A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting

In synthesizing optimal heat recovery networks, Composite Curve (CC) plots and Problem Table Algorithms (PTAs) have been the most popular tools for determining the minimum energy targets, whereas Grid Diagrams (GDs) have been widely utilized for heat exchanger network (HEN) design. However, CCs are...

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Main Authors: N. K., Abbood, Z. A., Manan, S. R. W., Alwi
Format: Article
Published: 2012
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Online Access:http://eprints.utm.my/id/eprint/46472/
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Institution: Universiti Teknologi Malaysia
id my.utm.46472
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spelling my.utm.464722017-08-27T08:52:41Z http://eprints.utm.my/id/eprint/46472/ A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting N. K., Abbood Z. A., Manan S. R. W., Alwi HD Industries. Land use. Labor In synthesizing optimal heat recovery networks, Composite Curve (CC) plots and Problem Table Algorithms (PTAs) have been the most popular tools for determining the minimum energy targets, whereas Grid Diagrams (GDs) have been widely utilized for heat exchanger network (HEN) design. However, CCs are cumbersome to construct. Additionally, PTAs offer numerical advantages but little insight into the impact of process streams on pinch points and heat recovery bottlenecks. Meanwhile, GDs are separately needed to diagnose HEN pinch rule violations. This paper introduces the Grid Diagram Table (GDT) as an alternative tool for determining pinch points and utility targets as well as for the retrofitting of HEN. The GDT combines numerical and visualization advantages into a single diagram. The GDT, which is represented according to a stream interval temperature scale and is developed based on fundamental Composite Curve geometry, can provide vital information during the identification of the pinch points and energy targets of a process as well as enhance the intuitive visualization of pinch rule violations that are especially useful for the rapid and effective debottlenecking of an existing heat recovery system to maximize its thermal energy efficiency. This paper also demonstrates the application of the GDT in addressing a single-pinch problem, multiple-pinch problem and an industrial case study involving a palm oil refinery. 2012 Article PeerReviewed N. K., Abbood and Z. A., Manan and S. R. W., Alwi (2012) A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting. Journal Of Cleaner Production, 23 (1). pp. 1-7. ISSN 0959-6526
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
topic HD Industries. Land use. Labor
spellingShingle HD Industries. Land use. Labor
N. K., Abbood
Z. A., Manan
S. R. W., Alwi
A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
description In synthesizing optimal heat recovery networks, Composite Curve (CC) plots and Problem Table Algorithms (PTAs) have been the most popular tools for determining the minimum energy targets, whereas Grid Diagrams (GDs) have been widely utilized for heat exchanger network (HEN) design. However, CCs are cumbersome to construct. Additionally, PTAs offer numerical advantages but little insight into the impact of process streams on pinch points and heat recovery bottlenecks. Meanwhile, GDs are separately needed to diagnose HEN pinch rule violations. This paper introduces the Grid Diagram Table (GDT) as an alternative tool for determining pinch points and utility targets as well as for the retrofitting of HEN. The GDT combines numerical and visualization advantages into a single diagram. The GDT, which is represented according to a stream interval temperature scale and is developed based on fundamental Composite Curve geometry, can provide vital information during the identification of the pinch points and energy targets of a process as well as enhance the intuitive visualization of pinch rule violations that are especially useful for the rapid and effective debottlenecking of an existing heat recovery system to maximize its thermal energy efficiency. This paper also demonstrates the application of the GDT in addressing a single-pinch problem, multiple-pinch problem and an industrial case study involving a palm oil refinery.
format Article
author N. K., Abbood
Z. A., Manan
S. R. W., Alwi
author_facet N. K., Abbood
Z. A., Manan
S. R. W., Alwi
author_sort N. K., Abbood
title A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
title_short A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
title_full A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
title_fullStr A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
title_full_unstemmed A combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
title_sort combined numerical and visualization tool for utility targeting and heat exchanger network retrofitting
publishDate 2012
url http://eprints.utm.my/id/eprint/46472/
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