Intercrystolecular snapping modes - Revision history

Apm: Category:Surprising facts

2026-03-29T20:32:19Z

← Older revision		Revision as of 22:32, 29 March 2026
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	[[Category:Technology level III]]		[[Category:Technology level III]]
			[[Category:Surprising facts]]

Apm at 19:44, 29 March 2026

2026-03-29T19:44:18Z

← Older revision		Revision as of 21:44, 29 March 2026
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	* '''[[VdW suck-in]]''' – slide snapping		* '''[[VdW suck-in]]''' – slide snapping
	* [[Accidental heatpump]] – entropic snap (?)		* [[Accidental heatpump]] – entropic snap (?)

			[[Category:Technology level III]]

Apm: /* Related */ added back-link to Superelasticity

2025-12-19T21:51:54Z

Related: added back-link to Superelasticity

← Older revision		Revision as of 23:51, 19 December 2025
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	----		----
	* [[Intercrystolecular forces]], [[Nonbonded forces]], [[Nonbonded interactions]], [[Van der Waals force]]		* [[Intercrystolecular forces]], [[Nonbonded forces]], [[Nonbonded interactions]], [[Van der Waals force]]
	* '''[[Snapback]]'''		* '''[[Snapback]]''' & [[Superelasticity]]
	----		----
	* [[Lagrangian mechanics for nanomechanical circuits]] – for how violent sharp shocks propagate to the system		* [[Lagrangian mechanics for nanomechanical circuits]] – for how violent sharp shocks propagate to the system

Apm: /* Stick-slip-snapping */

2025-09-14T09:22:14Z

Stick-slip-snapping

← Older revision		Revision as of 11:22, 14 September 2025
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	=== Stick-slip-snapping ===		=== Stick-slip-snapping ===

			Also: Longitudinal bend [[snapback]]. <br>
	A combination of high pressure notch-snapping and bend-snapping. <br>		A combination of high pressure notch-snapping and bend-snapping. <br>
	Level of energy perhaps somewhere in-between? <br>		Level of energy perhaps somewhere in-between? <br>
	~~Longitudinal bend [[snapback]].~~

	=== Surface atom bond snapback ===		=== Surface atom bond snapback ===

Apm: /* Bend snapping – and other snapping modes */

2025-09-14T09:21:52Z

Bend snapping – and other snapping modes

← Older revision		Revision as of 11:21, 14 September 2025
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	[[File:Crystolecule-vdW-questions snapping-bend-n-more.png\|400px\|thumb\|right\|'''Bend-snapping:''' Energy of bulk deformation gets unconstrained released. This can be a huge amount. '''Stick-slip-snapping:''' A combination of high pressure notch-snapping and bend-snapping. '''Surface bond snapback:''' Just surface atom bons(s) snap back. '''Entropic snapping:''' The snap is caused by an entropic force as a motion in a certain direction increases the thermal degrees of freedom (more micro-states define a more likely future). This may be significant.]]		[[File:Crystolecule-vdW-questions snapping-bend-n-more.png\|400px\|thumb\|right\|'''Bend-snapping:''' Energy of bulk deformation gets unconstrained released. This can be a huge amount. '''Stick-slip-snapping:''' A combination of high pressure notch-snapping and bend-snapping. '''Surface bond snapback:''' Just surface atom bons(s) snap back. '''Entropic snapping:''' The snap is caused by an entropic force as a motion in a certain direction increases the thermal degrees of freedom (more micro-states define a more likely future). This may be significant.]]

			Also: Transversal bend [[snapback]]. <br>
	'''A [[crystolecule]] part is bent and then suddenly released without any back-holding force.''' <br>		'''A [[crystolecule]] part is bent and then suddenly released without any back-holding force.''' <br>
	Many covalent bonds are stretched and they can be stretched/strained to a high degree. <br>		Many covalent bonds are stretched and they can be stretched/strained to a high degree. <br>

Apm: /* Stick-slip-snapping */

2025-09-14T09:20:28Z

Stick-slip-snapping

← Older revision		Revision as of 11:20, 14 September 2025
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	A combination of high pressure notch-snapping and bend-snapping. <br>		A combination of high pressure notch-snapping and bend-snapping. <br>
	Level of energy perhaps somewhere in-between? <br>		Level of energy perhaps somewhere in-between? <br>
			Longitudinal bend [[snapback]].

	=== Surface atom bond snapback ===		=== Surface atom bond snapback ===

Apm: /* Related */

2025-09-14T08:49:25Z

← Older revision		Revision as of 10:49, 14 September 2025
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	----		----
	* [[Intercrystolecular forces]], [[Nonbonded forces]], [[Nonbonded interactions]], [[Van der Waals force]]		* [[Intercrystolecular forces]], [[Nonbonded forces]], [[Nonbonded interactions]], [[Van der Waals force]]
	* [[Snapback]]		* '''[[Snapback]]'''
	----		----
	* [[Lagrangian mechanics for nanomechanical circuits]] – for how violent sharp shocks propagate to the system		* [[Lagrangian mechanics for nanomechanical circuits]] – for how violent sharp shocks propagate to the system

Apm: /* When to tolerate snaps */ = When to seek snaps =

2025-03-23T01:24:00Z

When to tolerate snaps: = When to seek snaps =

@@ Line 159: / Line 159: @@
 * … hugely simplifies the system design (complexity)
 * … reduces permanent in-system-remaining overhead (size, volume, mass). <br>E.g. no needs of the complexities imposed by [[energy recuperation]].
 = Relation of snaps to maximally possible assembly speed =

Apm: /* When to tolerate snaps */

2025-03-01T08:03:19Z

When to tolerate snaps

← Older revision		Revision as of 10:03, 1 March 2025
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	* … are not the dominant energy dissipation mechanism		* … are not the dominant energy dissipation mechanism

	Plus in case of cost of snap-avoidance is too high. ~~<br>~~		Plus in case of cost of snap-avoidance is too high. In case allowing snaps …
	In case allowing snaps …
	* … hugely simplifies the system design (complexity)		* … hugely simplifies the system design (complexity)
	* … reduces permanent in-system-remaining overhead (size, volume, mass). <br>E.g. no needs of the complexities imposed by [[energy recuperation]].		* … reduces permanent in-system-remaining overhead (size, volume, mass). <br>E.g. no needs of the complexities imposed by [[energy recuperation]].

Apm: /* When to tolerate snaps */

2025-03-01T08:03:05Z

When to tolerate snaps

← Older revision		Revision as of 10:03, 1 March 2025
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	* … are not the dominant energy dissipation mechanism		* … are not the dominant energy dissipation mechanism

	Plus in case allowing snaps …		Plus in case of cost of snap-avoidance is too high. <br>
			In case allowing snaps …
	* … hugely simplifies the system design (complexity)		* … hugely simplifies the system design (complexity)
	* … reduces permanent in-system-remaining overhead (size, volume, mass). <br>E.g. no needs of the complexities imposed by [[energy recuperation]].		* … reduces permanent in-system-remaining overhead (size, volume, mass). <br>E.g. no needs of the complexities imposed by [[energy recuperation]].