Investigation into Methods for Predicting Connection Temperatures

The mechanical response of connections in fire is largely based on material strength degradation and the interactions between the various components of the connection. In order to predict connection performance in fire, temperature profiles must initially be established in order to evaluate the mate...

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Main Authors: K. Anderson, M. Gillie
Format: Article
Language:English
Published: CTU Central Library 2009-01-01
Series:Acta Polytechnica
Subjects:
Online Access:https://ojs.cvut.cz/ojs/index.php/ap/article/view/1099
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spelling doaj-0837f7b701f54e6d9af809962792b0b22020-11-24T23:59:39ZengCTU Central LibraryActa Polytechnica1210-27091805-23632009-01-014911099Investigation into Methods for Predicting Connection TemperaturesK. AndersonM. GillieThe mechanical response of connections in fire is largely based on material strength degradation and the interactions between the various components of the connection. In order to predict connection performance in fire, temperature profiles must initially be established in order to evaluate the material strength degradation over time. This paper examines two current methods for predicting connection temperatures: The percentage method, where connection temperatures are calculated as a percentage of the adjacent beam lower-flange, mid-span temperatures; and the lumped capacitance method, based on the lumped mass of the connection. Results from the percentage method do not correlate well with experimental results, whereas the lumped capacitance method shows much better agreement with average connection temperatures. A 3D finite element heat transfer model was also created in Abaqus, and showed good correlation with experimental results. https://ojs.cvut.cz/ojs/index.php/ap/article/view/1099Connectionjointheat transfersteelconcretefiretemperature
collection DOAJ
language English
format Article
sources DOAJ
author K. Anderson
M. Gillie
spellingShingle K. Anderson
M. Gillie
Investigation into Methods for Predicting Connection Temperatures
Acta Polytechnica
Connection
joint
heat transfer
steel
concrete
fire
temperature
author_facet K. Anderson
M. Gillie
author_sort K. Anderson
title Investigation into Methods for Predicting Connection Temperatures
title_short Investigation into Methods for Predicting Connection Temperatures
title_full Investigation into Methods for Predicting Connection Temperatures
title_fullStr Investigation into Methods for Predicting Connection Temperatures
title_full_unstemmed Investigation into Methods for Predicting Connection Temperatures
title_sort investigation into methods for predicting connection temperatures
publisher CTU Central Library
series Acta Polytechnica
issn 1210-2709
1805-2363
publishDate 2009-01-01
description The mechanical response of connections in fire is largely based on material strength degradation and the interactions between the various components of the connection. In order to predict connection performance in fire, temperature profiles must initially be established in order to evaluate the material strength degradation over time. This paper examines two current methods for predicting connection temperatures: The percentage method, where connection temperatures are calculated as a percentage of the adjacent beam lower-flange, mid-span temperatures; and the lumped capacitance method, based on the lumped mass of the connection. Results from the percentage method do not correlate well with experimental results, whereas the lumped capacitance method shows much better agreement with average connection temperatures. A 3D finite element heat transfer model was also created in Abaqus, and showed good correlation with experimental results. 
topic Connection
joint
heat transfer
steel
concrete
fire
temperature
url https://ojs.cvut.cz/ojs/index.php/ap/article/view/1099
work_keys_str_mv AT kanderson investigationintomethodsforpredictingconnectiontemperatures
AT mgillie investigationintomethodsforpredictingconnectiontemperatures
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