HumanxOuterSpace Future Living

Modular Mars

Habitable Shelter on Planet Mars

 
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CHALLENGE

Building in outer space is a very expensive task. To ensure housing in space, one must learn how to use the existing materials in these regions. Main objective and challenge is to build the largest safe and spacious volume with the least weight of materials transported from Earth to Mars.


SOLUTION

Modular Mars is a multipurpose innovative habitat made out of Martian soil. By relying on in-situ resources, transported materials from Earth to Mars can be restricted to life support systems and vehicles. The habitat is designed to withstand Mars' extreme cold, high radiation levels, lack of oxygen and frequent dust storms as well as to ensure the psychological well-being of the crew.

 

CONTEXT

American University of Beirut (AUB) in collaboration with Harvard Business School Aerospace Alumni Group (HBSAAG)

TAGS

Outer Space Living,
Extreme Environments

 
 
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Site Analysis —

Research01 *

 
 

Site Analysis

As a first step in our process, we analyzed the terrains and possible sites on Planet Mars to identify the best location to build our base. We particularly studied the wind direction, the magnetic field, the thermal inertia of the soil and the availability of minerals and water.

After our analysis, we chose Arabia Terra as the main location.

 

Site Selection

ARABIA TERRA
Location: 26.7°N, 63°E

Site Factors

  • Prevailing Winds: NW & NE
  • Scientific Interest: Geological Processes and Historical Formation
  • Safe Landing Site
  • High Magnetic Field Rates
  • High Abundance of Near Surface Water
  • Availability of Minerals
  • Low Thermal Inertia
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    Form —

    Volumetric Development02 *

     
     

    Form Finding

    We analyzed the wind flow and landscape formation on our site as an evidence of bidirectional wind and low thermal inertia and as a tool to generate the form.

     

    Form Development

    The aerodynamic form prevents turbulence, erosion and dust storm formation.

     
     
     

    Concept —

    Space Organization03 *

     
     
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    Function Distribution

    The plan shows a large spacious living space, a necessity for the psychological health of the crew.

    Yet, being in a confined space, no matter how spacious it is, will eventually affect a person psychologically. Working with plants can increase the psychological well-being of individuals.

     

    The Greenhouse

    The main circulation within the plan becomes through the greenhouse. The intersection of the greenhouse with the habitable spaces creates a green strip within  the “cave” where people not only harvest crops but also interact, practice activities and spend time either working or relaxing in the spacious garden.

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    Module Design —

    Construction Technique04 *

     
     
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    Material

    To ensure a cost-efficient approach, the exterior shell is composed of martian regolith, a clay mineral that occurs naturally on Mars' surface. It acts as a solar radiation shield.

    Woodless Construction Technique

    The outer shell is composed of 6 smaller shells connected together. Technique is based on catenary contours

     

    MOLDO: The Molding Rover

    The rover will be sent to Mars two years prior to the crew's arrival. Rover is programmed to place bricks, each at accurate coordinates. After habitat construction,  MOLDO will still be used by astronauts to move objects, for transportation and for discovery of terrains

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    The Module

    The modules are thick enough to provide protection from radiation. The connection between the modules is based on the interlocked joint and on the "friction ridges" on the surface. Since no mortar will be used, these modules are interlocked and crushed together to produce, from the “ridges” on them, a “mortar-like” friction layer that keeps them in place.
     

    Wind Channels

    On the surface, wind channels are created by the shape of the module. These channels are oriented to channel away two major prevailing winds. They are necessary to decrease the erosion effect of the multi-directional wind shear hitting the surface.

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    Light Distribution & Interior Ambiance

    Interior Distribution of Light from Cupolas

     

    Details

     
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    Cupola Detail Section

    Airlock Detail Section

    Habitat Detail Section

     
     
     

    Physical Model —

    Model05 *

     
     
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    HumanxOuterSpace Future Living

    Hybrid Skins

    Extraterrestrial Interventions

     
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    CHALLENGE

    Environmental conditions on planet Mars have put forward a need for designing innovative spacesuits which lead to super human capabilities. The spacesuit design derives from research into the natural ecology of Mars and from research visits to Wadi Rum and Petra in Jordan.


    SOLUTION

    The spacesuit proposed aims to maintain the body for long-term missions on Mars through responding to the changes the body undergoes and by replicating Earth’s gravity effects on the circulatory system of the body. It also has a protective layer, a “dust storm airbag” layer, which responds to the sudden dust storms that constantly strike Mars’s surface by inflating into a hard protective temporary shell.

     

    CONTEXT

    Mars - Extraterrestrial Interventions
    Architectural Association (AA) Visiting
    School in Amman, Jordan
    2017

    More Information

    INSTRUCTORS

    Julia Koerner & Kais Al-Rawi

    TAGS

    Outer Space Living,
    Extreme Environments


    PUBLICATION

    AA Jordan Logbook

    TEAM

    Dana Halasa,
    Jhila Prentis

     
     
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    Problem Space —

    Research01 *

     
     

    Our initial step was to research and understand body reactions to prolonged periods of time in outer space.

     
     
     

    Changes in Body Proportion

    Upper part of body inflates due to low gravity

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    Changes in Blood Circulation

    Blood flows up the body due to decrease in gravity from Earth to Mars

     
     
     

    Identifying Opportunity —

    Concept02 *

     
     
     

    Overlapping Changes to Identify Most Critical Zones

    Constraining blood circulation in lower legs becomes essential to maintain regular, earth-like conditions

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    Study of Body Articulations

    Understanding joinery to add force into these areas is essential to keep muscle strength in legs

     
     
     

    Site Analysis —

    Site as Inspiration03 *

     
     
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    Morphology of the Site

    In the geological formations found on the surface we can find a layering of surfaces.

    A rougher top layer which is constantly shifting and responding to the the external environment, sits almost like a protective shell over a smoother layer which remains relatively unchanged. 

    The properties of the ribbons and pockets formed on the surface by the martian environment can be interpreted as a double layered skin.

    The pattern and concept design of the suit is inspired from this layering of the Martian sand dunes and their morphology.

     
     
     

    4 Main Layers —

    Main Components04 *

     
     
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    Overall Performance

    With time, the suit permits evolution to take place by allowing the body to adapt to Martian conditions rather than preserving it.

    Through its 4 main layers, the suit allows the body to undergo the changes in a gradual way until it undergoes full transition. As time passes, less constraints on the leg area is required.

     
     
     
     

    Motion Layer

    Ensuring movement by developing different joinery patterns

    Resistance Layer

    Resistance layer replicates the force exerted by earth’s gravity on our muscles to ensure leg muscle strength remains intact for as long as possible

    Force of Gravity on Earth = Resistance in Movement in Spacesuit

    Compression Layer

    The bulbous elements massage the legs and stimulate blood flow

     
     
     
     

    Shell Layer
    AN “AIRBAG” SYSTEM

    The temporary shelter layer responds to sudden dust storms.

    Sensors in its outer layer detect changes in external environment and trigger inflation of the shell.