Haber process: Difference between revisions
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JeffEvarts (talk | contribs) (Created page with "The Haber process is a high-temperasture high-pressure process for combining nitrogen and hydrogen gasses into ammonia. The reaction is relatively inefficient, wit...") |
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: {{#Chem: N2 + 3H2 { Fe = 20MPa, 500-600°C } 2NH3}} | : {{#Chem: N2 + 3H2 { Fe = 20MPa, 500-600°C } 2NH3}} | ||
The gasses are refrigerated, the ammonia removed as a liquid, and the process is repeated. Iron oxide can be used in place of iron, because it will be rapidly reduced by the hydrogen gas to water and pure iron. | The gasses are refrigerated, the ammonia removed as a liquid, and the process is repeated. Iron oxide can be used in place of iron, because it will be rapidly reduced by the hydrogen gas to water and pure iron. | ||
==Hazards== | |||
* At the extremely high temperatures and pressures involved, rupture and explosion of the reaction vessel is a serious concern. | |||
==See Also== | ==See Also== | ||
* [[Ostwald Process]] | * [[Ostwald Process]] | ||
[[Category:Processes]] | [[Category:Processes]] | ||
==References== |
Revision as of 06:05, 12 December 2019
The Haber process is a high-temperasture high-pressure process for combining nitrogen and hydrogen gasses into ammonia. The reaction is relatively inefficient, with ~5% yield per iteration.
- N2 + 3 H2{Fe2 NH320MPa, 500-600°C}→
The gasses are refrigerated, the ammonia removed as a liquid, and the process is repeated. Iron oxide can be used in place of iron, because it will be rapidly reduced by the hydrogen gas to water and pure iron.
Hazards
- At the extremely high temperatures and pressures involved, rupture and explosion of the reaction vessel is a serious concern.