Corn glove based on 3D printing and preparation method of corn glove
A 3D printing and corn technology, applied in the field of textile materials, can solve the problems of monotonous style, affecting performance, affecting the way and strength of the wearer's grip, and achieving the effect of improving the grip strength.
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Embodiment 1
[0028] (1) Cut corn stalks into pieces, sieve, and grind to obtain corn fiber powder with a length of 0.1-0.3mm, add the corn fiber powder into a solvent, stir and let it stand for 4 hours, after the corn fiber is fully swollen, add a starter, Mix evenly, high-temperature fermentation, hydrolysis, purification and polycondensation to obtain a polylactic acid high polymer with a viscosity of 280mPas.
[0029] (2) Transfer the polylactic acid polymer to the 3D printing device, adjust the orientation of the 3D printing according to the analysis and added hand data, and extrude the polylactic acid polymer from the port at 190°C at a speed of 0.6m / s Then, an integrated corn glove is formed on the three-dimensional receiver covered with a layer of conductive material.
[0030] (3) The corn glove was trimmed and cured at 110°C for 30 minutes to obtain a 3D printed corn glove with a thickness of 3 mm and a micro-nano structure on the surface.
Embodiment 2
[0032] (1) Shred, sieve, and grind corn stalks to obtain corn fiber powder with a length of 0.1-0.3mm, add the corn fiber powder to a solvent, stir and let stand for 6 hours, after the corn fiber is fully swollen, add a starter, Mix evenly, high-temperature fermentation, hydrolysis, purification and polycondensation to obtain a polylactic acid high polymer with a viscosity of 460mPas.
[0033] (2) Transfer the polylactic acid polymer to the 3D printing device, adjust the orientation of the 3D printing according to the analysis and added hand data, and extrude the polylactic acid polymer from the port at 220°C at a speed of 0.9m / s Then, an integrated corn glove is formed on the three-dimensional receiver covered with a layer of conductive material.
[0034] (3) The corn glove was trimmed, cured at 110°C for 60 min and other post-treatments to obtain a 3D printed corn glove with a thickness of 5 mm and a surface containing micro-nano-scale structures.
Embodiment 3
[0036] (1) Cut corn stalks into pieces, sieve, and grind to obtain corn fiber powder with a length of 0.1-0.3mm, add the corn fiber powder into a solvent, stir and let it stand for 4 hours, after the corn fiber is fully swollen, add a starter, Mix evenly, high-temperature fermentation, hydrolysis, purification and polycondensation to obtain a polylactic acid high polymer with a viscosity of 360mPas.
[0037] (2) Transfer the polylactic acid polymer to the 3D printing device, adjust the orientation of the 3D printing according to the analysis and added hand data, and extrude the polylactic acid polymer from the port at 200°C at a speed of 0.75m / s Then, an integrated corn glove is formed on the three-dimensional receiver covered with a layer of conductive material.
[0038] (3) The corn glove was trimmed and cured at 110°C for 50 minutes to obtain a 3D printed corn glove with a thickness of 3.6 mm and a micro-nano-scale structure on the surface.
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