growth and program requirements. The concept calls for three to four-story structures, with workspaces, living quarters, and environmental control and life support systems. These inflatable structures would provide—together with regolith-based protective shells—resistance to extreme temperatures, projectiles, regolith dust, and solar radiation. More importantly, these features would enable the Moon Village to carry out its purpose as a scientific, industrial, and development ecosystem.
A thriving and sustained settlement on the Moon requires a phased approach to development that begins with location. The criteria for site selection optimize access to resources, energy, and long-term development goals. It includes proximity to sites of scientific interest, water, exposure to sunlight and resource utilization for civil infrastructure including landing zones. In addition to the criteria, key objectives should be supported including exploration, basic research, international cooperation, technology development, surface operations, human safety, and human/robotic collaboration.
PHASE I (Delivery of equipment and infrastructure for transport, power, and ISRU construction.)
This phase includes the delivery of basic equipment and infrastructure that will support subsequent missions with larger elements including habitats. It includes a solar tower power system with fuel cell storage and a 60kW Nuclear Fission Power Plant. Mobility and transport systems such as Space Exploration Vehicle (SEV), Lunar Surface Manipulation System (LSMS), ATHLETE, Mobility System (MS), Pressurized Rover and Crane System (CS). ISRU robotic equipment similar to the Regolith Advanced Surface Systems Operations Robot (RASSOR) Excavator and Regolith Sintering Robot (RSR) will need to be delivered for the purpose of building basic civil infrastructure prior to the delivery of larger elements.
PHASE II (Initial contact with the site and preparatory site work prior to the delivery of the first habitation system.)
This phase includes teleoperated characterization, ISRU construction, and site preparation for landing and habitat sites. Preliminary master planning of the Moon Village is defined and zones for power, habitation, and ISRU are delineated.
PHASE III (First Habitat is delivered to the site for emplacement and deployment followed by the first crewed mission to the lunar surface.)
This phase established the first habitat as part of the Moon Village and enables crews to cycle through subsequent missions that support the delivery of additional habitats and additional power systems, ISRU equipment, cargo, and other infrastructure. Construction of larger civil infrastructure such as berms, landing pads, roads, and foundations begin.
PHASE IV (The development expands to include several habitats, multiple power stations, road networks, landing zones, ISRU shelters, propellant plants, production facilities, and advanced industry-scale ISRU.)
This phase establishes operational techniques and capabilities with surface activities that expand beyond basic civil infrastructure. Cycling crews from international partners continue expanding the settlement and building specialized habitation systems that are interconnected. The Moon Village evolves into a permanent settlement with a wide range of industrial and scientific activities.
Credit: SOM, ESA, MIT