Difference between revisions of "Design levels"
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== Lower bulk limit design == | == Lower bulk limit design == | ||
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| + | [[File:simple bellow.png|thumb|An example for a design at the lower bulk limit (a basic gas tight bellow)]] | ||
Bigger structures where atomic detail may matter less or which are simply not simulatable yet because of limited computation power may be designd | Bigger structures where atomic detail may matter less or which are simply not simulatable yet because of limited computation power may be designd | ||
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* Since we operate on the lowermust size level there needs to be set a minimum wall thickness that must not be deceeded | * Since we operate on the lowermust size level there needs to be set a minimum wall thickness that must not be deceeded | ||
* surfaces should be kept parallel to the main crystallographic faces such that they will not create random steps when auto-filled with virtual atoms. | * surfaces should be kept parallel to the main crystallographic faces such that they will not create random steps when auto-filled with virtual atoms. | ||
| − | [todo add links to demo collection] | + | [todo add links to demo collection] |
== System level design == | == System level design == | ||
Revision as of 01:44, 5 December 2013
Atomistic level design
This is the art of designing diamondoid molecular elements DMEs.
To do so there was developed a useful software tool called Nanoengineer-1 [1] [2]
Lower bulk limit design
Bigger structures where atomic detail may matter less or which are simply not simulatable yet because of limited computation power may be designd with conventional methods of solid modelling.
A vew issues have to be thought about though:
- Since we operate on the lowermust size level there needs to be set a minimum wall thickness that must not be deceeded
- surfaces should be kept parallel to the main crystallographic faces such that they will not create random steps when auto-filled with virtual atoms.
[todo add links to demo collection]
System level design
This sort of design involves one or more of:
- three dimensional placement of huge amounts of standard components
- topological interconnections
- temporal organisation in a dynamic setting
- IO logistics of all the media to handle
- emulation of physical (especially mechanical) properties
For products it is especially relevant in the design of the (yet speculative) advanced metamaterials.
Examples are: elasticity emulation; infinitesimal gear bearings; organisation of recycling; legged block mobility ...
In AP manufacturing systems it determines the mapping of the abstract assembly levels into a concrete three dimensional layout of a nanofactory.
Today (2013) it is rather diffecult to do work on this area. Lots of questions need to be answerded.
