Composite microsphere for piezoelectric power generation asphalt pavement
A technology of composite microspheres and asphalt pavement, which is applied in the field of piezoelectric materials, can solve the problems of small strain and low charge generation, and achieve the effects of good deformation force, excellent elasticity, and enhanced elastic deformation ability
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Embodiment 1
[0024] Step 1, adding barium titanate into a sand mill and grinding until the average particle size of barium titanate is less than 100nm to obtain nanometer barium titanate for use;
[0025] Step 2. Dilute the water glass with pure water, add acetic acid to adjust the pH to 4, hydrolyze and age for 24 hours, heat and drain to obtain a silica sol with a mass concentration of 10%; then add nano-barium titanate, nano-barium titanate The amount of addition is 15% of the mass of silica sol; high-speed stirring is uniform, and spray drying is obtained to obtain silica-nano barium titanate composite powder;
[0026] Step 3: Dissolve 10kg of SBS in 100kg of toluene to obtain glue, disperse 20kg of silica-nanobarium titanate composite powder, and 0.05kg of foaming agent azodicarbonamide in the glue, and further spray dry at 100°C to obtain spherical Composite microspheres, as composite microspheres for piezoelectric power generation asphalt pavement.
Embodiment 2
[0028] Step 1, adding barium titanate into a sand mill and grinding until the average particle size of barium titanate is less than 100nm to obtain nanometer barium titanate for use;
[0029] Step 2. Dilute the water glass with pure water, add acetic acid to adjust the pH to 4, hydrolyze and age for 24 hours, heat and drain to obtain a silica sol with a mass concentration of 10%; then add nano-barium titanate, nano-barium titanate The amount of addition is 20% of the mass of silica sol; high-speed stirring is uniform, and spray drying is obtained to obtain silica-nano barium titanate composite powder;
[0030] Step 3: Dissolve 5kg of SBS in 80kg of toluene to obtain glue, disperse 20kg of silica-nano barium titanate composite powder, 0.1kg of foaming agent 4,4'-oxobisbenzenesulfonylhydrazine in the glue, and further in 100 ℃ spray drying to obtain spherical composite microspheres, which are used as composite microspheres for piezoelectric power generation asphalt pavement.
Embodiment 3
[0032] Step 1, adding barium titanate into a sand mill and grinding until the average particle size of barium titanate is less than 100nm to obtain nanometer barium titanate for use;
[0033] Step 2. Dilute the water glass with pure water, add acetic acid to adjust the pH to 4, hydrolyze and age for 24 hours, heat and drain to obtain a silica sol with a mass concentration of 10%; then add nano-barium titanate, nano-barium titanate The amount of addition is 25% of the mass of silica sol; high-speed stirring is uniform, and spray drying is obtained to obtain silica-nano barium titanate composite powder;
[0034] Step 3: Dissolve 10kg of SBS in 100kg of toluene to obtain glue, disperse 20kg of silicon dioxide-nano barium titanate composite powder, 0.05kg of foaming agent azodicarbonamide in the glue, and further spray dry at 100°C to obtain Spherical composite microspheres are used as composite microspheres for piezoelectric power generation asphalt pavement.
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