apm - Recent changes [en]

Ethyne

Apm — Mon, 12 Oct 2026 18:34:53 GMT

External links: Added Wikipedia pages: Acetylene Polyyne Cumulene

← Older revision		Revision as of 20:34, 12 October 2026
Line 49:		Line 49:
	* Calcium_carbide CaC<sub>2</sub> {{WikipediaLink\|https://en.wikipedia.org/wiki/Trimethylphosphine}} – released [[acetylene]] on contact with water		* Calcium_carbide CaC<sub>2</sub> {{WikipediaLink\|https://en.wikipedia.org/wiki/Trimethylphosphine}} – released [[acetylene]] on contact with water
	* Carbide_lamp {{WikipediaLink\|https://en.wikipedia.org/wiki/Carbide_lamp}}		* Carbide_lamp {{WikipediaLink\|https://en.wikipedia.org/wiki/Carbide_lamp}}
			----
			* [https://en.wikipedia.org/wiki/Acetylene Acetylene]
			* [https://en.wikipedia.org/wiki/Polyyne Polyyne]
			* [https://en.wikipedia.org/wiki/Cumulene Cumulene]

Gem-gum waste dissolution

Apm — Mon, 12 Oct 2026 07:54:28 GMT

Related: == External links ==

@@ Line 32: / Line 32: @@
 * [[Mechanosphere]]
 * [[Atomically precise disassembly]]
 [[Category:Far term target]]

Useful math

Apm — Sat, 10 Oct 2026 07:48:37 GMT

Useful algorithms in computer graphics

← Older revision		Revision as of 09:48, 10 October 2026
(2 intermediate revisions by the same user not shown)
Line 81:		Line 81:

	* Finding zeros: – [https://en.wikipedia.org/wiki/Newton%27s_method Newton's method] – [https://en.wikipedia.org/wiki/Regula_falsi Regula falsi]		* Finding zeros: – [https://en.wikipedia.org/wiki/Newton%27s_method Newton's method] – [https://en.wikipedia.org/wiki/Regula_falsi Regula falsi]
	* Integrating differential equations: – [https://en.wikipedia.org/wiki/Runge%E2%80%93Kutta_methods Runge Kutta methods] – [https://en.wikipedia.org/wiki/Leapfrog_integration Leapfrog integration]		* Integrating differential equations: – [https://en.wikipedia.org/wiki/Runge%E2%80%93Kutta_methods Runge Kutta methods] – [https://en.wikipedia.org/wiki/Leapfrog_integration Leapfrog integration] – [https://en.wikipedia.org/wiki/Verlet_integration Verlet Integration]
	----		----
	* [https://en.wikipedia.org/wiki/Eigenvalues_and_eigenvectors Eigenvalues and eigenvectors] – (linear algebra)		* [https://en.wikipedia.org/wiki/Eigenvalues_and_eigenvectors Eigenvalues and eigenvectors] – (linear algebra)
Line 228:		Line 228:
	== Useful algorithms in computer graphics ==		== Useful algorithms in computer graphics ==

	* GJK algorithm (collision detection)		* GJK algorithm (collision detection) [https://en.wikipedia.org/wiki/Gilbert%E2%80%93Johnson%E2%80%93Keerthi_distance_algorithm (leave to wikipedia)]
	* Raymarching and more general "Walk on Spheres" <br> (also useful.for physical simulations)		* Raymarching and more general
			* Walk on Spheres [https://en.wikipedia.org/wiki/Walk-on-spheres_method (leave to wikipedia)] <br> (also useful for physical simulations)
	* Octree and more advanced subdivision algorithms		* Octree and more advanced subdivision algorithms
	* Marching cubes (for ugly triangulations – somehow this is everyone's favorite though)		* Marching cubes (for ugly triangulations – somehow this is everyone's favorite though)
Line 266:		Line 267:
	== Related ==		== Related ==

			* [[Useful algorithms]]
	* [[Atomic orbitals]]		* [[Atomic orbitals]]
	* [[Hartree-Fock method]]		* [[Hartree-Fock method]]

Incremental path

Apm — Fri, 09 Oct 2026 07:49:25 GMT

Why necessarily early – fist climbing hierarchical self-assembly – then climbing technology levels

@@ Line 99: / Line 99: @@
 * Very late leftward-turn: [[Robo approach]] (See: [[Modular molecular composite nanosystem]] MMCN)
-== Self-assembly – Climbing '''selfassembly levels''' ==
+== System complexity – Climbing [[hierarchical self-assembly]] levels ==
-=== State of progress ===
+Or more generally: Increasing essential system complexity by expanding on [[noncyclic termination contol]] capabilities.
 A good place to look at is [[foldamer R&D]] specifically [[structural DNA nanotechnology]].<br>

Separation of concerns

Apm — Mon, 05 Oct 2026 09:46:59 GMT

In design of artificial advanced productive nanosystems

← Older revision		Revision as of 11:46, 5 October 2026
(2 intermediate revisions by the same user not shown)
Line 34:		Line 34:
	* better testability that is: easier narrowing down of bugs and		* better testability that is: easier narrowing down of bugs and
	* better system comprehesability		* better system comprehesability

			=> Well distributed well debugable systems <br>
			rather than (outdated) ultra compact self replication monolitic[[molecular assemblers]] following the biological cell analogy. <br>

			Both for [[bootstrapping]] ([[Modular molecular composite nanosystem]]s, [[early diamondoid nanosystem pixel (direct path)]]) <br>
			and for [[advanced productive nanosystem]]s ([[gemstone metamaterial on chip factory]]). <br>

	== In design of "early" nanosystems ==		== In design of "early" nanosystems ==
Line 40:		Line 46:
	* [[2D rail-frame based distributed modular pick-place assembly system]]		* [[2D rail-frame based distributed modular pick-place assembly system]]
	* [[Early diamondoid nanosystem pixel (direct path)]]		* [[Early diamondoid nanosystem pixel (direct path)]]
			* [[Modular molecular composite nanosystem]]s

	== In evolution and life ==		== In evolution and life ==

Conflation of concerns

Apm — Mon, 05 Oct 2026 09:38:42 GMT

Redirected page to Separation of concerns

New page

#REDIRECT [[Separation of concerns]]

Separation of concerns

Apm — Mon, 05 Oct 2026 09:37:04 GMT

At least three competing purposes for protein side-chains

← Older revision		Revision as of 11:37, 5 October 2026
(One intermediate revision by the same user not shown)
Line 2:		Line 2:

	== In protein folding ==		== In protein folding ==

			=== At least three competing purposes for protein side-chains ===

			* internal cohesion (hydrophobic side-chains in aqueous solution tend to nestle inside; lack of that gives intrinsically disordered proteins or worse)
			* inter protein binding (protein quarternary structure; larger interfaces needed for decently controllable and stiff binding angles)
			* outer functionality (binding small molecules and possibly catalyzing reactions between them)
			* (allosteric long range motion transmission effects – when looking beyond stiff proteins as building blocks)

			Related: [[Orthogonal set of protein binding interfaces]]

			=== Holistic behavior on single side chain changes ===

	Changing one side-chain on a protein to change a specific function <br>		Changing one side-chain on a protein to change a specific function <br>
Line 13:		Line 24:

	That is why stiff predictable folding protein motifs are of especial interest. <br>		That is why stiff predictable folding protein motifs are of especial interest. <br>
	~~Prootein~~ that are rather insensitive to local changes. <br>		Protein that are rather insensitive to local changes. <br>
	See: [[De-novo protein engineering]]		See: [[De-novo protein engineering]]

			Related: [[Fat finger problem]]

	== In design of artificial [[advanced productive nanosystem]]s ==		== In design of artificial [[advanced productive nanosystem]]s ==

Casting crystolecules

Apm — Mon, 05 Oct 2026 09:22:35 GMT

Size of cast crystolecules

← Older revision		Revision as of 11:22, 5 October 2026
(One intermediate revision by the same user not shown)
Line 1:		Line 1:
	{{stub}}		{{stub}}
			[[File:Images large oc4c01826 0007.jpeg\|268px\|thumb\|righ\|Here [https://pubs.acs.org/doi/10.1021/acscentsci.4c01826 (leave to paper)] de-novo proteins are used to regulate the size of CdS nanoscystals. The proteins make a sort of casting shell for the crystal growth defining and delimiting it's shape. Not quite atomically precise but well beyond the capabilities of free space thermodynamically grown nanocrystals. This example is still quite simple and primitive. Casting bigger more complex structures will need improvements on [[noncyclic termination control]] for [[de-novo protein engineering]].]]

	'''Casting crystolecules'''. Or more accurately '''"in nano-mold crystallization"'''. <br>		'''Casting crystolecules'''. Or more accurately '''"in nano-mold crystallization"'''. <br>
Line 17:		Line 18:

	* In early incremental path technology this may protein based molds. <br>		* In early incremental path technology this may protein based molds. <br>
	* In advanced [[gem based APM]] the molds themselves could possibly be made from [[crystolecules]].		* In advanced [[gem based APM]] the molds themselves could possibly be made from [[crystolecules]]. <br>

			== Size of cast crystolecules ==

			Since achieving atomic precision of surfaces via this approach is questionable <br>
			to still get decently well defined shapes somewhat bigger sizes for the hollow casting structures will be needed. <br>
			Somewhat bigger than the typical size of [[crystolecules]] expectable via [[force applying mechanosynthesis]]. <br>
			Casting such bigger more complex structures will need improvements on [[noncyclic termination control]] for [[de-novo protein engineering]]. <br>

			Actually [[noncyclic termination control]] for [[de-novo protein engineering]] <br>
			is an obstacle that is generally present of the [[incremental path]]. <br>
			Particularly for scaling of [[hierarchical self-assembly]] to expand the [[kinematic loop]] disentangle [[conflation of concerns]] <br>
			and thereby provide a basis to make starting climbing of the [[technology levels]] more feasible. <br>

	== Related ==		== Related ==

Inter technology binding

Apm — Mon, 05 Oct 2026 09:02:13 GMT

fixed typos in image description

← Older revision		Revision as of 11:02, 5 October 2026
Line 1:		Line 1:
	{{site specific term}}		{{site specific term}}
	{{stub}}		{{stub}}
	[[File:Images large oc4c01826 0007.jpeg\|268px\|thumb\|righ\|Here [https://pubs.acs.org/doi/10.1021/acscentsci.4c01826 (leave to paper)] de-novo proteins are used to regulate the size of CdS nanoscystals, But ~~one~~ once one has the ~~capabilit~~ of [[force applying mechanosynthesis]] then one (reversely) could mechanosynthsize nano-cystals with a shape that nicely binds to the de-novo proteins. ~~Gioving~~ one a [[stiff]] interface between the two material technologies.]]		[[File:Images large oc4c01826 0007.jpeg\|268px\|thumb\|righ\|Here [https://pubs.acs.org/doi/10.1021/acscentsci.4c01826 (leave to paper)] de-novo proteins are used to regulate the size of CdS nanoscystals, But once one has the capability of [[force applying mechanosynthesis]] then one (reversely) could mechanosynthsize nano-cystals with a shape that nicely binds to the de-novo proteins. Giving one a [[stiff]] interface between the two material technologies.]]

	{{Wikitodo\|Add main text.}}		{{Wikitodo\|Add main text.}}

Casting crystolecules

Apm — Mon, 05 Oct 2026 09:00:03 GMT

added link to * Inter technology binding

← Older revision		Revision as of 11:00, 5 October 2026
Line 22:		Line 22:

	* [[Amorphous structures]]		* [[Amorphous structures]]
			* [[Inter technology binding]]

	== External links ==		== External links ==

Form factors of gem-gum factories

Apm — Mon, 05 Oct 2026 08:58:48 GMT

added image with contents in the desktop device

← Older revision		Revision as of 10:58, 5 October 2026
Line 1:		Line 1:
	[[File:C00-HomeScaleAssemblySystems.jpg\|400px\|thumb\|right\|Collage of some AI-art & a hand-sketch. Illustrating how a portable desktop living-room nanofactory device could look like. And illustrating larger scales too. Though at larger scales in-place-prodcution for visibly large scales (as is depicted for a car and a ship) grows increasingly unlikely. For car scale more likely is the use of macroscale fairy-hand-tentacle-manipulators (as depicted) and organic looking crane like manipulators for ship & building scale (not depicted). Also at ship scale quite likely is the use of several disjoint nanofactory chips rather than the extremely big on (as is depicted). All macroscale manipulators possible dynamically deployed as needed.]]		[[File:C00-HomeScaleAssemblySystems.jpg\|400px\|thumb\|right\|Collage of some AI-art & a hand-sketch. Illustrating how a portable desktop living-room nanofactory device could look like. And illustrating larger scales too. Though at larger scales in-place-prodcution for visibly large scales (as is depicted for a car and a ship) grows increasingly unlikely. For car scale more likely is the use of macroscale fairy-hand-tentacle-manipulators (as depicted) and organic looking crane like manipulators for ship & building scale (not depicted). Also at ship scale quite likely is the use of several disjoint nanofactory chips rather than the extremely big on (as is depicted). All macroscale manipulators possible dynamically deployed as needed.]]

	[[File:PortableLivingroomNanofactory.jpg\|300px\|thumb\|right\|One possible form factor is similar to today's tablet computers. The protective hood could be dynamical deployed making it very backpack-portable. A cable for supply with resources and/or power would be needed. Not depicted here. Related: [[Operation modes of a gem-gum factory]].]]		[[File:PortableLivingroomNanofactory.jpg\|300px\|thumb\|right\|One possible form factor is similar to today's tablet computers. The protective hood could be dynamical deployed making it very backpack-portable. A cable for supply with resources and/or power would be needed. Not depicted here. Related: [[Operation modes of a gem-gum factory]].]]

			[[File:Gem-gum-factory-with-shoe-product-and-anemone-arm-fairy-hand-end-effectors.jpg\|thumb\|right\|300px\|A personal [[Nanofactory\|gem-gum factory]] here in tablet format dynamically deploying a clean-room hood [[Gem-gum anemone-arm fairy-hand manipulator]]s and thst are doing some final touches (tying retro-style laces) on the fully "extruded" product.]]

	[[File:Photo of a iridescent friendly futuristic organically shaped telephone booth standing beside a path in a park in summer photo.jpeg\|300px\|thumb\|right\|Public terminal concept art. More on that on page: [[Global microcomponent redistribution system]].]]		[[File:Photo of a iridescent friendly futuristic organically shaped telephone booth standing beside a path in a park in summer photo.jpeg\|300px\|thumb\|right\|Public terminal concept art. More on that on page: [[Global microcomponent redistribution system]].]]

Pathways to advanced APM systems

Apm — Sun, 04 Oct 2026 19:26:12 GMT

Added the pathways graphic as it was sorely missing here.

← Older revision		Revision as of 21:26, 4 October 2026
Line 1:		Line 1:
	{{stub}}		{{stub}}
			[[File:APM-EarlyDevelopmentPaths.jpg\|600px\|thumb\|right\|A possible map for [[incremental path]]ways and [[mixed path]]ways. <br>Left axis: [[technology levels]] <br>Right axis see: [[convergent assembly comparison]] and [[hierarchical self-assembly]]. <br>The [[direct path]] starts top left (3,0) right away facing the challenge of more difficult [[scaling of system complexity]] rather than getting the challenge to get to better i.e. stiffer materials.<br> The red stars indicate challenging blockades: <br>(1,0) [[Positional assembly redundancy blockade]] and <br>(0,5) [[Thermal driven selfassembly diffusion speed slowdown blockade]].]]
	[[File:Rock_climber_on_the_Main_Wall_Trowbarrow.jpg\|400px\|thumb\|right\|the steep direct path]]		[[File:Rock_climber_on_the_Main_Wall_Trowbarrow.jpg\|400px\|thumb\|right\|the steep direct path]]
	[[File:Stone_path_on_Fan_Brycheiniog.jpg\|400px\|thumb\|right\|the long incremental path]]		[[File:Stone_path_on_Fan_Brycheiniog.jpg\|400px\|thumb\|right\|the long incremental path]]

Convergent assembly

Apm — Sun, 04 Oct 2026 18:39:42 GMT

← Older revision		Revision as of 20:39, 4 October 2026
Line 150:		Line 150:
	----		----
	* [[In place assembly]]		* [[In place assembly]]
			----
			* '''[[Optimal sublayernumber for minimal friction]]'''

Motor-muscle

Apm — Sun, 04 Oct 2026 15:14:25 GMT

Thin sheet and balloon muscle-motor mocles: added sub-headline & note on force density

@@ Line 28: / Line 28: @@
 Rooled up it could be a possible high pressure gas inflated hollow tubular "balloon". <br>
 See page: [[Gem-gum balloon products]] <br>
 == Related ==

Power density

Apm — Sun, 04 Oct 2026 11:44:03 GMT

Related: Gem-gum balloon products

← Older revision		Revision as of 13:44, 4 October 2026
Line 100:		Line 100:
	----		----
	* '''[[Limits of power density imposed by limits of cooling]]'''		* '''[[Limits of power density imposed by limits of cooling]]'''
			----
			* [[Gem-gum balloon products]] … as consequence of possible high power density.

	== External Links ==		== External Links ==

Gem-gum balloon products

Apm — Sun, 04 Oct 2026 11:42:39 GMT

Related: power density

← Older revision		Revision as of 13:42, 4 October 2026
Line 112:		Line 112:
	* use for diverse robotic applications including '''[[multi limbed sensory equipped shells]]'''		* use for diverse robotic applications including '''[[multi limbed sensory equipped shells]]'''
	* [[Motor-muscle]] (mocle)		* [[Motor-muscle]] (mocle)
			----
			* high [[power density]] => small volume of actuators

	[[Category:Technology level III]]		[[Category:Technology level III]]
	[[Category:Surprising facts]]		[[Category:Surprising facts]]

Friction in gemstone metamaterial technology

Apm — Sun, 04 Oct 2026 10:14:35 GMT

← Older revision		Revision as of 12:14, 4 October 2026
Line 382:		Line 382:
	* [[Atomically precise bearings]] – especially [[Atomically precise slide bearing]]s		* [[Atomically precise bearings]] – especially [[Atomically precise slide bearing]]s
	* '''[[Mesoscale friction]]'''		* '''[[Mesoscale friction]]'''
			* [[Macroscale mechanical bearings]]
			----
			* [[Reciprocative dissipation mechanisms in gem-gum technology]]

	[[Nanosystems]] – Chapter 7 – Energy Dissipation – (page 161 to 190)		[[Nanosystems]] – Chapter 7 – Energy Dissipation – (page 161 to 190)

Distorted visualization methods for convergent assembly

Apm — Tue, 29 Sep 2026 23:48:16 GMT

Related: * Convergent assembly

← Older revision		Revision as of 01:48, 30 September 2026
Line 82:		Line 82:
	* [[Visualizations of gemstone metamaterial factories]]		* [[Visualizations of gemstone metamaterial factories]]
	* [[Log polar mapping]]		* [[Log polar mapping]]
			* [[Convergent assembly]]

	[[Category:Far term target]]		[[Category:Far term target]]
	[[Category:Surprising facts]]		[[Category:Surprising facts]]

Energy dissipation in gemstone metamaterial technology

Apm — Tue, 29 Sep 2026 09:04:02 GMT

minimal basic page

New page

{{Stub}}

Beside friction there are also other things that can lead to energy losses 
by eventual conversion to directed free usable energy to statistic motion unusable bound thermal energy (aka energy devaluation or dissipation). 
These include e.g. shaking and back and and forth bending. 

* [[Friction in gemstone metamaterial technology]]
* [[Reciprocative dissipation mechanisms in gem-gum technology]]

Friction in gemstone metamaterial technology

Apm — Tue, 29 Sep 2026 08:58:25 GMT

added link to yet unwritten page Energy dissipation in gemstone metamaterial technology

← Older revision		Revision as of 10:58, 29 September 2026
Line 1:		Line 1:
	{{wikitodo\|This page needs major cleanup - several parts need to be merged and completed and factored out}} <br>		{{wikitodo\|This page needs major cleanup - several parts need to be merged and completed and factored out}} <br>
	[[File:Superlubricity scaling chart.png\|800px\|thumb\|right\|Double logarithmic chart of several estimations for [[superlubricity\|superlubric friction]] and its quadratic scaling. Note that at moderate speeds like 1m/s it is actually quite high but it quickly drops off going to lower (proposed) speeds around ~1mm/s. The black line (way higher up than all the others) is not superlubric friction but dynamic friction in fluids for comparison. '''This does not cover [[reciprocative dissipation mechanism]]s modes''' which can be significant and can't be co-plotted without a number of (at this point in 2025 still too difficult to pin down) assumptions.]]		[[File:Superlubricity scaling chart.png\|800px\|thumb\|right\|Double logarithmic chart of several estimations for [[superlubricity\|superlubric friction]] and its quadratic scaling. Note that at moderate speeds like 1m/s it is actually quite high but it quickly drops off going to lower (proposed) speeds around ~1mm/s. The black line (way higher up than all the others) is not superlubric friction but dynamic friction in fluids for comparison. '''This does not cover [[reciprocative dissipation mechanism]]s modes''' which can be significant and can't be co-plotted without a number of (at this point in 2025 still too difficult to pin down) assumptions.]]
			Up: [[Energy dissipation in gemstone metamaterial technology]] <br>
	Up: [[Friction]]		Up: [[Friction]]

Friction in gem-gum technology

Apm — Tue, 29 Sep 2026 08:48:15 GMT

Apm moved page Friction in gem-gum technology to Friction in gemstone metamaterial technology better to explain gem-gum on different page

@@ Line 7: / Line 7: @@
 One of these bad conclusions is that macroscale style machinery at the nanoscale would lead to exorbitant amounts of friction. A very wrong conclusion, as I will try to show below.
 <small>(There are other misled criticisms to the idea beside the false conclusion of exorbitant friction. For a discussion of those you may want to check out the main page about [[macroscale style machinery at the nanoscale]].)</small>
 = Dodge the trapdoors =

Same absolute speeds for smaller machinery

Apm — Tue, 29 Sep 2026 07:42:12 GMT

← Older revision		Revision as of 09:42, 29 September 2026
(One intermediate revision by the same user not shown)
Line 83:		Line 83:
	== Related ==		== Related ==

	* [[Scale natural frequency]]		* [[Scale natural frequency]] (Twice the frequency of half sized machinery)
			* Complement page: [[Same frequencies for smaller machinery]] (not scale natural)
	----		----
	* [[Scaling law]]		* [[Scaling law]]

Twice the frequency of half sized machinery

Apm — Tue, 29 Sep 2026 07:39:11 GMT

← Older revision		Revision as of 09:39, 29 September 2026
Line 29:		Line 29:

	* [[Unsupported rotating ring speed limit]] – this follows scale natural frequencies at the upper physical limit		* [[Unsupported rotating ring speed limit]] – this follows scale natural frequencies at the upper physical limit
	* '''[[Same absolute speeds for smaller machinery]]'''		* '''[[Same absolute speeds for smaller machinery]]''' & [[Same frequencies for smaller machinery]]
	* [[Scaling law]]		* [[Scaling law]]
	* [[Scaling laws by degree of knownness]]		* [[Scaling laws by degree of knownness]]

	[[Category:Scaling law]]		[[Category:Scaling law]]

Same frequencies for smaller machinery

Apm — Tue, 29 Sep 2026 07:38:17 GMT

* Scale natural frequency

← Older revision		Revision as of 09:38, 29 September 2026
Line 20:		Line 20:
	* Complement page to: [[Same absolute speeds for smaller machinery]]		* Complement page to: [[Same absolute speeds for smaller machinery]]
	* [[Convergent assembly]]		* [[Convergent assembly]]
			----
			Resonance frequencies for smaller mechanical resonators going up. <br>
			Insect wing frequencies going up for smaller insects. And such. <br>
			See: '''[[Scale natural frequency]]'''

Same frequencies for smaller machinery

Apm — Tue, 29 Sep 2026 07:34:59 GMT

basic page

New page

{{stub}}
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]]

Same absolute speeds for smaller machinery

Apm — Tue, 29 Sep 2026 07:13:09 GMT

Impractical extreme ends and the golden middle as a start for optimizations: reordered, put the "golden middle" in the middle

← Older revision		Revision as of 09:13, 29 September 2026
(One intermediate revision by the same user not shown)
Line 71:		Line 71:

	Related: [[Intuitive feel]]		Related: [[Intuitive feel]]

			== Impractical extreme ends and the golden middle as a start for optimizations ==

			{\| class="wikitable" style="text-align:center; width:100%;"
			\|-
			\| [[File:NanosystemsNotAProposedDesignConvergentAssembly.jpg\|200px\|thumb\|center\|'''NOT A PROPOSED SYSTEM''' – The other extreme end. '''[[Same frequencies for smaller machinery]]''' leading to '''linearly falling absolute speeds for smaller machinery.'''}}]]
			\| [[File:productive-nanosystems-video-snapshot.png\|thumb\|center\|200px\|'''THIS(!) IS A PROPOSED SYSTEM''' – Real systems will be an intermediate between the two leaning to the latter as baseline but skewing a bit over to the former for the bottom-most layer. Motivations being: (A) Reducing speeds to reduce friction. See: [[Increasing bearing area to decrease friction]] and (B) Specialized part assembly line machanosynthesis to get a nicely high spacial density of operating reaction sites.]]
			\| [[File:ConvergentAssemblyThroughputScalingLaw-compressed.jpg\|200px\|thumb\|center\|'''NOT A PROPOSED SYSTEM''' – The other extreme end of '''same absolute speeds for smaller machinery''' leading to '''linearly rising frequencies form smaller machiners''' this is better more natural starting point that rising frequencies but still just a bad starting point very far away from even crudely optimized systems.]]
			\|}

	== Related ==		== Related ==

Higher throughput of smaller machinery

Apm — Tue, 29 Sep 2026 06:45:03 GMT

← Older revision		Revision as of 08:45, 29 September 2026
(4 intermediate revisions by the same user not shown)
Line 261:		Line 261:
	== Related ==		== Related ==

			'''[[Higher bearing area of smaller machinery]]''': <br>
			The concern that this leads to excessive sliding friction losses <br>
			is mended by the here discussed "[[higher throughput of smaller machinery]]" <br>
			as it implies that only a very small overall volume of nanomachinery is needed <br>
			for practical [[advanced productive nanosystem]]s. <br>
			----
			* '''[[Friction in gem-gum-tec]]''' & [[Friction]]
			----
	* '''[[Math of convergent assembly]]'''		* '''[[Math of convergent assembly]]'''
	* [[~~High performance of gem-gum technology]]~~		* [[Convergent assembly]]
	* Harvesting the benefits of the scaling law: [[Hyper high throughput microcomponent recomposition]]
	* [[Deliberate slowdown at the lowest assembly level]] & [[Increasing bearing area to decrease friction]]		* [[Deliberate slowdown at the lowest assembly level]] & [[Increasing bearing area to decrease friction]]
	* [[~~Friction]]~~		* '''[[Optimal sublayernumber for minimal friction]]'''
	* [[Scaling law]] -- [[Scaling law#Speedup]]
	* [[Convergent assembly]]
	* [[Level throughput balancing]]		* [[Level throughput balancing]]
	* [[Macroscale slowness bottleneck]]		* [[Macroscale slowness bottleneck]]
	* [[Atom placement frequency]]
	* [[Low speed efficiency limit]]		* [[Low speed efficiency limit]]
			* [[Atom placement frequency]] (MHz TeraCore systems as desktop devices)
			----
	* [[Pages with math]]		* [[Pages with math]]
	* ~~'''~~[[~~Optimal sublayernumber for minimal friction~~]]~~'''~~		* [[Scaling law]] -- [[Scaling law#Speedup]]
	[[~~Category:Pages with math~~]]		----
			* Harvesting the benefits of the scaling law: [[Hyper high throughput microcomponent recomposition]]
			* [[High performance of gem-gum technology]]
	----		----
	* Another very important as of 2022 barely known scaling law: <br>'''[[Same relative deflections across scales]]'''		* Another very important as of 2022 barely known scaling law: <br>'''[[Same relative deflections across scales]]'''
Line 280:		Line 288:
	* Slightly violated baseline scaling law: '''[[Same absolute speeds for smaller machinery]]'''		* Slightly violated baseline scaling law: '''[[Same absolute speeds for smaller machinery]]'''
	----		----
	Another massively overpowered performance parameter is:		Another seemingly massively overpowered performance parameter is: <br>
	* '''Higher [[power density]] of smaller machinery.'''		'''Higher [[power density]] of smaller machinery.''' <br>
	~~That~~ is less of a scaling law and more of a property of [[gem-gum]] systems though {{todo\|to check}}.		This is less of a scaling law and more of a property of [[gem-gum]] systems though {{todo\|to check}}.

			[[Category:Pages with math]]

	== External links ==		== External links ==

← Older revision		Revision as of 10:58, 5 October 2026
Line 1:		Line 1:
	[[File:C00-HomeScaleAssemblySystems.jpg\|400px\|thumb\|right\|Collage of some AI-art & a hand-sketch. Illustrating how a portable desktop living-room nanofactory device could look like. And illustrating larger scales too. Though at larger scales in-place-prodcution for visibly large scales (as is depicted for a car and a ship) grows increasingly unlikely. For car scale more likely is the use of macroscale fairy-hand-tentacle-manipulators (as depicted) and organic looking crane like manipulators for ship & building scale (not depicted). Also at ship scale quite likely is the use of several disjoint nanofactory chips rather than the extremely big on (as is depicted). All macroscale manipulators possible dynamically deployed as needed.]]		[[File:C00-HomeScaleAssemblySystems.jpg\|400px\|thumb\|right\|Collage of some AI-art & a hand-sketch. Illustrating how a portable desktop living-room nanofactory device could look like. And illustrating larger scales too. Though at larger scales in-place-prodcution for visibly large scales (as is depicted for a car and a ship) grows increasingly unlikely. For car scale more likely is the use of macroscale fairy-hand-tentacle-manipulators (as depicted) and organic looking crane like manipulators for ship & building scale (not depicted). Also at ship scale quite likely is the use of several disjoint nanofactory chips rather than the extremely big on (as is depicted). All macroscale manipulators possible dynamically deployed as needed.]]

	[[File:PortableLivingroomNanofactory.jpg\|300px\|thumb\|right\|One possible form factor is similar to today's tablet computers. The protective hood could be dynamical deployed making it very backpack-portable. A cable for supply with resources and/or power would be needed. Not depicted here. Related: [[Operation modes of a gem-gum factory]].]]		[[File:PortableLivingroomNanofactory.jpg\|300px\|thumb\|right\|One possible form factor is similar to today's tablet computers. The protective hood could be dynamical deployed making it very backpack-portable. A cable for supply with resources and/or power would be needed. Not depicted here. Related: [[Operation modes of a gem-gum factory]].]]

			[[File:Gem-gum-factory-with-shoe-product-and-anemone-arm-fairy-hand-end-effectors.jpg\|thumb\|right\|300px\|A personal [[Nanofactory\|gem-gum factory]] here in tablet format dynamically deploying a clean-room hood [[Gem-gum anemone-arm fairy-hand manipulator]]s and thst are doing some final touches (tying retro-style laces) on the fully "extruded" product.]]

	[[File:Photo of a iridescent friendly futuristic organically shaped telephone booth standing beside a path in a park in summer photo.jpeg\|300px\|thumb\|right\|Public terminal concept art. More on that on page: [[Global microcomponent redistribution system]].]]		[[File:Photo of a iridescent friendly futuristic organically shaped telephone booth standing beside a path in a park in summer photo.jpeg\|300px\|thumb\|right\|Public terminal concept art. More on that on page: [[Global microcomponent redistribution system]].]]