Difference between revisions of "Mechanical stability"
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| + | Mechanical stability is typically the weakest requirement of [[the three stabilities]]: <br> | ||
| + | [[chemical stability]], [[thermal stability]], and [[mechanical stability]]. <br> | ||
| + | That is: Most materials that are quite thermally stable are also decently mechanically stable. | ||
| + | |||
| + | [[Piezochemical mechanosynthesis]] makes materials <br> | ||
| + | with especially good mechanical stability accessible. <br> | ||
| + | See: [[Base materials with high potential]] | ||
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| + | With today's [[thermodynamic means]] of production only a few similar materials <br> | ||
| + | can be produced, and only with limited control. In particular: [[Nanotubes]]. | ||
== Related == | == Related == | ||
Latest revision as of 13:39, 25 July 2021
Mechanical stability is typically the weakest requirement of the three stabilities:
chemical stability, thermal stability, and mechanical stability.
That is: Most materials that are quite thermally stable are also decently mechanically stable.
Piezochemical mechanosynthesis makes materials
with especially good mechanical stability accessible.
See: Base materials with high potential
With today's thermodynamic means of production only a few similar materials
can be produced, and only with limited control. In particular: Nanotubes.
Related
- Chemical stability
- Thermal stability (this page here)
- Mechanical stability
- Base materials with high potential – Dialondeite, Moissanite
- Stiffness
- High material strengths
- High pressure
- High pressure modifications
- Unsupported rotating ring speed limit
