The Experts below are selected from a list of 219 Experts worldwide ranked by ideXlab platform

Huai Yu Zhan - One of the best experts on this subject based on the ideXlab platform.

  • effect of surface microfibrillation of sisal fibre on the mechanical properties of sisal aramid fibre hybrid composites
    Composites Part A-applied Science and Manufacturing, 2011
    Co-Authors: Lin Xin Zhong, Shi Yu Fu, Xue Song Zhou, Huai Yu Zhan
    Abstract:

    Surface microfibrillation of cellulose fibre was adopted as a facile method for improving cellulose fibre/phenolic resin interfacial adhesion in hybrid composites composed of sisal fibre and aramid fibre. Development of microfibrils and aggregates on the fibre surface significantly increased the interfacial adhesion between the sisal fibre and resin by providing a large contact area and by inhibiting the formation of spontaneous cracks in the composites. Consequently, the compression, tensile and Internal Bonding strengths, and wear resistance of the hybrid composites were remarkably improved. Surface microfibrillation of sisal fibre to a DM value of 24 °SR increased the tensile strength, Internal Bonding strength and wear resistance values of composites by 93%, 124% and 31%, respectively.

  • Effect of surface microfibrillation of sisal fibre on the mechanical properties of sisal/aramid fibre hybrid composites
    Composites Part A-applied Science and Manufacturing, 2011
    Co-Authors: Lin Xin Zhong, Shi Yu Fu, Xue Song Zhou, Huai Yu Zhan
    Abstract:

    Surface microfibrillation of cellulose fibre was adopted as a facile method for improving cellulose fibre/phenolic resin interfacial adhesion in hybrid composites composed of sisal fibre and aramid fibre. Development of microfibrils and aggregates on the fibre surface significantly increased the interfacial adhesion between the sisal fibre and resin by providing a large contact area and by inhibiting the formation of spontaneous cracks in the composites. Consequently, the compression, tensile and Internal Bonding strengths, and wear resistance of the hybrid composites were remarkably improved. Surface microfibrillation of sisal fibre to a DM value of 24 °SR increased the tensile strength, Internal Bonding strength and wear resistance values of composites by 93%, 124% and 31%, respectively.

Lin Xin Zhong - One of the best experts on this subject based on the ideXlab platform.

  • effect of surface microfibrillation of sisal fibre on the mechanical properties of sisal aramid fibre hybrid composites
    Composites Part A-applied Science and Manufacturing, 2011
    Co-Authors: Lin Xin Zhong, Shi Yu Fu, Xue Song Zhou, Huai Yu Zhan
    Abstract:

    Surface microfibrillation of cellulose fibre was adopted as a facile method for improving cellulose fibre/phenolic resin interfacial adhesion in hybrid composites composed of sisal fibre and aramid fibre. Development of microfibrils and aggregates on the fibre surface significantly increased the interfacial adhesion between the sisal fibre and resin by providing a large contact area and by inhibiting the formation of spontaneous cracks in the composites. Consequently, the compression, tensile and Internal Bonding strengths, and wear resistance of the hybrid composites were remarkably improved. Surface microfibrillation of sisal fibre to a DM value of 24 °SR increased the tensile strength, Internal Bonding strength and wear resistance values of composites by 93%, 124% and 31%, respectively.

  • Effect of surface microfibrillation of sisal fibre on the mechanical properties of sisal/aramid fibre hybrid composites
    Composites Part A-applied Science and Manufacturing, 2011
    Co-Authors: Lin Xin Zhong, Shi Yu Fu, Xue Song Zhou, Huai Yu Zhan
    Abstract:

    Surface microfibrillation of cellulose fibre was adopted as a facile method for improving cellulose fibre/phenolic resin interfacial adhesion in hybrid composites composed of sisal fibre and aramid fibre. Development of microfibrils and aggregates on the fibre surface significantly increased the interfacial adhesion between the sisal fibre and resin by providing a large contact area and by inhibiting the formation of spontaneous cracks in the composites. Consequently, the compression, tensile and Internal Bonding strengths, and wear resistance of the hybrid composites were remarkably improved. Surface microfibrillation of sisal fibre to a DM value of 24 °SR increased the tensile strength, Internal Bonding strength and wear resistance values of composites by 93%, 124% and 31%, respectively.

Xiaoyan Zhou - One of the best experts on this subject based on the ideXlab platform.

  • Development and performance evaluation of a new thermal insulation material from rice straw using high frequency hot-pressing
    Energy and Buildings, 2015
    Co-Authors: Kangcheng Wei, Chenglong Lv, Zhenyu Dai, Minzhi Chen, Xiaoyan Zhou, Da Shen
    Abstract:

    A new thermal insulation material made from rice straw (RSTIB) was developed using high frequency hot pressing. The goal of this study is to investigate the effect of high frequency heating, board density, particle size and ambient temperature on the properties of RSTIB. The results indicated that the optimum physical and mechanical properties of boards are obtained with a particle moisture content (MC) of 14%, a board density of 250 kg/m3, and an L-type particle size. Additionally, the thermal insulation boards had fairly low thermal conductivity, ranging from 0.051 to 0.053 W/(m K). Comparison with conventional hot pressing confirmed that the pressing duration can be greatly shortened by high frequency hot pressing. The boards subjected to high frequency pressing had higher Internal Bonding strength (IB) values than the boards subjected to conventional hot pressing. As an environmentally friendly and renewable material, RSTIB is of interest for energy saving purposes when it is used as building insulation material for walls or ceilings.

  • an environment friendly thermal insulation material from cotton stalk fibers
    Energy and Buildings, 2010
    Co-Authors: Xiaoyan Zhou, Fei Zheng, Huaguan Li, Chenglong Lu
    Abstract:

    Abstract A new environment-friendly thermal insulation material—binderless cotton stalk fiberboard (BCSF) made from cotton stalk fibers with no chemical additives was developed using high frequency hot-pressing. The goal of this paper was to investigate the effect of board density, fiber moisture content (MC) and pressing time on thermal conductivity and mechanical properties of BCSF. The results showed that the board with a density of 150–450 kg/m3 had the thermal conductivity values ranging from 0.0585 to 0.0815 W/m K, which was close to that of the expanded perlite and vermiculite within the same density range. The thermal conductivity values had a strong linear correlation with the board density. The Internal Bonding strength (IBS) of boards was good at the relatively low-density level, which can be significantly improved with increasing the fiber MC and prolonging pressing time. The same trend was observed for modulus of rapture (MOR) and modulus of elasticity (MOE) of the boards. As an environment-friendly and renewable material, the BCSF is particularly suitable for ceiling and wall applications to save energy.

Da Shen - One of the best experts on this subject based on the ideXlab platform.

  • Development and performance evaluation of a new thermal insulation material from rice straw using high frequency hot-pressing
    Energy and Buildings, 2015
    Co-Authors: Kangcheng Wei, Chenglong Lv, Zhenyu Dai, Minzhi Chen, Xiaoyan Zhou, Da Shen
    Abstract:

    A new thermal insulation material made from rice straw (RSTIB) was developed using high frequency hot pressing. The goal of this study is to investigate the effect of high frequency heating, board density, particle size and ambient temperature on the properties of RSTIB. The results indicated that the optimum physical and mechanical properties of boards are obtained with a particle moisture content (MC) of 14%, a board density of 250 kg/m3, and an L-type particle size. Additionally, the thermal insulation boards had fairly low thermal conductivity, ranging from 0.051 to 0.053 W/(m K). Comparison with conventional hot pressing confirmed that the pressing duration can be greatly shortened by high frequency hot pressing. The boards subjected to high frequency pressing had higher Internal Bonding strength (IB) values than the boards subjected to conventional hot pressing. As an environmentally friendly and renewable material, RSTIB is of interest for energy saving purposes when it is used as building insulation material for walls or ceilings.

Xue Song Zhou - One of the best experts on this subject based on the ideXlab platform.

  • effect of surface microfibrillation of sisal fibre on the mechanical properties of sisal aramid fibre hybrid composites
    Composites Part A-applied Science and Manufacturing, 2011
    Co-Authors: Lin Xin Zhong, Shi Yu Fu, Xue Song Zhou, Huai Yu Zhan
    Abstract:

    Surface microfibrillation of cellulose fibre was adopted as a facile method for improving cellulose fibre/phenolic resin interfacial adhesion in hybrid composites composed of sisal fibre and aramid fibre. Development of microfibrils and aggregates on the fibre surface significantly increased the interfacial adhesion between the sisal fibre and resin by providing a large contact area and by inhibiting the formation of spontaneous cracks in the composites. Consequently, the compression, tensile and Internal Bonding strengths, and wear resistance of the hybrid composites were remarkably improved. Surface microfibrillation of sisal fibre to a DM value of 24 °SR increased the tensile strength, Internal Bonding strength and wear resistance values of composites by 93%, 124% and 31%, respectively.

  • Effect of surface microfibrillation of sisal fibre on the mechanical properties of sisal/aramid fibre hybrid composites
    Composites Part A-applied Science and Manufacturing, 2011
    Co-Authors: Lin Xin Zhong, Shi Yu Fu, Xue Song Zhou, Huai Yu Zhan
    Abstract:

    Surface microfibrillation of cellulose fibre was adopted as a facile method for improving cellulose fibre/phenolic resin interfacial adhesion in hybrid composites composed of sisal fibre and aramid fibre. Development of microfibrils and aggregates on the fibre surface significantly increased the interfacial adhesion between the sisal fibre and resin by providing a large contact area and by inhibiting the formation of spontaneous cracks in the composites. Consequently, the compression, tensile and Internal Bonding strengths, and wear resistance of the hybrid composites were remarkably improved. Surface microfibrillation of sisal fibre to a DM value of 24 °SR increased the tensile strength, Internal Bonding strength and wear resistance values of composites by 93%, 124% and 31%, respectively.