View source for Hyper high throughput microcomponent recomposition

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[[Microcomponent recomposer]]s might be able to feature astounding to frightening levels of throughput capability.

Due to:
* (1/2) the [[scaling law]] of [[higher throughput of smaller machinery]] and ...
* (2/2) the lower energy turnover and higher efficiency of [[microcomponent recomposition]] compared to [[piezochemical mechanosynthesis]]

The maximum of throughput-performance is likely expectable for the smallest size scale where 
* the energy turnover is not yet excessive
* bearing surface area is not increased – Note: in first approximation of [[convergent assembly]] total bearing surface area does NOT grow going down the [[assembly layers]]!! 

And this would be [[microcomponent recomposition]] processes. <br>
This may lead to astounding and (if not handled properly) even dangerous levels of throughput. 

== Main restrictions ==

* The microcomponents that are to be assembled must already be available in a pre-produced state.
* If product removal can't be made faster than the assembly motions then one gets hard limited by the [[macroscale slowness bottleneck]] <br>For more details on this see the explanation on the page: [[Producer product pushapart]]
* Also at the point at which transport speeds (not frequencies) overtake assembly speeds the scaling law of [[higher throughput of smaller machinery]] breaks down. <br>See page "[[optimal sublayernumber for minimal friction]]" for the math behind this. <br> Some more can be squeezed out by reducing transport friction below assembly friction by a large margin and eventually straight line levitation shoot-out. <br>Hard to do large scale monolithic products that way though.

== The needed cooling monstrosity ==

Going to the absolute limits cooling devices may become much bigger than the actual production devices. <br>
May even the friction of the cooling capsules that are shot through become relevant??

Related page: [[The limits of cooling]]

== It's not a factory, it's a thing shooting rocket/gun! ==

If product extraction channels ...
* are well supported (big [[chamber to part size ratio]] and thick walls) and  
* do not curve but go straight
... then product removal speeds can exceed the [[unsupported rotating ring speed limit]]. That is: exceed ~3km/s <br>

This sounds more like a rocket engine than a production device ... lunatic ... <br>
So you better do that in vacuum! <br>

'''In space:'''
* Where to get all the pre-producted microcomponents from?
* What about the intense recoil? "Producing" both ways? <small>(it's more like "produshooting")</small>

'''On the ground:'''
* How to catch the products safely?!
* The whole cooling and catching stuff will likely be bigger than producing the stuff more slowly but with more devices. <br> So what about just producing stuff at sane speeds ...

== Related ==

* '''[[On chip microcomponent recomposer]]''' unlike this highly speculative page here that page is meant to be taken more seriously
* Other systems: [[Microcomponent recomposer (disambiguation)]]
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* [[Higher throughput of smaller machinery]]
* [[High performance of gem-gum technology]]
* [[Level throughput balancing]]
* [[Producer product pushapart]]
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* [[The challenge of high speeds near nanoscale]]