Radiation damage - Revision history

Apm: /* Related / added link to not yet written page '''Damage mechanisms'''

2023-03-18T10:55:19Z

Related: added link to not yet written page * '''Damage mechanisms'''

← Older revision		Revision as of 12:55, 18 March 2023
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	* [[Redundancy]]		* [[Redundancy]]
	* [[Self repairing system]]		* [[Self repairing system]]
			----
			* '''[[Damage mechanisms]]'''

	= External links =		= External links =

Apm: /* Related / added links to pages: Redundancy * Self repairing system

2021-03-28T20:23:18Z

Related: added links to pages: * Redundancy * Self repairing system

← Older revision		Revision as of 22:23, 28 March 2021
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	* [[APM and nuclear technology]]		* [[APM and nuclear technology]]
	* [[Isotope separation]]		* [[Isotope separation]]
			* [[Redundancy]]
			* [[Self repairing system]]

	= External links =		= External links =

Apm: reordering & added speculativity warning

2018-07-23T15:59:26Z

reordering & added speculativity warning

← Older revision		Revision as of 17:59, 23 July 2018
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	* self repair (optional but most effective)		* self repair (optional but most effective)
	* bulky design with polycyclic bond-meshes (avoidance of soft nanomachinery components)		* bulky design with polycyclic bond-meshes (avoidance of soft nanomachinery components)

	~~== Atomically precise technology in nuclear reactors ==~~

	~~Since radiation is very high in nuclear reactors atomically precise technology might have a hard time to operate in these conditions.~~
	Contiuous off site microcomponent disposal and remechanosynthisation from bottom up (less efficient than normal microcomponent [[recycling]]) is essential and full structural replacement over a short period of time is essential too.

	~~{{todo\|inverstigate feasability: expactable damage rate (easy); feasible exchange rate; power and volume for repair mechanosynthesis}}~~

	= Electromagnetic radiation =		= Electromagnetic radiation =
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	== X-ray and gamma-ray radiation ==		== X-ray and gamma-ray radiation ==

			= Atomically precise technology in nuclear reactors =

			Since radiation is very high in nuclear reactors atomically precise technology might have a hard time to operate in these conditions.

			{{speculativity warning}}

			Contiuous off site microcomponent disposal and remechanosynthisation from bottom up (less efficient than normal microcomponent [[recycling]]) is essential and full structural replacement over a short period of time is essential too.

			{{todo\|inverstigate feasability: expactable damage rate (easy); feasible exchange rate; power and volume for repair mechanosynthesis}}

	= Notes =		= Notes =
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	This is very different than a typical hit in an AP system though.		This is very different than a typical hit in an AP system though.

	{{~~todo~~\| add more info - a lot links here}}		{{wikitodo\| add more info - a lot links here}}

	= Related =		= Related =

Apm: /* Atomically precise technology in nuclear reactors */ at -> in

2018-07-23T15:54:25Z

Atomically precise technology in nuclear reactors: at -> in

← Older revision		Revision as of 17:54, 23 July 2018
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	== Atomically precise technology in nuclear reactors ==		== Atomically precise technology in nuclear reactors ==

	Since radiation is very high in nuclear reactors atomically precise technology might have a hard time to operate at these conditions.		Since radiation is very high in nuclear reactors atomically precise technology might have a hard time to operate in these conditions.
	Contiuous off site microcomponent disposal and remechanosynthisation from bottom up (less efficient than normal microcomponent [[recycling]]) is essential and full structural replacement over a short period of time is essential too.		Contiuous off site microcomponent disposal and remechanosynthisation from bottom up (less efficient than normal microcomponent [[recycling]]) is essential and full structural replacement over a short period of time is essential too.

Apm: added skeleton for new section == Means of coping with high energy radiation ==

2018-07-23T15:53:57Z

added skeleton for new section == Means of coping with high energy radiation ==

← Older revision		Revision as of 17:53, 23 July 2018
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	With non atomically precise manufacturing this is not so much of a problem since there's chaos everywhere anyway.		With non atomically precise manufacturing this is not so much of a problem since there's chaos everywhere anyway.
	Non atomically precise Metals produced by a thermodynamic melt and cast process instead of mechanosynthesis (that is all macroscopic pieces of metals of today 2016) for example are full of defects. Some of these (step defects) are even desired for mechanical plasticity. Radiation does displace atoms in todays metals too but omnidirectional [[metallic bond]]s can reconnect better than [[covalent bond]]s forming basically the original crystal lattice with displaced but qualitatively equivalent defects. Of course if the radiation becomes hard and intense enough todays metal will take damage too. E.g. through transmutation of elements and larger scale material migration, changes of grains, ... .		Non atomically precise Metals produced by a thermodynamic melt and cast process instead of mechanosynthesis (that is all macroscopic pieces of metals of today 2016) for example are full of defects. Some of these (step defects) are even desired for mechanical plasticity. Radiation does displace atoms in todays metals too but omnidirectional [[metallic bond]]s can reconnect better than [[covalent bond]]s forming basically the original crystal lattice with displaced but qualitatively equivalent defects. Of course if the radiation becomes hard and intense enough todays metal will take damage too. E.g. through transmutation of elements and larger scale material migration, changes of grains, ... .

			== Means of coping with high energy radiation ==

			{{wikitodo\|elaborate}}
			* redundancy (mandatory)
			* shielding (for some forms of radiation (e.g. UV)
			* self repair (optional but most effective)
			* bulky design with polycyclic bond-meshes (avoidance of soft nanomachinery components)

	== Atomically precise technology in nuclear reactors ==		== Atomically precise technology in nuclear reactors ==

Apm: added: "changes of grains"

2018-07-23T15:47:19Z

added: "changes of grains"

← Older revision		Revision as of 17:47, 23 July 2018
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	With non atomically precise manufacturing this is not so much of a problem since there's chaos everywhere anyway.		With non atomically precise manufacturing this is not so much of a problem since there's chaos everywhere anyway.
	Non atomically precise Metals produced by a thermodynamic melt and cast process instead of mechanosynthesis (that is all macroscopic pieces of metals of today 2016) for example are full of defects. Some of these (step defects) are even desired for mechanical plasticity. Radiation does displace atoms in todays metals too but omnidirectional [[metallic bond]]s can reconnect better than [[covalent bond]]s forming basically the original crystal lattice with displaced but qualitatively equivalent defects. Of course if the radiation becomes hard and intense enough todays metal will take damage too. E.g. through transmutation of elements and larger scale material migration.		Non atomically precise Metals produced by a thermodynamic melt and cast process instead of mechanosynthesis (that is all macroscopic pieces of metals of today 2016) for example are full of defects. Some of these (step defects) are even desired for mechanical plasticity. Radiation does displace atoms in todays metals too but omnidirectional [[metallic bond]]s can reconnect better than [[covalent bond]]s forming basically the original crystal lattice with displaced but qualitatively equivalent defects. Of course if the radiation becomes hard and intense enough todays metal will take damage too. E.g. through transmutation of elements and larger scale material migration, changes of grains, ... .

	== Atomically precise technology in nuclear reactors ==		== Atomically precise technology in nuclear reactors ==

Apm: /* External links */ added link to wikipedia page about "Malter_effect"

2017-11-17T19:12:24Z

External links: added link to wikipedia page about "Malter_effect"

← Older revision		Revision as of 21:12, 17 November 2017
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	* Cosmic rays {{WikipediaLink\|http://en.wikipedia.org/wiki/Cosmic_ray}} A phenomenon of yet mysterious origin with practical relevance.		* Cosmic rays {{WikipediaLink\|http://en.wikipedia.org/wiki/Cosmic_ray}} A phenomenon of yet mysterious origin with practical relevance.
	* Radiation hardening {{WikipediaLink\|http://en.wikipedia.org/wiki/Radiation_hardening}}		* Radiation hardening {{WikipediaLink\|http://en.wikipedia.org/wiki/Radiation_hardening}}
			----
			* Wikipedia: [https://en.wikipedia.org/wiki/Malter_effect Malter_effect]

	[[Category:General]]		[[Category:General]]

Apm: /* Related */ added two links

2017-08-20T09:41:20Z

Related: added two links

← Older revision		Revision as of 11:41, 20 August 2017
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	* [[Spaceflight with gem-gum-tec]]		* [[Spaceflight with gem-gum-tec]]
			* [[APM and nuclear technology]]
			* [[Isotope separation]]

	= External links =		= External links =

Apm: added link to Spaceflight with gem-gum-tec

2017-08-02T14:11:31Z

added link to Spaceflight with gem-gum-tec

← Older revision		Revision as of 16:11, 2 August 2017
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	{{todo\| add more info - a lot links here}}		{{todo\| add more info - a lot links here}}

			= Related =

			* [[Spaceflight with gem-gum-tec]]

	= External links =		= External links =

Apm: split off reactor section added todo investigate feasability

2016-10-22T05:03:08Z

split off reactor section added todo investigate feasability

← Older revision		Revision as of 07:03, 22 October 2016
Line 8:		Line 8:
	With non atomically precise manufacturing this is not so much of a problem since there's chaos everywhere anyway.		With non atomically precise manufacturing this is not so much of a problem since there's chaos everywhere anyway.
	Non atomically precise Metals produced by a thermodynamic melt and cast process instead of mechanosynthesis (that is all macroscopic pieces of metals of today 2016) for example are full of defects. Some of these (step defects) are even desired for mechanical plasticity. Radiation does displace atoms in todays metals too but omnidirectional [[metallic bond]]s can reconnect better than [[covalent bond]]s forming basically the original crystal lattice with displaced but qualitatively equivalent defects. Of course if the radiation becomes hard and intense enough todays metal will take damage too. E.g. through transmutation of elements and larger scale material migration.		Non atomically precise Metals produced by a thermodynamic melt and cast process instead of mechanosynthesis (that is all macroscopic pieces of metals of today 2016) for example are full of defects. Some of these (step defects) are even desired for mechanical plasticity. Radiation does displace atoms in todays metals too but omnidirectional [[metallic bond]]s can reconnect better than [[covalent bond]]s forming basically the original crystal lattice with displaced but qualitatively equivalent defects. Of course if the radiation becomes hard and intense enough todays metal will take damage too. E.g. through transmutation of elements and larger scale material migration.

			== Atomically precise technology in nuclear reactors ==

	Since radiation is very high in nuclear reactors atomically precise technology might have a hard time to operate at these conditions.		Since radiation is very high in nuclear reactors atomically precise technology might have a hard time to operate at these conditions.
	Contiuous off site microcomponent disposal and remechanosynthisation from bottom up (less efficient than normal microcomponent [[recycling]]) is essential and full structural replacement over a short period of time is essential too.		Contiuous off site microcomponent disposal and remechanosynthisation from bottom up (less efficient than normal microcomponent [[recycling]]) is essential and full structural replacement over a short period of time is essential too.

			{{todo\|inverstigate feasability: expactable damage rate (easy); feasible exchange rate; power and volume for repair mechanosynthesis}}

	= Electromagnetic radiation =		= Electromagnetic radiation =