The tale of architecture has always been a struggle against a single, invisible force: Earth’s most trustworthy companion, gravity. For thousands of years, the greatest structures, ranging from the great pyramids to the modern construction of the soaring steel frames in skyscrapers, have been designed to channel the weight of the structure downward into the soil. However, as humanity pivots from a species bound to one planet to another that will soon inhabit several, the fundamental rules of design are being fiercely rewritten.
In these changing times, a new concept has taken birth in the theories of architectural design, and it is the intersection between the earth and beyond. The seamless interaction between architecture and astrophysics, where weather wouldn’t just be restrained to rain, wind and air but rather coronal mass ejections and micrometeorite showers. The ground wouldn’t be just a stable bedrock or steep plateaus but will have toxic, razor-sharp regolith. (Anum, 2025) To build beyond Earth is to realise that the universe is aggressively hostile to human life. Designing for it requires a seamless commingling between the creative spatial problem-solving of architecture and the rigorous, unforgiving realities of astrophysics.
Designing for the endless void
In the context of Earth, a structure’s main function is to control the weather, maintain the earth’s surface from collapsing, and regulate temperature. However, the structure’s principal function shifts from preserving functions to preventing death when it is intended for the endless void of infinity, the space.
Architecture on earth works on certain codes and data, and adherence to these decides the quality and longevity of any structure. Similarly, astrophysicists provide the data that forms the new “building code” of the cosmos. Earth is both a carrier and a protector for its children. All the species that exist on this beautiful green planet are due to its natural ‘cosmic shield’; Earth’s magnetic field and thick atmosphere act as a protective barrier from the fatal radiations. It protects the residents of the blue planet by protecting them from solar flares and galactic cosmic rays (GCRs). (Chowdhury, 2021)
Be it the surface of the Moon or Mars, this shield is virtually non-existent. Architects lack the possession of the means to simply design a glass dome with a panoramic view of the Valles Marineris; such a structure would subject its inhabitants to lethal doses of ionizing radiation. Where the design principles fail, astrophysics comes into the picture by dictating that mass is the only true defence. Water, polyethylene, or several meters of packed dirt are required to stop high-energy particles. Henceforth, the architectural vernacular of the early solar system will likely be subterranean.
Furthermore, in space the thermal extremes dictate form. The lack of atmosphere in the space makes heat distribution impossible. Due to this insufficiency of earth-like systems, a lunar habitat might experience temperatures of 250°F (120°C) in the sunlight and -208°F (-130°C) (R. Gregory Schunk, 2022) in the shade. Materials will play a vital role in this commingling of architecture and astrophysics; they must expand and contact without fracturing. The thermal management systems become the very skeleton of the habitat. When architecture is debated in terms of this endless void, it goes beyond shaping and structuring to matching energy.
The Rise of ISRU: The cosmic vernacular of Moon and Mars
One of the major restraints of architecture in the cosmos is material, launching a single ounce will cost a fortune. Packing the conventional materials that are used on the earth’s surface and shipping them through the Earth’s orbit is futile, not only is it extremely time consuming and expensive, it is also risky and inefficient. There is no guarantee that those materials will work on the lunar or Martian surfaces. Therefore, the future of architecture beyond Earth will have to heavily rely on In-Situ Resource Utilization (ISRU). This is the practice of building with what is naturally occurring for the surface the construction is to be done.
From major researches and studies done by Nasa and other privately owned space organisations it has been established that this native vernacular material for the moon is lunar regolith. Although this fine, powdery dust is jagged and sticks to everything due to electrostatic charges, posing a nightmare for airlocks and human lungs, architects and material scientists are continuously developing methods to microwave or laser- sinter this into a durable, radiation-blocking bricks. In the near future, lunar bases built by autonomous rovers that 3D-print protective shells over inflatable, pressurized modules before humans ever arrive might be observed on the moon’s surface.
On the other hand, Mars presents its own unique palette. While Mars presents a slightly more habitable thermal profile than the Moon, it is still a frozen desert with a thin atmosphere. Astrophysicists and planetary geologists have identified massive subsurface glaciers. This water present is proposed to be extracted and used to 3D-print an icy shell around a habitat. Water being an excellent radiation shield, and highly translucent would act as an efficient material of constructional practices. The translucency will allow natural light to filter into the living spaces, addressing the immense psychological toll of being confined in a windowless bunker millions of miles from home.
The lessons to learn
Viewing architecture as a billionaire’s escapist fantasy is easy, but the reality is that the constraints of space force us to become better stewards of resources. Resources are equivalent to life on cosmic levels. Every drop of water, every molecule of oxygen, and every watt of energy must be captured, recycled, and reused. There are no provisions of throwing away the waste, it must become fuel or fertilizer.
Beyond Earth, architecture becomes the ultimate challenge, it allows the harsh truth of astrophysics to become the guiding models to build in the hostile voids. Architects need to learn building a more resilient, sustainable world right here at earth, only then will the architecture of cosmos materialize.
References:
Anum, M., 2025. Rethinking the Future. [Online]
Available at: https://www.re-thinkingthefuture.com/architectural-community/a14497-a-guide-to-space-architecture-designing-habitats-in-extra-terrestrial-environments/
Anum, M., n.d. RTF. [Online]
Available at: https://www.re-thinkingthefuture.com/architectural-community/a14497-a-guide-to-space-architecture-designing-habitats-in-extra-terrestrial-environments/
Chowdhury, R. P., 2021. StemRad. [Online]
Available at: https://stemrad.com/space-radiation-shielding-for-getting-to-mars/?srsltid=AfmBOorLARwV4Ky1YY6rZrdVqGnoKidt-xAheSRBt3CMYQifkyzmU1nw
- Gregory Schunk, S. D. B. ,. B. W. E., 2022. Thermal Control System Architecture and Technology Challenges for a Lunar Surface Habitat. IEEE Paper SH TCS Architecture and Technical.
