flexiblefullpage -
billboard - default
interstitial1 - interstitial
catfish1 - bottom
Currently Reading

Architects and researchers are developing new techniques for building in space

Building Materials

Architects and researchers are developing new techniques for building in space

As setting foot on Mars becomes a more realistic goal, the search for how to best develop Architecture for the Red Planet is heating up.


By David Malone, Associate Editor | January 9, 2017

Rendering courtesy of Space Exploration Architecture

A few months ago, the world’s first self-described “Marschitect” was working on developing architecture designed specifically to meet the challenges of living on Mars. Now, more and more architects and researchers are taking a shot at developing new and innovative ways for building habitable environments on the surface of the inhospitable planet.

Two of the most recent ideas for potential building materials come from NASA researchers and a team of scientists at Illinois’s Northwestern University.

As Occam’s razor states, the simplest solution is usually the right one, and NASA researchers have taken that idea to heart as they believe the building material that may help solve many of the problems associated with living and building on Mars is regular, everyday ice, csmonitor.com reports.

NASA’s Langley Research Center in Hampton, Va., recently revealed its design concept for the “Mars Ice Home,” which was developed with help from Space Exploration Architecture and the Clouds Architecture Office.

An inflatable inner-tube-like material would provide the actual living quarters for the astronauts while its exterior would be encased in a shell of 3D-printed ice. The ice would protect the structure, and those living within it, from cosmic rays, which are one of the biggest health concerns associated with humans living on Mars. While the ice structure would block the cosmic rays, it would still allow some light to pass through so it would more closely resemble living in a home than a cave or underground and allowing the astronauts to stay connected to natural diurnal cycles.

 

Cross section of the Mars Ice House. Courtesy of Space Exploration Architecture.

 

The ice shell would be five centimeters thick and is envisioned as a series of nested domes enclosed by a transparent ETFE (Ethylene tetrafluoroethylene) membrane. The outer shell creates a “front yard” that astronauts can occupy without the use of an EVA suit. The inner shell will provide a vertical hydroponic greenhouse that surrounds the inhabitants.

The Mars Ice House would be constructed without the need of a crew being present. The module would descend to the planet’s surface and land. Then the construction process would begin: the foundation is sintered, the ETFE membrane is inflated, the airlocks are deployed, the ice for the outer and inner shells is printed, and the plant-growing process beings. Only after all of this occurs does the crew arrive.

Since one of the biggest hurdles to building on Mars revolves around transporting any possible building materials to the planet, the lightness of the inflatable structure and the availability of ice on Mars make the Mars Ice Home a very intriguing possibility.

 

Courtesy of Space Exploration Architecture.

 

Another proposal for building on Mars uses the planets limited resources, as well, but instead of ice, a team of scientists from Northwestern University developed a form of “Martin concrete” that can be created using soil from the Red Planet, Dezeen reports.

The concrete is created by mixing the soil with molten sulfur and, according to the scientists, could be used to build entire villages on Mars. Most importantly, the concrete doesn’t require any water to make. The building material can endure low temperatures, is resistant to acid and salt, and can be melted down and recycled to build a different structure.

The idea of using the soil found on Mars to create a building material is not a new one. Foster + Partners created a concept for a 3D-printed habitat built by robots that uses regolith, loose soil, and rocks as the building materials, but according to Dezeen, this is the first time a report has detailed how this could actually be feasible.

After a series of trial and error experiments, the team, consisting of Lin Wan, Roman Wendner, and Gianluca Cusatis, determined an even mix of sulfur and aggregate would produce a material with a strength of 50 megapascals. When the difference of gravity on the surface of Mars is factored in, the material will be three times stronger, making it suitable for building on Mars.

The time it takes to travel to Mars makes the necessity of building a habitat for the astronauts on its surface unavoidable. While the development of Martian architecture may seem like nothing more than an exercise in creativity, it is actually an integral part of one day setting foot on Mars.

 

The "front yard" of the Mars Ice House. Courtesy of Space Exploration Architecture.

 

Foster + Partners' 3D-printed proposal. Courtesy of Foster + Partners.

Related Stories

Modular Building | Mar 10, 2015

Must see: 57-story modular skyscraper was completed in 19 days

After erecting the mega prefab tower in Changsha, China, modular builder BSB stated, “three floors in a day is China’s new normal.”

Sponsored | Metals | Mar 10, 2015

Metal Building Systems: A Rising Star in the Market

A new report by the Metal Building Manufacturer's Association explains the entity's efforts in refining and extending metal building systems as a construction choice.

Building Materials | Feb 19, 2015

Prices for construction materials fall in January, following plummet of oil prices

The decline in oil and petroleum prices finally showed up in the produce price index data, according to ABC Chief Economist Anirban Basu.

Steel Buildings | Feb 10, 2015

Korean researchers discover 'super steel'

The new alloy makes steel as strong as titanium.

| Dec 29, 2014

From Ag waste to organic brick: Corn stalks reused to make construction materials [BD+C's 2014 Great Solutions Report]

Ecovative Design applies its cradle-to-cradle process to produce 10,000 organic bricks used to build a three-tower structure in Long Island City, N.Y. The demonstration project was named a 2014 Great Solution by the editors of Building Design+Construction.

| Dec 28, 2014

New trends in ceiling designs and materials [AIA course]

A broad array of new and improved ceiling products offers designers everything from superior acoustics and closed-loop, recycled content to eased integration with lighting systems, HVAC diffusers, fire sprinkler heads, and other overhead problems. This course describes how Building Teams are exploring ways to go beyond the treatment of ceilings as white, monolithic planes.

| Oct 30, 2014

CannonDesign releases guide for specifying flooring in healthcare settings

The new report, "Flooring Applications in Healthcare Settings," compares and contrasts different flooring types in the context of parameters such as health and safety impact, design and operational issues, environmental considerations, economics, and product options.

| Oct 16, 2014

Perkins+Will white paper examines alternatives to flame retardant building materials

The white paper includes a list of 193 flame retardants, including 29 discovered in building and household products, 50 found in the indoor environment, and 33 in human blood, milk, and tissues.

| Oct 14, 2014

Proven 6-step approach to treating historic windows

This course provides step-by-step prescriptive advice to architects, engineers, and contractors on when it makes sense to repair or rehabilitate existing windows, and when they should advise their building owner clients to consider replacement. 

boombox1 - default
boombox2 -
native1 -

More In Category


Codes and Standards

Updated document details methods of testing fenestration for exterior walls

The Fenestration and Glazing Industry Alliance (FGIA) updated a document serving a recommended practice for determining test methodology for laboratory and field testing of exterior wall systems. The document pertains to products covered by an AAMA standard such as curtain walls, storefronts, window walls, and sloped glazing. AAMA 501-24, Methods of Test for Exterior Walls was last updated in 2015. 



halfpage1 -

Most Popular Content

  1. 2021 Giants 400 Report
  2. Top 150 Architecture Firms for 2019
  3. 13 projects that represent the future of affordable housing
  4. Sagrada Familia completion date pushed back due to coronavirus
  5. Top 160 Architecture Firms 2021

Â