Modeling and simulation of an anode carbon baking furnace
The anode temperature profile in a Hydro Aluminium baking furnace is obtained by solving the three dimensional heat equation. The main heat transfer and chemical processes are taken into account. Due to symmetry, one half of a pit is modeled. Along the gas path, submodels are derived for the under-p...
Main Authors: | , |
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Format: | Article |
Language: | English |
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Norwegian Society of Automatic Control
1995-01-01
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Series: | Modeling, Identification and Control |
Subjects: | |
Online Access: | http://www.mic-journal.no/PDF/1995/MIC-1995-1-1.pdf |
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author | Ø. Gundersen Jens G. Balchen |
author_facet | Ø. Gundersen Jens G. Balchen |
author_sort | Ø. Gundersen |
collection | DOAJ |
description | The anode temperature profile in a Hydro Aluminium baking furnace is obtained by solving the three dimensional heat equation. The main heat transfer and chemical processes are taken into account. Due to symmetry, one half of a pit is modeled. Along the gas path, submodels are derived for the under-pit area, pit area and under-lid area. For the gas flow, a stationary model is derived, whereas the heat equations are dynamically solved. The numerical model is derived from the control volume formulation. |
first_indexed | 2024-12-21T05:24:11Z |
format | Article |
id | doaj.art-6fc8b38a771043d99405a44538845f78 |
institution | Directory Open Access Journal |
issn | 0332-7353 1890-1328 |
language | English |
last_indexed | 2024-12-21T05:24:11Z |
publishDate | 1995-01-01 |
publisher | Norwegian Society of Automatic Control |
record_format | Article |
series | Modeling, Identification and Control |
spelling | doaj.art-6fc8b38a771043d99405a44538845f782022-12-21T19:14:44ZengNorwegian Society of Automatic ControlModeling, Identification and Control0332-73531890-13281995-01-0116133310.4173/mic.1995.1.1Modeling and simulation of an anode carbon baking furnaceØ. GundersenJens G. BalchenThe anode temperature profile in a Hydro Aluminium baking furnace is obtained by solving the three dimensional heat equation. The main heat transfer and chemical processes are taken into account. Due to symmetry, one half of a pit is modeled. Along the gas path, submodels are derived for the under-pit area, pit area and under-lid area. For the gas flow, a stationary model is derived, whereas the heat equations are dynamically solved. The numerical model is derived from the control volume formulation.http://www.mic-journal.no/PDF/1995/MIC-1995-1-1.pdfFirst principles modelingdistributed thermal batch processheat transfercombustion |
spellingShingle | Ø. Gundersen Jens G. Balchen Modeling and simulation of an anode carbon baking furnace Modeling, Identification and Control First principles modeling distributed thermal batch process heat transfer combustion |
title | Modeling and simulation of an anode carbon baking furnace |
title_full | Modeling and simulation of an anode carbon baking furnace |
title_fullStr | Modeling and simulation of an anode carbon baking furnace |
title_full_unstemmed | Modeling and simulation of an anode carbon baking furnace |
title_short | Modeling and simulation of an anode carbon baking furnace |
title_sort | modeling and simulation of an anode carbon baking furnace |
topic | First principles modeling distributed thermal batch process heat transfer combustion |
url | http://www.mic-journal.no/PDF/1995/MIC-1995-1-1.pdf |
work_keys_str_mv | AT øgundersen modelingandsimulationofananodecarbonbakingfurnace AT jensgbalchen modelingandsimulationofananodecarbonbakingfurnace |