Wear - Revision history

Apm at 12:59, 16 March 2023

2023-03-16T12:59:09Z

← Older revision		Revision as of 14:59, 16 March 2023
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	Wear is a statistical process inherently needing a large number of parts to be an applicable concept.		Wear is a statistical process inherently needing a large number of parts to be an applicable concept.

	Note: [[Wear]] and [[friction]] are often considered intermingledly. <br>		Note: '''[[Wear]] and [[friction]]''' are often considered intermingledly. <br>
	For a discussion of [[friction]] in the context of [[gemstone metamaterial technology]] <br>		For a discussion of [[friction]] in the context of [[gemstone metamaterial technology]] <br>
	see: [[Friction in gem-gum technology]]		see: '''[[Friction in gem-gum technology]]'''

	= Exceptions – Actual wear =		= Exceptions – Actual wear =

Apm: added note on friction in intro

2023-03-16T12:58:38Z

added note on friction in intro

← Older revision		Revision as of 14:58, 16 March 2023
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	So there cannot be failure from self-interaction. And wear is not an applicable concept. <br>		So there cannot be failure from self-interaction. And wear is not an applicable concept. <br>
	Wear is a statistical process inherently needing a large number of parts to be an applicable concept.		Wear is a statistical process inherently needing a large number of parts to be an applicable concept.

			Note: [[Wear]] and [[friction]] are often considered intermingledly. <br>
			For a discussion of [[friction]] in the context of [[gemstone metamaterial technology]] <br>
			see: [[Friction in gem-gum technology]]

	= Exceptions – Actual wear =		= Exceptions – Actual wear =

Apm: removed the {{stub}} marker

2023-03-16T12:54:06Z

removed the {{stub}} marker

← Older revision		Revision as of 14:54, 16 March 2023
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	~~{{Stub}}~~

	There is no wear in [[diamondoid crystolecular machine element]]s (or more generally [[gemstone-like molecular element]]s). <br>		There is no wear in [[diamondoid crystolecular machine element]]s (or more generally [[gemstone-like molecular element]]s). <br>
	See: [[Examples of diamondoid molecular machine elements]] & [[Atomically precise bearings]]. <br>		See: [[Examples of diamondoid molecular machine elements]] & [[Atomically precise bearings]]. <br>

Apm: /* Thermal damage */ note on potential high resilience of non-strained structures

2023-03-16T12:53:33Z

Thermal damage: note on potential high resilience of non-strained structures

← Older revision		Revision as of 14:53, 16 March 2023
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	Like e.g. highly stained bonds will be the first <br>		Like e.g. highly stained bonds will be the first <br>
	to escape metastable states to thermal equilibrium.		to escape metastable states to thermal equilibrium.

			Simple non-strained structures like [[moissanite]] will be extremely resilient. <br>
			Most critical is perhaps fusion from depassivation. <br>
			That is: Unintentional [[seamless covalent welding]] as the <br>
			hydrogen atoms that cap the surfaces escape. <br>
			Replacing hydrogen atoms on surfaces with fluorine atoms might help.

	= Related =		= Related =

Apm: /* Thermal damage */

2023-03-16T12:48:09Z

Thermal damage

← Older revision		Revision as of 14:48, 16 March 2023
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	Not that there there are some correlations between <br>		Not that there there are some correlations between <br>
	thermal chemical and mechanical stability. <br>		thermal, chemical, and mechanical stability. <br>
	Like e.g. highly stained bonds will be the first <br>		Like e.g. highly stained bonds will be the first <br>
	to escape metastable states to thermal equilibrium.		to escape metastable states to thermal equilibrium.

Apm: /* Thermal damage */

2023-03-16T12:47:45Z

Thermal damage

← Older revision		Revision as of 14:47, 16 March 2023
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	== Thermal damage ==		== Thermal damage ==

			See: [[Thermal damage]]

	Going near the melting point can cause serious damage. <br>		Going near the melting point can cause serious damage. <br>

Apm: /* Non-wear damage mechanisms */ added section == Thermal damage ==

2023-03-16T12:47:29Z

Non-wear damage mechanisms: added section == Thermal damage ==

@@ Line 69: / Line 69: @@
 High energy particle radiation can cause heavy damage <br>
 thermalizing (more or less melting) quite some local volume.
 = Related =

Apm: /* Related */

2023-03-16T12:39:23Z

← Older revision		Revision as of 14:39, 16 March 2023
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	= Related =		= Related =

	* [[Damage mechanisms]]		* [[Damage mechanisms]]: [[Radiation damage]], [[Thermal damage]]
	----		----
	* [[Atomically precise bearings]]		* [[Atomically precise bearings]]

Apm: /* Related / added Redundancy * Self repairing system

2023-03-16T12:38:36Z

Related: added * Redundancy * Self repairing system

← Older revision		Revision as of 14:38, 16 March 2023
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	* [[Damage mechanisms]]		* [[Damage mechanisms]]
			----
	* [[Atomically precise bearings]]		* [[Atomically precise bearings]]
	* [[Examples of diamondoid molecular machine elements]]		* [[Examples of diamondoid molecular machine elements]]
			----
			* [[Redundancy]]
			* [[Self repairing system]]

Apm: /* Related */ added two links

2023-03-16T12:37:59Z

Related: added two links

← Older revision		Revision as of 14:37, 16 March 2023
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	= Related =		= Related =

			* [[Damage mechanisms]]
	* [[Atomically precise bearings]]		* [[Atomically precise bearings]]
			* [[Examples of diamondoid molecular machine elements]]

Wear - Revision history

Apm at 12:59, 16 March 2023

Apm: added note on friction in intro

Apm: removed the {{stub}} marker

Apm: /* Thermal damage */ note on potential high resilience of non-strained structures

Apm: /* Thermal damage */

Apm: /* Thermal damage */

Apm: /* Non-wear damage mechanisms */ added section == Thermal damage ==

Apm: /* Related */

Apm: /* Related */ added * Redundancy * Self repairing system

Apm: /* Related */ added two links

Apm: /* Related / added Redundancy * Self repairing system