Nanomyomers
This revolutionary myo-architecure could allow us - if we so chose - to actually replicate a human being's skeletal and muscle functions at a scale of 1.78 micrometres.
The only thing we'd be missing are the organs, which of course would defeat the purpose of that hypothetical endeavour. Professor Lei Xiao Long - Univertisy of New Tsing-Hua, date unknown
Nanomyomers rely on quantum-electrodynamic coupling to trigger muscle contraction. Unlike traditional biological systems, which depend on calcium ion exchange and ATP consumption, nanomyomers make use of nanofluid actuators - tiny machines within the fibres that respond to quantum stimuli. These actuators are capable of synchronising contractions across vast numbers of fibres simultaneously, allowing for near-instantaneous and perfectly coordinated movement. This synchronisation not only increases force but also allows the nanomyomers to be far more resistant to fatigue, as each fibre can be precisely controlled to avoid overuse, strain and damage.
Research
| Tier | 5.400 | A decimal number between 0.0 and ~12.0 indicating the overall level of "advancement" of the science |
|---|---|---|
| Type | Applied | Pure sciences are focused on research and the improvement of knowledge. Applied sciences are too, but to a lesser extent and grant access to more concrete outcomes such as blueprints, governance, and others. |
Aspects
| Physical | Abstract | |
|---|---|---|
| Natural | 10 | 0 |
| Artificial | 5 | 2 |
Aspect tiers heatmap
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Blueprints
Coming soon.