Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps

Efficient combustion of fuels with lower emissions levels has become a demanding task in modern power plants, and new tools are needed to diagnose their energy production. The goals of the study were to find dependencies between process variables and the concentrations of gaseous emission components...

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Main Authors: Mika Liukkonen, Mikko Heikkinen, Eero Hälikkä, Teri Hiltunen, Yrjö Hiltunen
Format: Article
Language:English
Published: Hindawi Limited 2010-01-01
Series:Applied Computational Intelligence and Soft Computing
Online Access:http://dx.doi.org/10.1155/2010/932467
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spelling doaj-f50e78c67e564b33a4ede0691854b53c2020-11-24T20:55:10ZengHindawi LimitedApplied Computational Intelligence and Soft Computing1687-97241687-97322010-01-01201010.1155/2010/932467932467Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing MapsMika Liukkonen0Mikko Heikkinen1Eero Hälikkä2Teri Hiltunen3Yrjö Hiltunen4Department of Environmental Science, University of Eastern Finland, P.O. Box 1627, 70211 Kuopio, FinlandDepartment of Environmental Science, University of Eastern Finland, P.O. Box 1627, 70211 Kuopio, FinlandFoster Wheeler Energia Oy, Operations, Engineering & Services, P.O. Box 201, 78201 Varkaus, FinlandFoster Wheeler Energia Oy, Operations, Engineering & Services, P.O. Box 201, 78201 Varkaus, FinlandDepartment of Environmental Science, University of Eastern Finland, P.O. Box 1627, 70211 Kuopio, FinlandEfficient combustion of fuels with lower emissions levels has become a demanding task in modern power plants, and new tools are needed to diagnose their energy production. The goals of the study were to find dependencies between process variables and the concentrations of gaseous emission components and to create multivariate nonlinear models describing their formation in the process. First, a generic process model was created by using a self-organizing map, which was clustered with the k-means algorithm to create subsets representing the different states of the process. Characteristically, these process states may include high- and low- load situations and transition states where the load is increased or decreased. Then emission models were constructed for both the entire process and for the process state of high boiler load. The main conclusion is that the methodology used is able to reveal such phenomena that occur within the process states and that could otherwise be difficult to observe.http://dx.doi.org/10.1155/2010/932467
collection DOAJ
language English
format Article
sources DOAJ
author Mika Liukkonen
Mikko Heikkinen
Eero Hälikkä
Teri Hiltunen
Yrjö Hiltunen
spellingShingle Mika Liukkonen
Mikko Heikkinen
Eero Hälikkä
Teri Hiltunen
Yrjö Hiltunen
Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps
Applied Computational Intelligence and Soft Computing
author_facet Mika Liukkonen
Mikko Heikkinen
Eero Hälikkä
Teri Hiltunen
Yrjö Hiltunen
author_sort Mika Liukkonen
title Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps
title_short Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps
title_full Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps
title_fullStr Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps
title_full_unstemmed Analysis of Flue Gas Emission Data from Fluidized Bed Combustion Using Self-Organizing Maps
title_sort analysis of flue gas emission data from fluidized bed combustion using self-organizing maps
publisher Hindawi Limited
series Applied Computational Intelligence and Soft Computing
issn 1687-9724
1687-9732
publishDate 2010-01-01
description Efficient combustion of fuels with lower emissions levels has become a demanding task in modern power plants, and new tools are needed to diagnose their energy production. The goals of the study were to find dependencies between process variables and the concentrations of gaseous emission components and to create multivariate nonlinear models describing their formation in the process. First, a generic process model was created by using a self-organizing map, which was clustered with the k-means algorithm to create subsets representing the different states of the process. Characteristically, these process states may include high- and low- load situations and transition states where the load is increased or decreased. Then emission models were constructed for both the entire process and for the process state of high boiler load. The main conclusion is that the methodology used is able to reveal such phenomena that occur within the process states and that could otherwise be difficult to observe.
url http://dx.doi.org/10.1155/2010/932467
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