Nanotechnology in Construction of Buildings and Vehicles: Difference between revisions

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<font size=4>'''Nanotechnology in Construction of Buildings and Vehicles'''</font>  
<font size=4>'''Nanotechnology in Construction of Buildings and Vehicles'''</font>  


<br><font size=3>'''Researchers/Writers:''' Lael Rosek</font>
<br><font size=3>'''Researchers/Writers:'''</font> Dr. Lael Rosek
<br><font size=3>'''Other Contributors:'''</font> Lorian Lovar, Alex Blair, Dr. Timothy Alentonis
<br><font size=3>'''Supervisors:''' </font> Roshanara Rahman, Alex Blair
<br><font size=3>'''Supervisors:''' </font> Roshanara Rahman, Alex Blair
<br><font size=3>'''Approved by: </font>
<br><font size=3>'''Approved by: </font>
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<h4>Reskariaehhrr (Reskari)</h4>  
<h4>Reskariaehhrr (Reskari)</h4>  


Though research has been conducted regarding the properties and composition of the Reskari metal, relatively little is known about it by comparison to our knowledge of more commonly used elements such as tritanium alloys, which became commercially available in the early 22nd century. The downside to this material is that it has proven to be beyond our abilities to melt it and shape it into a more pliable form. Another substance that held promise for protection from harmful radiation was discovered by early Earth explorers in the mid-22nd century in use on board Vulcan ships in the Delphic Expanse. Though the metal proved to be more easily melted and altered than tritanium, it resulted in side effects for the Vulcans exposed to it. Research regarding long-term effects on non-Vulcanoids is still ongoing.
Though research has been conducted regarding the properties and composition of the Reskari metal, relatively little is known about it by comparison to our knowledge of more commonly used elements such as [[tritanium]] alloys, which became commercially available in the early 22nd century. The downside to this material is that it has proven to be beyond our abilities to melt it and shape it into a more pliable form. Another substance that held promise for protection from harmful radiation was discovered by early Earth explorers in the mid-22nd century in use on board Vulcan ships in the Delphic Expanse. Though the metal proved to be more easily melted and altered than [[tritanium]], it resulted in side effects for the Vulcans exposed to it. Research regarding long-term effects on non-Vulcanoids is still ongoing.


Comparing these three metals, Reskari seems to hold the most promise despite the fact that we have yet to find a way to melt the metal in its purest form. Dr. Timothy Alentonis and other scientists aboard first the USS Veritas and subsequently the USS Montreal have done intensive studies of the metal’s composition itself and have had success in creating a metallic alloy of Reskari that allows for the best of both worlds: the strength and protection of the original metal combined with the lower melting point and pliability of aluminium.  
Comparing these three metals, Reskari seems to hold the most promise despite the fact that we have yet to find a way to melt the metal in its purest form. Dr. [[Timothy Alentonis]] and other scientists aboard first the {{USS|Veritas}} and subsequently the {{USS|Montreal}} have done intensive studies of the metal’s composition itself and have had success in creating a metallic alloy of Reskari that allows for the best of both worlds: the strength and protection of the original metal combined with the lower melting point and pliability of aluminium.  


<h4>Nanotechnology</h4>
<h4>Nanotechnology</h4>

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