Surface modified aramid fiber, surface modification method and application
A surface modification and aramid fiber technology, applied in the field of surface modified aramid fiber and its surface modification, can solve the problems of easy deactivation of fiber surface active points, low shear strength, high interface shear strength, and easy industrialization. Effects of handling, high interfacial shear strength, and good compatibility
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Embodiment 1
[0053] Surface modification of aramid fibers:
[0054] (1) Put the continuous aramid fiber in a blast oven and dry it at 80°C for 12h.
[0055] (2) The dried continuous aramid fiber is evenly placed between the positive and negative electrodes of the vacuum plasma processor, the processing medium is air, and the gas flow rate is 50cm 3 / min, the plasma generating power is 400w, and the treatment time is 60s, and the aramid fiber after plasma treatment is obtained.
[0056] (3) Pour 1,3-di-shrunk dry oil hydantoin epoxy resin (epoxy value is 0.75mol / 100g) into the oiling tank, heat it to 70℃, the viscosity is 58mPa.s (Brookfield DV-Ⅲ type rotary Viscometer, rotor type SC4-18, 10 rpm). The aramid fiber after plasma treatment is continuously passed through the oiling tank to obtain the aramid fiber after surface modification. In this example, the content of the surface treatment agent is 1.6%.
[0057] The interfacial shear strength (IFSS) of surface-modified aramid fiber and...
Embodiment 2
[0063] Surface modification of aramid fibers:
[0064] (1) Put the continuous aramid fiber in a blast oven and dry it at 80°C for 12h.
[0065] (2) The dried continuous aramid fiber is evenly placed between the positive and negative electrodes of the vacuum plasma processor, the processing medium is air, and the gas flow rate is 50cm 3 / min, the plasma generating power is 400w, and the treatment time is 60s, and the aramid fiber after plasma treatment is obtained.
[0066] (3) Pour 5,5-methylphenyl-1,3-dicondensed dry oil hydantoin epoxy resin (epoxy value is 0.77mol / 100g) into the oiling tank, heat it to 70℃, the viscosity is 65mPa .s (Brookfield DV-Ⅲ type rotational viscometer, rotor type SC4-18, rotating speed is 10 rpm). The aramid fiber after plasma treatment is continuously passed through the oiling tank to obtain the aramid fiber after surface modification. In this embodiment, the content of the surface treatment agent is 1.5%.
[0067] The surface treatment agent c...
Embodiment 3
[0069] Surface modification of aramid fibers:
[0070] (1) Put the continuous aramid fiber in a blast oven and dry it at 80°C for 12h.
[0071] (2) The dried continuous aramid fiber is evenly placed between the positive and negative electrodes of the vacuum plasma processor, the processing medium is air, and the gas flow rate is 50cm 3 / min, the plasma generating power is 400w, and the treatment time is 60s, and the aramid fiber after plasma treatment is obtained.
[0072] (3) Pour 5,5-methylphenyl-1,3-dicondensed dry oil hydantoin epoxy resin (epoxy value is 0.70mol / 100g) into the oiling tank, heat it to 70℃, the viscosity is 72mPa .s (Brookfield DV-Ⅲ type rotational viscometer, rotor type SC4-18, rotating speed is 10 rpm). The aramid fiber after plasma treatment is continuously passed through the oiling tank to obtain the aramid fiber after surface modification. In this example, the content of the surface treatment agent is 1.8%.
[0073] The surface treatment agent cont...
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