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  5. Maximum smoke temperature beneath the ceiling in an enclosed channel with different fire locations

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Article
English
2016

Maximum smoke temperature beneath the ceiling in an enclosed channel with different fire locations

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English
2016
Applied Thermal Engineering
Vol 111
DOI: 10.1016/j.applthermaleng.2016.08.161

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Long Shi
Long Shi

University Of Science And Technology Of China

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Yongzheng Yao
Xudong Cheng
Shaogang Zhang
+3 more

Abstract

Smoke movement and the temperature beneath the ceiling in enclosed channel were investigated experimentally and theoretically. The experimental results show that the maximum smoke temperature decreases with an increasing flame inclination angle when fire source is moving away from the channel center in Region I (within the dimensionless distance for 0.64), which is caused by the gas velocity difference of the two sides of flame. However, when the dimensionless distance is >0.64, the maximum smoke temperature was observed to rise. In addition, an existing model was improved to predict the maximum smoke temperature in enclosed channel applying it to different boundary conditions. Its predictions fit reasonably well when the fire source located at Region I. Beyond that, the predictions are lower than the experiments, which is probably because of the absent consideration of bouncing process of the hot smoke from end walls. Therefore, an extra correction coefficient was proposed to the improved model in Region II with a consideration of bouncing process of the hot smoke from both end walls. As a result, it was found that the experimental results can be well predicted by this model in Region II.

How to cite this publication

Yongzheng Yao, Xudong Cheng, Shaogang Zhang, Kai Zhu, Heping Zhang, Long Shi (2016). Maximum smoke temperature beneath the ceiling in an enclosed channel with different fire locations. Applied Thermal Engineering, 111, pp. 30-38, DOI: 10.1016/j.applthermaleng.2016.08.161.

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Publication Details

Type

Article

Year

2016

Authors

6

Datasets

0

Total Files

0

Language

English

Journal

Applied Thermal Engineering

DOI

10.1016/j.applthermaleng.2016.08.161

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