Difference between revisions of "Team:Stanford-Brown/SB16 BioMembrane p-Aramid"
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| − | <div class="col-sm-7 pagetext-L"><div class="text"> | + | <div class="col-sm-7 pagetext-L"><div class="text">For our exploration purposes, it is important to have a membrane that can withstand harsh environments without bursting. While our collagen-elastin fiber and latex polymer display promising properties of elasticity and strength, their ability to withstand high physical stress is limited. Due to its rigidity (70,500 MPa [1]), toughness (2,920 MPa [1]), and low density (1.44 g/cm³ [1]), Kevlar® is highly capable of meeting the unique needs of inflatable modules and habitats. It can act as both a lightweight balloon reinforcement and shield against atmospheric debris. In addition, it is also highly resistant to chemical, thermal, and physical wear--making it ideal for durability in a harsh environment. |
| + | Today, a Kevlar® composite is used as a protective outer covering for the Bigelow Space Module on the International Space Station for exactly these reasons. We wanted to make an aramid fiber similar in structure to Kevlar so that it can exhibit those same desirable properties that Kevlar possesses.</div> | ||
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Revision as of 20:49, 15 October 2016
p-Aramid team member Anna introduces the p-aramid project
Why aramids?
For our exploration purposes, it is important to have a membrane that can withstand harsh environments without bursting. While our collagen-elastin fiber and latex polymer display promising properties of elasticity and strength, their ability to withstand high physical stress is limited. Due to its rigidity (70,500 MPa [1]), toughness (2,920 MPa [1]), and low density (1.44 g/cm³ [1]), Kevlar® is highly capable of meeting the unique needs of inflatable modules and habitats. It can act as both a lightweight balloon reinforcement and shield against atmospheric debris. In addition, it is also highly resistant to chemical, thermal, and physical wear--making it ideal for durability in a harsh environment.
Today, a Kevlar® composite is used as a protective outer covering for the Bigelow Space Module on the International Space Station for exactly these reasons. We wanted to make an aramid fiber similar in structure to Kevlar so that it can exhibit those same desirable properties that Kevlar possesses.
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