Self repairing system - Revision history

Apm: mokel => mocle

2024-07-02T13:14:35Z

mokel => mocle

← Older revision		Revision as of 15:14, 2 July 2024
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	Damage that fuses regions of microcomponents together is a lot more difficult to handle (assembly level IV).		Damage that fuses regions of microcomponents together is a lot more difficult to handle (assembly level IV).

	Repairing damage live in a product that is under use (e.g. a [[Artificial motor-muscles\|~~mokel~~]] needs means for internal transport for microcomponents e.g. [[legged mobility\|legged block mobility]] in a channel network. this further complicates the systems design and may lower maximal performance.		Repairing damage live in a product that is under use (e.g. a [[Artificial motor-muscles\|mocle]] needs means for internal transport for microcomponents e.g. [[legged mobility\|legged block mobility]] in a channel network. this further complicates the systems design and may lower maximal performance.

	== Fundamental types of self repair ==		== Fundamental types of self repair ==
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	Live self-repair is in place self-repair plus there is not even the need to turn off active operation of the		Live self-repair is in place self-repair plus there is not even the need to turn off active operation of the
	device (or active metamaterial). There is no need to turn of driving power or block freewheeling motion in e.g. [[~~mokel~~]]s and [[infinitesimal bearing]]s respectively.		device (or active metamaterial). There is no need to turn of driving power or block freewheeling motion in e.g. [[mocle]]s and [[infinitesimal bearing]]s respectively.
	Self repair can be performed maximally continuously and incrementally.		Self repair can be performed maximally continuously and incrementally.

Apm: /* Related */ added link to: Microcomponent maintenance microbot

2021-05-23T10:57:22Z

Related: added link to: Microcomponent maintenance microbot

← Older revision		Revision as of 12:57, 23 May 2021
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	* [[Consistent design for external limiting factors]]		* [[Consistent design for external limiting factors]]
			* [[Microcomponent maintenance microbot]]
	* [[Microcomponent tagging]]		* [[Microcomponent tagging]]
	* [[Debugging]]		* [[Debugging]]

Apm: /* In place self-repair */ fixed double redirect

2021-05-23T10:56:38Z

In place self-repair: fixed double redirect

← Older revision		Revision as of 12:56, 23 May 2021
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	Since the lowest assembly level with its [[mechanosynthesis]] is not necessarily (or not easily) designable to be reversible.		Since the lowest assembly level with its [[mechanosynthesis]] is not necessarily (or not easily) designable to be reversible.
	The stuff that will be transported through these dendritic channels would most likely mainly be [[microcomponent]]s or [[crystolecule]]s.		The stuff that will be transported through these dendritic channels would most likely mainly be [[microcomponent]]s or [[crystolecule]]s.
	[[Microcomponent ~~maintainance unit~~]]s would take care of local disassembly and reassembly and transport in and out the [[dendritic resupply system]].		[[Microcomponent maintenance microbot]]s would take care of local disassembly and reassembly and transport in and out the [[dendritic resupply system]].

	The stuff that will be transported through these dendritic channels would less likely be		The stuff that will be transported through these dendritic channels would less likely be

Apm: microcomponent recomposer => microcomponent recomposer device

2021-05-15T10:15:39Z

microcomponent recomposer => microcomponent recomposer device

← Older revision		Revision as of 12:15, 15 May 2021
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	The simplest form of repair is:		The simplest form of repair is:
	* Feeding the damaged objects back in a [[microcomponent recomposer]] or a complete nanofactory capable of repair.		* Feeding the damaged objects back in a [[microcomponent recomposer device]] or a complete nanofactory capable of repair.
	* There to check which [[microcomponent]]s are still usable and		* There to check which [[microcomponent]]s are still usable and
	* reassemble the original object with microcomponents that where found to be in working order or new ones as replacements for the damaged ones.		* reassemble the original object with microcomponents that where found to be in working order or new ones as replacements for the damaged ones.

Apm: /* In place self-repair */ fixed link

2021-05-15T09:54:04Z

In place self-repair: fixed link

← Older revision		Revision as of 11:54, 15 May 2021
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	The stuff that will be transported through these dendritic channels would less likely be		The stuff that will be transported through these dendritic channels would less likely be
	capsules with [[resource molecules]] for in place [[mechanosynthesis]].		capsules with [[resource molecules]] for in place [[mechanosynthesis]].
	Opting for in place [[mechanosynthesis]] would lead to a design quite similar to the (outdated) [[molecular assembler ~~concept~~]].		Opting for in place [[mechanosynthesis]] would lead to a design quite similar to the (outdated) [[molecular assembler]] concept.
	The very very low rates of turnover necessary for continuous repair of steadily accumulating radiation damage		The very very low rates of turnover necessary for continuous repair of steadily accumulating radiation damage
	might make the massive slowness of a [[molecular assembler]] like design somewhat acceptable though. Maybe.		might make the massive slowness of a [[molecular assembler]] like design somewhat acceptable though. Maybe.

Apm: Added section: == Fundamental types of self repair == basic version

2021-05-15T09:52:45Z

Added section: == Fundamental types of self repair == basic version

@@ Line 9: / Line 9: @@
 Different kinds of damage need different treatment.
 The simplest form of repair is:
@@ Line 19: / Line 17: @@
 Repairing damage live in a product that is under use (e.g. a [[Artificial motor-muscles|mokel]] needs means for internal transport for microcomponents e.g. [[legged mobility|legged block mobility]] in a channel network. this further complicates the systems design and may lower maximal performance.
 == Countering natural decay ==

Apm: /* Related */ added link to page Radiation damage

2021-03-28T20:22:06Z

Related: added link to page Radiation damage

← Older revision		Revision as of 22:22, 28 March 2021
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	* [[Recycling]] and [[Spill]]		* [[Recycling]] and [[Spill]]
	* [[Redundancy]]		* [[Redundancy]]
			* [[Radiation damage]]
	----		----
	{{wikitodo\|Add auto detection that product is abandoned - no usage like accelerations - timeout - dead man's button}}		{{wikitodo\|Add auto detection that product is abandoned - no usage like accelerations - timeout - dead man's button}}

Apm: /* Related */ added link to page: Redundancy

2021-03-28T20:21:07Z

Related: added link to page: Redundancy

← Older revision		Revision as of 22:21, 28 March 2021
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	* [[Debugging]]		* [[Debugging]]
	* [[Recycling]] and [[Spill]]		* [[Recycling]] and [[Spill]]
			* [[Redundancy]]
	----		----
	{{wikitodo\|Add auto detection that product is abandoned - no usage like accelerations - timeout - dead man's button}}		{{wikitodo\|Add auto detection that product is abandoned - no usage like accelerations - timeout - dead man's button}}

Apm: Added todo: in situ vs offline selfrepair

2017-11-17T03:02:58Z

Added todo: in situ vs offline selfrepair

← Older revision		Revision as of 05:02, 17 November 2017
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	In the latter case its obviously more likely that a spilled crystolecule meets moving parts.		In the latter case its obviously more likely that a spilled crystolecule meets moving parts.
	If it comes into moving parts in some cases it might not pose a problem due to the extreme slipperyness of crystolecules (e.g. probably so the case when coming between small gears). Other cases are serious (e.g. sticking in the corner of pistons preventing full displacement)		If it comes into moving parts in some cases it might not pose a problem due to the extreme slipperyness of crystolecules (e.g. probably so the case when coming between small gears). Other cases are serious (e.g. sticking in the corner of pistons preventing full displacement)

			== Notes ==

			{{Wikitodo\|Discuss distinction between "in situ self repair" and "offline self repair" and their relation to recycling and spill}}

	== Related ==		== Related ==

Apm: added new section: == Mechanical damage == -- crude

2017-11-14T17:09:15Z

added new section: == Mechanical damage == -- crude

@@ Line 52: / Line 52: @@
 Getting out the highly damaged macroscopically fused block is another issue - possibly requiring macroscale robotics.
 == Related ==
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 * [[Microcomponent tagging]]
 * [[Debugging]]
 ----
 {{wikitodo|Add auto detection that product is abandoned - no usage like accelerations - timeout - dead man's button}}