Difference between revisions of "Team:Stanford-Brown/Vision"

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       <h2 class="featurette-heading">BiOrigami<span class="small"> can improve mission capabilities by conserving volume</span></h2>
 
       <h2 class="featurette-heading">BiOrigami<span class="small"> can improve mission capabilities by conserving volume</span></h2>
       <p class="lead">maybe here we can talk about how we asked planetary scientists/other experts about how this technology could be used, and show a 60 second video compilation of this?</p>
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       <p class="lead">We asked planetary science experts how self-folding structures could aid space exploration. Here is what they said.</p>
 
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   <p class="pf">introduction about the volume constraints of space travel. it would be nice to insert an image below here, showing how a 5m payload fairing compares to the sizes of various spacecraft (hubble, james webb, ISS) also show how origami is used in space today (folding solar panels, james webb)</p>
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   <p class="pf">When launching satellites, probes, telescopes, and manned spacecraft into orbit, volume is everything. Because rockets need to fly through the atmosphere at supersonic speeds, payloads need to be packed into sleek, aerodynamic fairings at the tip of the rocket. A typical fairing has a diameter of just 5 meters. Carrying up large structures like solar panels and telescope mirrors requires the use of compact folding for launch.</p>
  
 
<img class="featurette-image img-responsive center-block" src="https://static.igem.org/mediawiki/2015/8/8c/SB2015_ISSdiagram.jpg" alt="show the picture">  
 
<img class="featurette-image img-responsive center-block" src="https://static.igem.org/mediawiki/2015/8/8c/SB2015_ISSdiagram.jpg" alt="show the picture">  

Revision as of 22:49, 10 September 2015

The Vision

Our Vision for BiOrigami

Applying bioengineering to space exploration

BiOrigami can improve mission capabilities by conserving volume

We asked planetary science experts how self-folding structures could aid space exploration. Here is what they said.

When launching satellites, probes, telescopes, and manned spacecraft into orbit, volume is everything. Because rockets need to fly through the atmosphere at supersonic speeds, payloads need to be packed into sleek, aerodynamic fairings at the tip of the rocket. A typical fairing has a diameter of just 5 meters. Carrying up large structures like solar panels and telescope mirrors requires the use of compact folding for launch.

show the picture

our solution: flat pack 2D printed sheets that can be converted into 3D structures for manned missions. create self-folding and self-unfolding structures for unmanned missions. create self-unfolding solar-powered weather stations/other data collecting probes to be dispersed onto martian surface

The full interview! See it in all its glory!

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Copyright © 2015 Stanford-Brown iGEM Team