Development and Characterisation of Sustainable Prepregs with Improved Fire Behaviour Based on Furan Resin and Basalt Fibre Reinforcement

被引:8
作者
Ares Elejoste, Patricia [1 ]
Allue, Alexandra [1 ]
Ballestero, Jesus [1 ]
Neira, Santiago [1 ]
Gomez-Alonso, Jose Luis [1 ]
Gondra, Koldo [1 ]
机构
[1] GAIKER Technol Ctr, Basque Res & Technol Alliance BRTA, Parque Tecnol Bizkaia,Edificio 202, Zamudio 48170, Spain
关键词
furan resin; basalt fibre; fire behaviour; sustainability; COMPOSITES; MICROWAVE;
D O I
10.3390/polym14091864
中图分类号
O63 [高分子化学(高聚物)];
学科分类号
070305 ; 080501 ; 081704 ;
摘要
In recent years, the need to minimise environmental impact has led to the exploration of sustainable materials, avoiding those derived from petroleum, considering that these materials should proceed from nature and be harmless and durable. Therefore, throughout this work, the following raw materials were used: furan resin, which comes from agricultural by-products, and basalt fibre, obtained by melting basaltic volcanic rock. Specifically, this work studies the development of a flame-retarded furan prepreg manufactured by means of a continuous process combining a double-belt lamination equipment with an impregnation system. Once the prepregs (flame- and non-flame-retarded) were obtained, they were subjected to various tests to analyse their fire behaviour, with both showing an adequate performance. However, comparing both, concerning the toxicity index (CITG), the flame-retarded prepreg generated fewer toxic gases during combustion than the non-flame-retarded one, although the latter showed a lower smoke density. In short, the developed flame-retarded material falls into the R1HL3 (Requirement 1 and Hazard Level 3) classification demanded by products with large areas in railway vehicle interiors, which is the maximum safety level according to the risk index established in applicable regulations. Therefore, this material could be used in any railway vehicle for indoor applications.
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页数:18
相关论文
共 26 条
[1]  
AENOR, 2016, 4554522013A12016 AEN
[2]   A review on utilization of textile composites in transportation towards sustainability [J].
Aly, Nermin M. .
17TH WORLD TEXTILE CONFERENCE AUTEX 2017 - SHAPING THE FUTURE OF TEXTILES, 2017, 254
[3]   Sustainable biobased composites for advanced applications: recent trends and future opportunities - A critical review [J].
Andrew, J. Jefferson ;
Dhakal, H. N. .
COMPOSITES PART C: OPEN ACCESS, 2022, 7
[4]   Trends in fiber reinforcements - the future belongs to basalt fiber [J].
Czigany, T. .
EXPRESS POLYMER LETTERS, 2007, 1 (02) :59-59
[5]   Basalt fiber reinforced hybrid polymer composites [J].
Czigány, T .
MATERIALS SCIENCE, TESTING AND INFORMATICS II, 2005, 473-474 :59-66
[6]   Natural and industrial wastes for sustainable and renewable polymer composites [J].
Das, Oisik ;
Babu, Karthik ;
Shanmugam, Vigneshwaran ;
Sykam, Kesavarao ;
Tebyetekerwa, Mike ;
Neisiany, Rasoul Esmaeely ;
Forsth, Michael ;
Sas, Gabriel ;
Gonzalez-Libreros, Jaime ;
Capezza, Antonio J. ;
Hedenqvist, Mikael S. ;
Berto, Filippo ;
Ramakrishna, Seeram .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2022, 158
[7]  
Dunlop AP., 1953, The furans
[8]  
Gmez Estvez A., 2018, FURANIC RESIN PLANT
[9]  
Islam S., 2022, Encyclopedia of Materials: Plastics and Polymers, V2, P987, DOI [10.1016/B978-0-12-820352-1.00257-1, DOI 10.1016/B978-0-12-820352-1.00257-1]
[10]   Development of fire retardancy of natural fiber composite encouraged by a synergy between zinc borate and ammonium polyphosphate [J].
Khalili, Pooria ;
Liu, Xiaoling ;
Tshai, Kim Yeow ;
Rudd, Chris ;
Yi, Xiaosu ;
Kong, Ing .
COMPOSITES PART B-ENGINEERING, 2019, 159 :165-172