Effects of the Potassium Titanate Functional Filler Types on the Thermal Protection Performance of Heat Resistant Ablative Coated Fabrics

다국어 초록 (Multilingual Abstract)

Considering sub-micron potassium titanate whiskers (BX-101), nanoscale potassium titanate whiskers (AX-301), sub-micron potassium titanate whiskers (AX-316) and high strength potassium titanate crystal (AX-319) as functional fillers, heat resistant ablative coated fabrics which have high radiant heat reflectivity were prepared. The effect of the type of functional fller on the thermal protection performance of heat resistant ablative coated fabrics was mainly discussed. Research showed that the microstructure of potassium titanate functional filler had a significant impact on the radiant heat reflectivity and thermal insulation performance of the prepared coated fabric. The coated fabric which took nanoscale potassium titanate whiskers (AX-301) with a minimum diameter and greater length-diameter ratio as functional filler has the highest thermal reflectivity and the best insulation property. Heat ray reflectivity of potassium titanate coated fabrics had positive correlation with their crystallinities. The higher the coated fabric crystallinity was, the greater the heat ray reflectivity. Thermogravimetric analysis results showed that after adding four kinds of potassium titanate fillers, the thermal stability of the prepared coated fabrics was enhanced, and the nanoscale potassium titanate whiskers (AX-301) coated fabrics had the best thermal stability.

참고문헌 (Reference)

1 Y. Li, 42 : 11294-, 2016

2 G. Y. Liu, 31 : 116-, 2017

3 X. M. Zhao, 31 : 77-, 2017

4 G. M. Cai, 393 : 441-, 2017

5 X. M. Zhao, 25 : 34-, 2017

6 F. H. El Batal, 1121 : 54-, 2016

7 Y. J. Liu, 47 : 1082-, 2016

8 Z. Y. Liu, 122 : 900-, 2016

9 S. T. Chen, 99 : 3293-, 2016

10 Y. J. Liu, 52 : 16-, 2015

11 M. Przybylak, 387 : 163-, 2016

12 M. Mirjalili, 17 : 1579-, 2016

13 G. Y. Liu, 2017 : 2176795-, 2017

14 J. Pourasad, 52 : 1639-, 2017

15 A. Nisar, 111 : 269-, 2017

16 Y. J. Liu, 30 : 103-, 2016

17 B. S. Xu, 685 : 799-, 2016

18 M. H. Hu, 304 : 188-, 2016

19 Y. J. Liu, 25 : 50-, 2017

20 X. M. Zhao, 32 : 47-, 2015

21 A. Daniel, 55 : 10645-, 2016

22 A. Abdollahi, 182 : 49-, 2016

23 X. M. Zhao, 25 : 34-, 2017

24 Q. G. Fu, 111 : 259-, 2016

25 H. Y. Wang, 6 : 95556-, 2016

26 X. F. Xu, 69 : 133-, 2015

27 G. Y. Liu, 2017

28 Deepak Khurana, "Investigation of Thermal Conductivity and Viscosity of Al2O3/Water Nanofluids Using Full Factorial Design and Utility Concept" 성균나노과학기술원 11 (11): 92-101, 2016

29 Jiang Zhao, "Enhanced Field Emission from UV-Illuminated CuO Nanowires Fabricated by Thermal Oxidation of Cu Film" 성균나노과학기술원 11 (11): 56-61, 2016

30 Zhen Yang, "Effect of the Molar Ratio of Li/Ti and Thermal Treatment on the Electrochemical Performance of Li4Ti5O12–rutile TiO2 Nanocomposite as Anode Materials" 성균나노과학기술원 11 (11): 10-20, 2016

31 LICONG WANG, "A COST-EFFECTIVE PROCESS FOR SYNTHESIZING MAGNESIUM BORATE NANORODS AND ITS MECHANICAL PROPERTY FOR REINFORCED NYLON-6 COMPOSITES" 성균나노과학기술원 9 (9): 58-65, 2014