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A platform for research: civil engineering, architecture and urbanism
Manufacture of three-layer wood–porcelain stone composite board reinforced with bamboo fiber
Research highlights ► Bamboo fibers reinforcement leads to improve MOR of the board. ► Random orientation of bamboo fibers promotes larger IB strength. ► Increasing weight ratio of bamboo fibers leads to decrease IB strength. ► Orientations of bamboo fibers do not have significant effect on TS. ► Increasing weight ratio of bamboo fibers leads to increase TS.
Abstract The objective of this study was to improve bending strength properties of three-layer wood–porcelain stone composite board. The focus of this study was on the effects of orientations and weight ratios of bamboo fiber in face layer on physical and mechanical properties of the board. Three types of board with different orientation of bamboo fibers in the face layer were manufactured: one in which the fibers were oriented at random orientation (R board), another in which the fibers were oriented at unidirectional orientation (U board), and a third in which the fibers were oriented at cross orientation (C board). The physical and mechanical properties of the boards were evaluated based on the Japanese Industrial Standard for Particleboards. The main results obtained were as follows: Bending strength properties of the board were strongly affected by both orientation and weight ratio of bamboo fibers. Perpendicular specimen of C board has larger bending strength properties than U board and the value become larger with increased weight ratio of bamboo fibers. Internal bond strength value decreased with increasing weight ratio of bamboo fibers. The effect of orientation and weight ratios of bamboo fiber on thickness swelling of the board was not significant.
Manufacture of three-layer wood–porcelain stone composite board reinforced with bamboo fiber
Research highlights ► Bamboo fibers reinforcement leads to improve MOR of the board. ► Random orientation of bamboo fibers promotes larger IB strength. ► Increasing weight ratio of bamboo fibers leads to decrease IB strength. ► Orientations of bamboo fibers do not have significant effect on TS. ► Increasing weight ratio of bamboo fibers leads to increase TS.
Abstract The objective of this study was to improve bending strength properties of three-layer wood–porcelain stone composite board. The focus of this study was on the effects of orientations and weight ratios of bamboo fiber in face layer on physical and mechanical properties of the board. Three types of board with different orientation of bamboo fibers in the face layer were manufactured: one in which the fibers were oriented at random orientation (R board), another in which the fibers were oriented at unidirectional orientation (U board), and a third in which the fibers were oriented at cross orientation (C board). The physical and mechanical properties of the boards were evaluated based on the Japanese Industrial Standard for Particleboards. The main results obtained were as follows: Bending strength properties of the board were strongly affected by both orientation and weight ratio of bamboo fibers. Perpendicular specimen of C board has larger bending strength properties than U board and the value become larger with increased weight ratio of bamboo fibers. Internal bond strength value decreased with increasing weight ratio of bamboo fibers. The effect of orientation and weight ratios of bamboo fiber on thickness swelling of the board was not significant.
Manufacture of three-layer wood–porcelain stone composite board reinforced with bamboo fiber
Hermawan, Andi (author) / Ohuchi, Takeshi (author) / Fujimoto, Noboru (author)
2010-11-03
5 pages
Article (Journal)
Electronic Resource
English
Manufacture of three-layer wood-porcelain stone composite board reinforced with bamboo fiber
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