Mechanosynthesis adapter molecule - Revision history

Apm: Category:Direct path

2026-03-29T18:56:34Z

← Older revision		Revision as of 20:56, 29 March 2026
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	* 2006 – Rigid Molecular Tripod with an Adamantane Framework and Thiol Legs. Synthesis and Observation of an Ordered Monolayer on Au(111)		* 2006 – Rigid Molecular Tripod with an Adamantane Framework and Thiol Legs. Synthesis and Observation of an Ordered Monolayer on Au(111)
	* 2002 – Nanoscale Tripodal 1,3,5,7-Tetrasubstituted Adamantanes for AFM Applications		* 2002 – Nanoscale Tripodal 1,3,5,7-Tetrasubstituted Adamantanes for AFM Applications

			[[Category:Direct path]]

Apm: /* Related */ Stiff cantilever AFM

2026-01-07T12:34:35Z

Related: Stiff cantilever AFM

← Older revision		Revision as of 14:34, 7 January 2026
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	* [[Mechanosynthesis mode]]s		* [[Mechanosynthesis mode]]s
	----		----
	* [[Scanning probe microscopy]]		* [[Scanning probe microscopy]] & [[Stiff cantilever AFM]]

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

Apm: /* Related / Scanning probe microscopy

2026-01-07T12:34:13Z

Related: * Scanning probe microscopy

← Older revision		Revision as of 14:34, 7 January 2026
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	* [[Force applying mechanosynthesis]]		* [[Force applying mechanosynthesis]]
	* [[Mechanosynthesis mode]]s		* [[Mechanosynthesis mode]]s
			----
			* [[Scanning probe microscopy]]

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

Apm: /* External links */ added info, needs further improvements

2026-01-02T16:44:16Z

External links: added info, needs further improvements

← Older revision		Revision as of 18:44, 2 January 2026
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	== External links ==		== External links ==

	{{wikitodo\|Add links to papers of self assembling monolayers (SAMs) on gold surfaces.}}		{{wikitodo\|Add links to papers of self assembling monolayers (SAMs) on gold surfaces. Convert to proper references.}}

			'''On gold:'''
			* 2023 – Controlled Vertical Transfer of Individual Au Atoms Using a Surface Supported Carbon Radical for Atomically Precise Manufacturing
			* 2013 – Tailoring electronic states of a single molecule using adamantane-based molecular tripods
			* 2011 – Multidentate Adsorbates for Self-Assembled Monolayer Films
			* 2010 – Rigid adamantane tripod linkage for well-deﬁned conductance of a single-molecule junction
			* 2008 – Self-Assembly and Scanning Tunneling Microscopy Tip-Induced Motion of Ferrocene Adamantane Trithiolate Adsorbed on Au(111)
			* 2007 – Hierarchical Chiral Framework Based on a Rigid Adamantane Tripod on Au(111)
			* 2006 – Rigid Molecular Tripod with an Adamantane Framework and Thiol Legs. Synthesis and Observation of an Ordered Monolayer on Au(111)
			* 2002 – Nanoscale Tripodal 1,3,5,7-Tetrasubstituted Adamantanes for AFM Applications

Apm: == External links == placeholder

2026-01-02T16:11:22Z

== External links == placeholder

← Older revision		Revision as of 18:11, 2 January 2026
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	* [[Force applying mechanosynthesis]]		* [[Force applying mechanosynthesis]]
	* [[Mechanosynthesis mode]]s		* [[Mechanosynthesis mode]]s

			== External links ==

			{{wikitodo\|Add links to papers of self assembling monolayers (SAMs) on gold surfaces.}}

Apm at 15:38, 2 January 2026

2026-01-02T15:38:58Z

← Older revision		Revision as of 17:38, 2 January 2026
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	= Context: mechanosynthesis with macroscale [[SPM]] systems =		= Context: Early mechanosynthesis with macroscale [[SPM]] systems =

	A stiff-core molecule typically with three or more "legs" <br>		A stiff-core molecule typically with three or more "legs" <br>
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	See page: [[Mechanosynthesis mode]]s		See page: [[Mechanosynthesis mode]]s

	= Context: ~~mechanosynthesis~~ in [[advanced productive nanosystem]]s like [[nanofactories]] =		= Context: Mechanosynthesis in [[advanced productive nanosystem]]s like [[nanofactories]] =

	In future advanced systems adapter molecules may typically seamlessly integrate into [[crystolecule]]s. <br>		In future advanced systems adapter molecules may typically seamlessly integrate into [[crystolecule]]s. <br>

Apm: Context: mechanosynthesis in advanced productive nanosystems like nanofactoreis

2026-01-02T15:38:31Z

Context: mechanosynthesis in advanced productive nanosystems like nanofactoreis

← Older revision		Revision as of 17:38, 2 January 2026
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	See page: [[Mechanosynthesis mode]]s		See page: [[Mechanosynthesis mode]]s

			= Context: mechanosynthesis in [[advanced productive nanosystem]]s like [[nanofactories]] =

			In future advanced systems adapter molecules may typically seamlessly integrate into [[crystolecule]]s. <br>
			Making for mechanosynthesis adapter crystolecules: <br>
			– feedstock carrier crystolecules <br>
			– mechanosynthesis tool crystolecules <br>

	== Related ==		== Related ==

Apm: Apm moved page Adapter molecule to Mechanosynthesis adapter molecule: more specific

2026-01-02T15:34:01Z

Apm moved page Adapter molecule to Mechanosynthesis adapter molecule: more specific

← Older revision	Revision as of 17:34, 2 January 2026
(No difference)

Apm: /* Relation to mechanosynthesis mode */ Moved a big section over to page: Mechanosynthesis modes

2026-01-02T15:33:20Z

Relation to mechanosynthesis mode: Moved a big section over to page: Mechanosynthesis modes

@@ Line 52: / Line 52: @@
 = Relation to mechanosynthesis mode =
-== Inverted mode ==
+See page: [[Mechanosynthesis mode]]s
 == Related ==

Apm: /* Direct mode */ apex size not that much smaller but still huge advantage because …

2026-01-02T15:24:53Z

Direct mode: apex size not that much smaller but still huge advantage because …

← Older revision		Revision as of 17:24, 2 January 2026
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	== Direct mode ==		== Direct mode ==

	Adapter molecules are still needed here too as it turned out that without all the aforementioned advantages <br>		Adapter molecules are still needed here too as it turned out (lack of experimental progress despite attempts)
			that without all the aforementioned advantages <br>
	it is virtually impossible to build larger multi layered crystalline atomically precise structures. <br>		it is virtually impossible to build larger multi layered crystalline atomically precise structures. <br>

	'''There is obvious easy way to swap out the tool-molecule for an other one.''' <br>		Note that the SMP-needle-tip-apex is of a quite sharp tip is still sizable (e.g. ~20nm radius). <br>
			It might not be all that much smaller than the one for inverted mode. <br>
			Big difference: Having jut one single tool on the SPM-needle-top-apex allows one to <br>
			(in principle) pack the resouce-carrier-molecules as tight as it is physically possible. <br>
			Which should translate into a massive advantage in terms of shorter necessary motion lengths <br>
			and overall accessible quantity of resources.

			'''There is no obvious easy way to swap out the tool-molecule for an other one.''' <br>
	* Attempting slight rotations brings the problem of getting the rotation axis exactly running through the SPM-needle-tip-apex.		* Attempting slight rotations brings the problem of getting the rotation axis exactly running through the SPM-needle-tip-apex.
	* swapping out the entire needle brings the problem of [[finding the same nanoscale spot again]].		* swapping out the entire needle brings the problem of [[finding the same nanoscale spot again]].