Verneuil method - Revision history

Apm: /* Related */

2021-07-08T11:05:20Z

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	* Smaller: [[Thermodynamic nanocrystal]]s and [[nanoparticle]]s		* Smaller: [[Thermodynamic nanocrystal]]s and [[nanoparticle]]s

	Single crystals (not necessarily macroscopic) with atomically precise perfectly flat surfaces have been considered in the context of the [[direct path]] to [[advanced productive nanosystem]]s. <br>		Single crystals (not necessarily macroscopic) with atomically precise perfectly flat surfaces have been considered as "building platform substrates" in the context of the [[direct path]] to [[advanced productive nanosystem]]s. <br>
	More practical may be the integration of advanced de-novo [[foldamer R&D\|foldamer technology]] into/onto chip technology only after considerable bottom up development along the [[incremental path]].		More practical may be the integration of advanced de-novo [[foldamer R&D\|foldamer technology]] into/onto chip technology only after considerable bottom up development along the [[incremental path]].

Apm: added link to thermodynamic means

2021-07-08T11:04:11Z

added link to thermodynamic means

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	[[File:1920px-Rutile single Crystal.jpg\|400px\|thumb\|right\|Artificial single crystal of '''[[rutile]]''' (a [[base material with high potential]]) . Rutile is one of the [[polymorph]]s of Titanium dioxide (TiO<sub>2</sub>). This piece is 25mm in diameter and 4mm thick. It was grown by the current-day-available technology called "[[verneuil method]]".]]		[[File:1920px-Rutile single Crystal.jpg\|400px\|thumb\|right\|Artificial single crystal of '''[[rutile]]''' (a [[base material with high potential]]) . Rutile is one of the [[polymorph]]s of Titanium dioxide (TiO<sub>2</sub>). This piece is 25mm in diameter and 4mm thick. It was grown by the current-day-available technology called "[[verneuil method]]". A [[thermodynamic mean]] of production.]]

	The verneuil method is a method to grow large macroscopic chunks of single crystals. <br>		The verneuil method is a method to grow large macroscopic chunks of single crystals. <br>

Apm: added image

2021-07-08T11:01:24Z

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← Older revision		Revision as of 13:01, 8 July 2021
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			[[File:1920px-Rutile single Crystal.jpg\|400px\|thumb\|right\|Artificial single crystal of '''[[rutile]]''' (a [[base material with high potential]]) . Rutile is one of the [[polymorph]]s of Titanium dioxide (TiO<sub>2</sub>). This piece is 25mm in diameter and 4mm thick. It was grown by the current-day-available technology called "[[verneuil method]]".]]

	The verneuil method is a method to grow large macroscopic chunks of single crystals. <br>		The verneuil method is a method to grow large macroscopic chunks of single crystals. <br>
	It clearly falls under today's [[thermodynamic means]] of production with all it's associated limitations.		It clearly falls under today's [[thermodynamic means]] of production with all it's associated limitations.

Apm: /* Related */ added two links

2021-07-08T10:57:00Z

Related: added two links

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	* [[Thermodynamic means for macroscopic single crystal production]]		* [[Thermodynamic means for macroscopic single crystal production]]
			* Smaller: [[Thermodynamic nanocrystal]]s and [[nanoparticle]]s

	Single crystals (not necessarily macroscopic) with atomically precise perfectly flat surfaces have been considered in the context of the [[direct path]] to [[advanced productive nanosystem]]s. <br>		Single crystals (not necessarily macroscopic) with atomically precise perfectly flat surfaces have been considered in the context of the [[direct path]] to [[advanced productive nanosystem]]s. <br>
	More practical may be the integration of advanced de-novo [[foldamer R&D\|foldamer technology]] into/onto chip technology only after considerable bottom up development along the [[incremental path]].		More practical may be the integration of advanced de-novo [[foldamer R&D\|foldamer technology]] into/onto chip technology only after considerable bottom up development along the [[incremental path]].

Apm: basic page

2021-07-08T10:54:35Z

basic page

New page

{{stub}}
The verneuil method is a method to grow large macroscopic chunks of single crystals. <br>
It clearly falls under today's [[thermodynamic means]] of production with all it's associated limitations.

This and similar methods (zone melting) where and are extremely useful and essential for today's technology.

'''Characteristics:'''
* there are no grain boundaries – the products are truly a macroscopic single crystal
* there are still quite a lot of flaws (like step- and screw-[[dislocations]]) integrated right from the start with out even radiation worsening order
* there is no defined termination point of selfassembly

== Related ==

* [[Thermodynamic means for macroscopic single crystal production]]
Single crystals (not necessarily macroscopic) with atomically precise perfectly flat surfaces have been considered in the context of the [[direct path]] to [[advanced productive nanosystem]]s. <br>
More practical may be the integration of advanced de-novo [[foldamer R&D|foldamer technology]] into/onto chip technology only after considerable bottom up development along the [[incremental path]].

== External links ==

Wikipedia:
* [https://en.wikipedia.org/wiki/Verneuil_method Verneuil method]
Related:
* [https://en.wikipedia.org/wiki/Zone_melting Zone melting]
* [https://en.wikipedia.org/wiki/Chemical_vapor_deposition Chemical vapor deposition]