Same frequencies for smaller machinery: Difference between revisions
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* Complement page to: [[Same absolute speeds for smaller machinery]] | * Complement page to: [[Same absolute speeds for smaller machinery]] | ||
* [[Convergent assembly]] | * [[Convergent assembly]] | ||
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Resonance frequencies for smaller mechanical resonators going up. <br> | |||
Insect wing frequencies going up for smaller insects. And such. <br> | |||
See: '''[[Scale natural frequency]]''' | |||
Latest revision as of 09:38, 29 September 2026
With frequencies kept constant for smaller machinery, speeds fall linearly for smaller machinery.
This is leading to a bad unter-utilization of nanoscale machinery capabilities.
Random example taking taking FFF 3D printing as a macroscale baseline for frequency.
- 100mm/s like average 3D printer speeds at 10cm=100mm scale (1Hz)
- => 1mm/s at 1mm scale => 1um/s at 1um scale
- => 10nm/s at 10nm scale
That is even slower than diffusion based transport in bilogical nanosystems.
Proposed speeds for advanced diamondoid/gemstone-based nanosystems.
In the book Nanosystems proposed where around 4mm/s at the smallest scales (~10nm).
And natural would be to (non-gradually) move back up to at least 100mm/s when moving back up to the the macroscale (10cm=100mm).
Same absolute speeds for smaller machinery seems to be a better baseline but also a bad one.
Still giving a design space point far away from even the beginning of any halfway decent optimization.
Related pages
- Complement page to: Same absolute speeds for smaller machinery
- Convergent assembly
Resonance frequencies for smaller mechanical resonators going up.
Insect wing frequencies going up for smaller insects. And such.
See: Scale natural frequency