Difference between revisions of "Kaehler bracket"
m (→Going to the extreme) |
(added * Dialondeite) |
||
| Line 22: | Line 22: | ||
Even if thermal motions are bigger than the achieved accuracy over large scales (macroscale) that can average out. <br> | Even if thermal motions are bigger than the achieved accuracy over large scales (macroscale) that can average out. <br> | ||
Gravitational detectors e.g. can detect distances far below the diameter of an atomic core. | Gravitational detectors e.g. can detect distances far below the diameter of an atomic core. | ||
| + | |||
| + | == Related == | ||
| + | |||
| + | * [[Dialondeite]] | ||
Revision as of 11:16, 23 June 2021
Kaehler brackets are (usually small) structural crystolecule elements made from gemstone-like compounds
that have as their internal structure not a nicely ordered lattice
but rather a glassy amorphous like structure that was computer optimized
to approximate a certain ideally desired geometric alignment.
Kaehler brackets fing mention in Nanosystems.
Contents
Avoiding high internal stresses and strains
Avoiding high internal tensions will usually be desired to:
- retain full mechanical strength
- avoid fire hazard or even explosion hazard
Size and search space
The bigger the bracket the more accurate a desired alignement can be approximated.
The search-space quickly becomes hyper gigantic though.
Quantum computers could be used to find optimal atomic arrangements for desired geometries.
Going to the extreme
Even if thermal motions are bigger than the achieved accuracy over large scales (macroscale) that can average out.
Gravitational detectors e.g. can detect distances far below the diameter of an atomic core.
