Hyper high throughput microcomponent recomposition - Revision history

Apm: Category:Far term target

2026-03-29T17:05:56Z

← Older revision		Revision as of 19:05, 29 March 2026
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	* [[Limits of power density imposed by limits of cooling]]		* [[Limits of power density imposed by limits of cooling]]
	* [[The limits of cooling]]		* [[The limits of cooling]]

			[[Category:Far term target]]

Apm: /* Related */

2025-11-16T20:03:12Z

← Older revision		Revision as of 22:03, 16 November 2025
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	----		----
	* [[The challenge of high speeds near nanoscale]]		* [[The challenge of high speeds near nanoscale]]
			----
			* [[Limits of power density imposed by limits of cooling]]
			* [[The limits of cooling]]

Apm: /* The needed cooling monstrosity */ added link to The limits of cooling

2024-09-15T18:26:34Z

The needed cooling monstrosity: added link to The limits of cooling

← Older revision		Revision as of 20:26, 15 September 2024
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	Going to the absolute limits cooling devices may become much bigger than the actual production devices. <br>		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??		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! ==		== It's not a factory, it's a thing shooting rocket/gun! ==

Apm: /* Related / added backlink The challenge of high speeds near nanoscale

2024-09-15T16:08:22Z

Related: added backlink * The challenge of high speeds near nanoscale

← Older revision		Revision as of 18:08, 15 September 2024
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	* [[Level throughput balancing]]		* [[Level throughput balancing]]
	* [[Producer product pushapart]]		* [[Producer product pushapart]]
			----
			* [[The challenge of high speeds near nanoscale]]

Apm: /* Related / added '''On chip microcomponent recomposer'''

2024-03-19T08:17:36Z

Related: added * '''On chip microcomponent recomposer'''

← Older revision		Revision as of 10:17, 19 March 2024
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	== Related ==		== 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)]]
			----
			* [[Higher throughput of smaller machinery]]
	* [[High performance of gem-gum technology]]		* [[High performance of gem-gum technology]]
	* [[Higher throughput of smaller machinery]]
	* [[Level throughput balancing]]		* [[Level throughput balancing]]
	* [[Microcomponent recomposer (disambiguation)]]
	* [[Producer product pushapart]]		* [[Producer product pushapart]]

Apm: /* Main restrictions */

2024-03-19T08:09:38Z

Main restrictions

← Older revision		Revision as of 10:09, 19 March 2024
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	* The microcomponents that are to be assembled must already be available in a pre-produced state.		* 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]]		* 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. Hard to do large scale monolithic products that way though.		* 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 ==		== The needed cooling monstrosity ==

Apm: /* Main restrictions */

2024-03-19T08:09:27Z

Main restrictions

← Older revision		Revision as of 10:09, 19 March 2024
Line 17:		Line 17:
	* The microcomponents that are to be assembled must already be available in a pre-produced state.		* 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]]		* 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.		* 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. Hard to do large scale monolithic products that way though.

	== The needed cooling monstrosity ==		== The needed cooling monstrosity ==

Apm: /* Main restrictions */

2024-03-19T08:08:22Z

Main restrictions

← Older revision		Revision as of 10:08, 19 March 2024
Line 17:		Line 17:
	* The microcomponents that are to be assembled must already be available in a pre-produced state.		* 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]]		* 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 ~~throuugput~~ 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 ~~frictiion~~ below assembly friction by a large margin and eventually straight line levitation shoot-out.		* 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.

	== The needed cooling monstrosity ==		== The needed cooling monstrosity ==

Apm: /* Main restrictions */ added on note on scaling law breakdown (and circumventing it)

2024-03-19T08:07:23Z

Main restrictions: added on note on scaling law breakdown (and circumventing it)

← Older revision		Revision as of 10:07, 19 March 2024
Line 17:		Line 17:
	* The microcomponents that are to be assembled must already be available in a pre-produced state.		* 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]]		* 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 throuugput 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 frictiion below assembly friction by a large margin and eventually straight line levitation shoot-out.

	== The needed cooling monstrosity ==		== The needed cooling monstrosity ==

Apm: big extension

2021-08-21T14:54:05Z

big extension

@@ Line 8: / Line 8: @@
 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 snot yet maximal
+* 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]]!!
-Ant this would be microcomponent recomposition processes. <br>
 This may lead to astounding and (if not handled properly) even dangerous levels of throughput.
@@ Line 15: / Line 16: @@
 * The microcomponents that are to be assembled must already be available in a pre-produced state.
-* If product removal cant 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]]
+* 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]]
 == Related ==

Hyper high throughput microcomponent recomposition - Revision history

Apm: Category:Far term target

Apm: /* Related */

Apm: /* The needed cooling monstrosity */ added link to The limits of cooling

Apm: /* Related */ added backlink * The challenge of high speeds near nanoscale

Apm: /* Related */ added * '''On chip microcomponent recomposer'''

Apm: /* Main restrictions */

Apm: /* Main restrictions */

Apm: /* Main restrictions */

Apm: /* Main restrictions */ added on note on scaling law breakdown (and circumventing it)

Apm: big extension

Apm: /* Related / added backlink The challenge of high speeds near nanoscale

Apm: /* Related / added '''On chip microcomponent recomposer'''