Difference between revisions of "Microcomponent cache"

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[[File:GMRS-large-scale-regional-cache.png|500px|thumb|right|A large scale regional [[microcomponent cache]]
 
[[File:GMRS-large-scale-regional-cache.png|500px|thumb|right|A large scale regional [[microcomponent cache]]
for a [[global microcomponent redistribution system]]. This above surface one is for show. Large ones like this sone would most likely be burried deeply underground as they represent a great deal of concentrated value and critical infrastructure.]]
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for a [[global microcomponent redistribution system]]. This above surface one is for show. Large ones like this sone would most likely be burried deeply underground as they represent a great deal of concentrated value and critical infrastructure. Advanced APM allows for much more decentralization compared to today's (2024) technology. But completely distributed systems on the extreme have their downsides too. Thus larger repositories are likely to emerge.]]
 
[[File:Dalle2-outdoor-terminal-organic-futuristic.png|300px|thumb|right|Illustration (Dall·E 2) of a public human user side endpoint terminal of a [[Global microcomponent redistribution system]].]]
 
[[File:Dalle2-outdoor-terminal-organic-futuristic.png|300px|thumb|right|Illustration (Dall·E 2) of a public human user side endpoint terminal of a [[Global microcomponent redistribution system]].]]
  

Latest revision as of 12:27, 3 November 2024

This article is a stub. It needs to be expanded.
A large scale regional microcomponent cache for a global microcomponent redistribution system. This above surface one is for show. Large ones like this sone would most likely be burried deeply underground as they represent a great deal of concentrated value and critical infrastructure. Advanced APM allows for much more decentralization compared to today's (2024) technology. But completely distributed systems on the extreme have their downsides too. Thus larger repositories are likely to emerge.
Illustration (Dall·E 2) of a public human user side endpoint terminal of a Global microcomponent redistribution system.

Up: Global microcomponent redistribution system

Regional and local temporary storage sites for large to very large macroscopic quantities microcomponents
– either freshly pre-produced
– or for a while no longer needed

Scales

As a computing analogy one can think of these a bit like computer memory caches L3 L2 L1 (and CPU registers)

  • intercontinental
  • international
  • inter-regional
  • inter-city (local)
  • inter-neighborhood
  • inter-livingspace

Value & protection

Bigger ones represent a high concentration of value in cintents and infrastructure
and thus would likely be burried deeply underground. Unlike the one here for iullustration ourposes only.

inter living space ones would likely be integrated right into the end user devices.
Not enough value to afford special protection beyond the usual.
See: Keysholes for microcomponent disassembly.

Storage of parts of other sizes

Microcomponents are typically imperceptibly small for humans (about birch pollen scale)
but also very large from the perspective of the atomic scale.

Some parts of vastly different sizes might get stores too.

  • Storage of resource molecules. But likely in some microcomponent managed way. Think magazines. Result of some pre-mining for e.g. titanium.
  • Storage of larger parts. Very much like tube mail. Could even house some non AP things like wood-carvings or whatever.

Outer space & spacetravel

In outer space like during spacetravel or on small bodies in the asteroid belt
Producing locally from atomic feedstock may often be faster than waiting for long range delivery.
Heck even data takes a while if it needs debivery via space laser communication.

Planet Ceres is gargantuan for a belt celestial object.
So she can have her own Global microcomponent redistribution system.

Related