There is a newer version of the record available.

Published April 2020 | Version v1
Journal article

Characterization of ignition and combustion characteristics of phenolic fiber-reinforced plastic with different thicknesses

  • 1. City University of Hong Kong. Department of Civil and Architectural Engineering (China)
  • 2. University of Science and Technology of China. State Key Laboratory of Fire Science (China)
  • 3. Nanjing University of Science and Technology. School of Chemical Engineering (China)
  • 4. Nanjing University of Science and Technology. School of Science (China)

Description

The present study focuses on ignition and combustion characteristics of phenolic fiber-reinforced plastic (FRP) with different thicknesses under different external heat fluxes using cone calorimeter, which receives little attention to date. A series of parameters including ignition time, thermal thickness, mass loss factor, mass loss rate (MLR), heat release rate (HRR), total heat release (THR), fire performance index (FPI) and fire growth index (FGI) are measured or calculated. Results indicate that the ignition time increases with the thickness, but decreases with the external heat flux. Phenolic FRP with thickness of 3 mm may be considered as thermally thin material. However, phenolic FRP with thickness of 5 and 8 mm is prone to be thermally thick material. The critical heat flux, minimum heat flux and ignition temperature are deduced and validated. The thermal thickness increases with the external heat flux. Linear correlations of the thermal thickness with the ratio of specimen density and external heat flux are demonstrated and presented. The mass loss factor decreases with the thickness. Three and two peak MLRs occur in the cases of low and high external heat fluxes, respectively. The average MLR increases with the external heat flux and thickness. The average and maximum HRR increases with the external heat flux. The FGI for the maximum HRR increases with the external heat flux. Linear correlations of the average MLR, the average and maximum HRR and the FGI for the maximum HRR with the external heat flux are demonstrated and presented.

Additional details

Identifiers

Publishing Information

Journal Title
Journal of Thermal Analysis and Calorimetry
Journal Volume
140
Journal Issue
2
Journal Page Range
p. 645-655
ISSN
1388-6150

Optional Information

Copyright
Copyright (c) 2019 © Akad#Latin Small Letter E With Acute#miai Kiad#Latin Small Letter O With Acute#, Budapest, Hungary 2019