Optimal Electrolyzer Design Assessment - Revision history

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2026-07-21T11:24:20Z

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← Older revision		Revision as of 07:24, 21 July 2026
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	\| title = Optimal Electrolyzer Design Assessment		\| title = Optimal Electrolyzer Design Assessment
	\| author = [[Jan Peter Roos]]		\| author = [[Jan Peter Roos]]
			\| keywords = Hydrogen, Faraday, Water
	\| published = 2013		\| published = 2013
	\| num_pages = 4		\| num_pages = 4

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	\| author = [[Jan Peter Roos]]		\| author = [[Jan Peter Roos]]
	\| published = 2013		\| published = 2013
	~~\| journal = [[None]]~~
	\| num_pages = 4		\| num_pages = 4
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	This presentation highlights contributions by many to the field of the electrolysis of water and water based solutions after the initial quantitative documentation of this process, that was published by Michael Faraday in 1834. Today the dissociation of water to produce hydrogen and oxygen is of importance for developing a clean hydrogen fuel alternative to the coal and hydrocarbon fuels, that are not environmentally friendly. It is therefore crucial to substantially improve the hydrogen production gain to dissociate water and thus do it at a substantially reduced energy fraction of the direct current electrical energy required for the electrolyzer method as shown by Faraday. Since then at least four different technologies show that such a goal has been achieved. They are: Resonant acoustic dissociation, resonant pulsed current dissociation, microwave dissociation and catalytic dissociation.		This presentation highlights contributions by many to the field of the electrolysis of water and water based solutions after the initial quantitative documentation of this process, that was published by Michael Faraday in 1834. Today the dissociation of water to produce hydrogen and oxygen is of importance for developing a clean hydrogen fuel alternative to the coal and hydrocarbon fuels, that are not environmentally friendly. It is therefore crucial to substantially improve the hydrogen production gain to dissociate water and thus do it at a substantially reduced energy fraction of the direct current electrical energy required for the electrolyzer method as shown by Faraday. Since then at least four different technologies show that such a goal has been achieved. They are: Resonant acoustic dissociation, resonant pulsed current dissociation, microwave dissociation and catalytic dissociation.

	[[Category:Scientific Paper\|]]		[[Category:Scientific Paper\|Scientific Paper]]

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	This presentation highlights contributions by many to the field of the electrolysis of water and water based solutions after the initial quantitative documentation of this process, that was published by Michael Faraday in 1834. Today the dissociation of water to produce hydrogen and oxygen is of importance for developing a clean hydrogen fuel alternative to the coal and hydrocarbon fuels, that are not environmentally friendly. It is therefore crucial to substantially improve the hydrogen production gain to dissociate water and thus do it at a substantially reduced energy fraction of the direct current electrical energy required for the electrolyzer method as shown by Faraday. Since then at least four different technologies show that such a goal has been achieved. They are: Resonant acoustic dissociation, resonant pulsed current dissociation, microwave dissociation and catalytic dissociation.		This presentation highlights contributions by many to the field of the electrolysis of water and water based solutions after the initial quantitative documentation of this process, that was published by Michael Faraday in 1834. Today the dissociation of water to produce hydrogen and oxygen is of importance for developing a clean hydrogen fuel alternative to the coal and hydrocarbon fuels, that are not environmentally friendly. It is therefore crucial to substantially improve the hydrogen production gain to dissociate water and thus do it at a substantially reduced energy fraction of the direct current electrical energy required for the electrolyzer method as shown by Faraday. Since then at least four different technologies show that such a goal has been achieved. They are: Resonant acoustic dissociation, resonant pulsed current dissociation, microwave dissociation and catalytic dissociation.

	[[Category:Scientific Paper]]		[[Category:Scientific Paper\|]]

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2016-12-30T05:02:16Z

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{{Infobox paper
| title = Optimal Electrolyzer Design Assessment
| author = [[Jan Peter Roos]]
| published = 2013
| journal = [[None]]
| num_pages = 4
}}

==Abstract==

This presentation highlights contributions by many to the field of the electrolysis of water and water based solutions after the initial quantitative documentation of this process, that was published by Michael Faraday in 1834. Today the dissociation of water to produce hydrogen and oxygen is of importance for developing a clean hydrogen fuel alternative to the coal and hydrocarbon fuels, that are not environmentally friendly. It is therefore crucial to substantially improve the hydrogen production gain to dissociate water and thus do it at a substantially reduced energy fraction of the direct current electrical energy required for the electrolyzer method as shown by Faraday. Since then at least four different technologies show that such a goal has been achieved. They are: Resonant acoustic dissociation, resonant pulsed current dissociation, microwave dissociation and catalytic dissociation.

[[Category:Scientific Paper]]