Use of Banana Peel in the Development of a Less Flammable Polyester Composite

被引:4
作者
Anannya, Ferdausee Rahman [1 ]
Afroz, Farhana [1 ]
Kibria, Golam [1 ]
Rahman, Md Lutfor [2 ]
Jamine, Nasrin [1 ]
Mahmud, Md Arif [3 ]
机构
[1] BGMEA Univ Fash & Technol, Dhaka 1230, Bangladesh
[2] Primeasia Univ, 12 Kemal Ataturk Ave, Dhaka 1213, Bangladesh
[3] Ahsanullah Univ Sci & Technol, Tejgaon Ind Area, 141,142 Love Rd, Dhaka 1208, Bangladesh
关键词
tensile strength; viscosity; hydrophobicity; flame retardancy; char; FLAME-RETARDANT; MECHANICAL-PROPERTIES; FIBER; COIR;
D O I
10.14502/tekstilec.65.2022074
中图分类号
TB3 [工程材料学]; TS1 [纺织工业、染整工业];
学科分类号
0805 ; 080502 ; 0821 ;
摘要
This study attempted to produce a cheap polyester composite material using an agricultural waste banana peel in the structure. Banana fibre has been used in composites as reinforcements, but banana peel has never been used with polyester before. The possibility of improved thermal and flammability properties of a composite due to increased moisture in the structure, and the char-forming ability of the cellulosic part of banana peel or the production of highly flammable material due to the presence of carbohydrates in the structure were the assumptions. To tackle the second assumption, aluminium trihydrate (ATH) was added. The handmade composites showed a drastic drop in tensile strength from 38.02 MPa to 16.72 MPa due to a lack of chemical bonding between the constituents. The impact and flexural strength showed some improvement with the addition of banana peel, along with ATH, to record results of 10.92 kg/cm and 49 MPa, respectively, after the initial drop that occurred when only ATH was added. However, these results were still inferior to the properties of pure polyester. The results of flammability and thermal resistance matched the second assumption, as flame retardancy was kept under control by the presence of ATH. The absorbency properties remained almost unaffected.
引用
收藏
页码:278 / 297
页数:20
相关论文
共 49 条
[1]   Synergistic Flame Retardant Effect of Organic Boron Flame Retardant and Aluminum Hydroxide on Polyethylene [J].
Ai, Lianghui ;
Chen, Shanshan ;
Yang, Liu ;
Liu, Ping .
FIBERS AND POLYMERS, 2021, 22 (02) :354-365
[2]   Developments in Flame-Retardant Bio-composite Material Production [J].
Anannya, Ferdausee Rahman ;
Mahmud, Md. Arif .
ADVANCES IN CIVIL ENGINEERING MATERIALS, 2019, 8 (01) :9-22
[3]  
[Anonymous], CROPS LIV PROD 2020
[4]   Flame Retardant Polymer Composites [J].
Bar, Mahadev ;
Alagirusamy, R. ;
Das, Apurba .
FIBERS AND POLYMERS, 2015, 16 (04) :705-717
[5]   OVERVIEW OF FIRE RETARDANT MECHANISMS [J].
CAMINO, G ;
COSTA, L ;
DICORTEMIGLIA, MPL .
POLYMER DEGRADATION AND STABILITY, 1991, 33 (02) :131-154
[6]   Studies on durability of sustainable biobased composites: a review [J].
Chang, Boon Peng ;
Mohanty, Amar K. ;
Misra, Manjusri .
RSC ADVANCES, 2020, 10 (31) :17955-17999
[7]   Effect of particle size on the flame retardancy of poly(butylene succinate)/Mg(OH)2 composites [J].
Chen, Hao ;
Wen, Xin ;
Guan, Yanyan ;
Min, Jiakang ;
Wen, Yanliang ;
Yang, Hongfan ;
Chen, Xuecheng ;
Li, Yunhui ;
Yang, Xiuyun ;
Tang, Tao .
FIRE AND MATERIALS, 2016, 40 (08) :1090-1096
[8]   Preparation and characterization of a microencapsulated flame retardant and its flame-retardant mechanism in unsaturated polyester resins [J].
Chen, Zhiquan ;
Jiang, Mengwei ;
Chen, Zhongwei ;
Chen, Tingting ;
Yu, Yuan ;
Jiang, Juncheng .
POWDER TECHNOLOGY, 2019, 354 :71-81
[9]  
Chiu SH, 1998, J APPL POLYM SCI, V67, P989, DOI 10.1002/(SICI)1097-4628(19980207)67:6<989::AID-APP4>3.0.CO
[10]  
2-I