Get 20M+ Full-Text Papers For Less Than $1.50/day. Start a 14-Day Trial for You or Your Team.

Learn More →

Influences of structural parameters on the thermal properties of coated glass fiber fabrics under ablation condition investigated by numerical model

Influences of structural parameters on the thermal properties of coated glass fiber fabrics under... The purpose of this paper is to investigate the effects of structural parameters of fabric on thermal insulation properties of the coated fabric.Design/methodology/approachThe authors established a numerical model for the ablation of silicone resin-coated fabric under high heat flow, and the simulation results have been validated by quartz lamp ablation experiment. The model was used to investigate the effects of structural parameters of glass fiber fabrics on the heat transfer process of the coated fabric.FindingsThe numerical values were in agreement with the experimental values. The thermal insulation of the coated glass fiber fabric was better than coated carbon fabric. Thermal insulation performance of the coated glass fiber fabrics was in order plain < 2/1 twill < 3/3 twill < 5/3 stain fabric. Increasing the warp density, from 100 to 180 ends/10 cm, the temperature of the back surface of the coated glass fiber fabric was reduced from 601°C to 553°C. Thermal insulation performance dramatically increased as yarn fineness went from 129 to 280 tex, and the temperature difference was 63°C.Research limitations/implicationsIn the ablation process, to simplify the calculation, the combustion reaction of silicone resin was ignored, which can be added in the future research.Originality/valueThis paper provides the ablation model of the silicon-coated fabric based on the 3D geometry model to explore the influence of the structural parameters of coated glass fiber fabric on its thermal protection performance. http://www.deepdyve.com/assets/images/DeepDyve-Logo-lg.png Pigment & Resin Technology Emerald Publishing

Influences of structural parameters on the thermal properties of coated glass fiber fabrics under ablation condition investigated by numerical model

Download PDF
9 pages

Loading next page...
 
/lp/emerald-publishing/influences-of-structural-parameters-on-the-thermal-properties-of-MFdvxauL9o

References (23)

Publisher
Emerald Publishing
Copyright
© Emerald Publishing Limited
ISSN
0369-9420
DOI
10.1108/prt-06-2020-0053
Publisher site
See Article on Publisher Site

Abstract

The purpose of this paper is to investigate the effects of structural parameters of fabric on thermal insulation properties of the coated fabric.Design/methodology/approachThe authors established a numerical model for the ablation of silicone resin-coated fabric under high heat flow, and the simulation results have been validated by quartz lamp ablation experiment. The model was used to investigate the effects of structural parameters of glass fiber fabrics on the heat transfer process of the coated fabric.FindingsThe numerical values were in agreement with the experimental values. The thermal insulation of the coated glass fiber fabric was better than coated carbon fabric. Thermal insulation performance of the coated glass fiber fabrics was in order plain < 2/1 twill < 3/3 twill < 5/3 stain fabric. Increasing the warp density, from 100 to 180 ends/10 cm, the temperature of the back surface of the coated glass fiber fabric was reduced from 601°C to 553°C. Thermal insulation performance dramatically increased as yarn fineness went from 129 to 280 tex, and the temperature difference was 63°C.Research limitations/implicationsIn the ablation process, to simplify the calculation, the combustion reaction of silicone resin was ignored, which can be added in the future research.Originality/valueThis paper provides the ablation model of the silicon-coated fabric based on the 3D geometry model to explore the influence of the structural parameters of coated glass fiber fabric on its thermal protection performance.

Journal

Pigment & Resin Technology – Emerald Publishing

Published: May 11, 2021

Keywords: Numerical simulation; Coated carbon fiber fabric; Coated glass fiber fabric; Thermal insulation performance

There are no references for this article.