Difference between revisions of "Team:UNIK Copenhagen/Red Lab"

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<li><b>Atmospheric composition:</b> We can simulate a martian atmosphere which unlike earth is made up of 98% CO2.
 
<li><b>Atmospheric composition:</b> We can simulate a martian atmosphere which unlike earth is made up of 98% CO2.
 
<li><b>Temperature:</b> We can cause the same fluctuations in temperature that occurs on the surface of Mars: temperatures ranging from -120 degrees to 10 degrees
 
<li><b>Temperature:</b> We can cause the same fluctuations in temperature that occurs on the surface of Mars: temperatures ranging from -120 degrees to 10 degrees
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<li><b>UV radiation:</b> By using a fluorescent lamp we can provide UV radiation between 200-400nm</div>
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<li><b>UV radiation:</b> By using a fluorescent lamp we can provide UV radiation between 200-400nm
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<li><b> Soil composition:</b> By using the JSC-Mars-1-simulant soil we can simulate the actual Martian Soil and examine if our moss will grow.
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Revision as of 08:05, 26 June 2015


Red Lab

Moss and the Mars Chamber

Imagine being able to visit Mars on earth. With a press of a button you can change any variable, simulate any possible situation, and predict the future of Mars missions. This is not science fiction, but is achieved in the Mars Environmental Chamber at the Niels Bohr Institute.

The Mars Environmental Chamber simulates martian conditions in the laboratory and subjects samples to martian conditions.



The variables that we have control over in the Mars Chamber are:

  • Pressure: We can go as low as 1-7 mbars to simulate the low pressure of a martian atmosphere.
  • Atmospheric composition: We can simulate a martian atmosphere which unlike earth is made up of 98% CO2.
  • Temperature: We can cause the same fluctuations in temperature that occurs on the surface of Mars: temperatures ranging from -120 degrees to 10 degrees
  • UV radiation: By using a fluorescent lamp we can provide UV radiation between 200-400nm
  • Soil composition: By using the JSC-Mars-1-simulant soil we can simulate the actual Martian Soil and examine if our moss will grow.

    • Our focus will be testing it in the following areas:

  • Since temperature fluctuates on all areas of mars, it is vital for the survival of our moss that we test its ability to survive scathing changes in temperatures.
  • Making sure that moss can survive in soil containing perchlorate is a primary concern. Optimizing it do so increases the chances that the moss can detoxify martian soil and make it safe for astronauts. To test this will use two different mars simulated soils from Denmark and Hawaii containing different concentrations of perchlorate.
  • The martian atmosphere is almost non-existent, having disappeared from the planet’s surface over billions of years a long with its magnetic field.Thus one of the greatest perils the moss will face is intense UV light, as there is no atmosphere to protect it. By changing the wavelength and intensity of UV light shining on the Mars Chamber we hope to see how we can optimise moss’s survival when exposed to UV light.