Sagger with high-yield for lithium battery cathode material and manufacturing method thereof
A positive electrode material and high-yield technology, applied in the field of saggers, can solve the problems of poor corrosion resistance, shortened service life of saggars, and damage to the microstructure of saggars, and achieve simple manufacturing methods, reduced material costs and production costs, and high The effect of service life
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Embodiment 1
[0030] The invention discloses a high-yield lithium battery anode material sagger, which comprises a pot body formed integrally from the bottom of the pot and the side of the pot, and a protective coating coated on the inner surface of the pot;
[0031] The bowl includes the following raw materials in mass percentage: 50% mullite, 30% α-alumina, 15% potassium acetylacetonate, and 5% paraffin;
[0032] The protective coating comprises the following raw materials in mass percentage: 40% of silicon carbide coarse powder, 30% of silicon carbide fine powder, 20% of polyacrylate, 9.9% of methanol, 0.1% of attapulgite; the coating thickness of the protective coating is 0.5mm.
[0033] The particle diameter of mullite is 10 μm, the particle diameter of α-alumina is 10 nm, the particle diameter of silicon carbide coarse powder is 10 mm, and the particle diameter of silicon carbide fine powder is 10 μm.
[0034] The manufacturing method of the above-mentioned high-yield lithium battery...
Embodiment 2
[0042] The invention discloses a high-yield lithium battery anode material sagger, which comprises a pot body formed integrally from the bottom of the pot and the side of the pot, and a protective coating coated on the inner surface of the pot;
[0043] The bowl includes the following raw materials in mass percentage: 70% mullite, 20% α-alumina, 5% potassium isopropoxide, and 5% carboxymethyl cellulose;
[0044] The protective coating comprises the following raw materials in mass percentage: 39.5% of silicon carbide coarse powder, 40% of silicon carbide fine powder, 10% of polyacrylate, 10% of methanol, 0.5% of attapulgite; the coating thickness of the protective coating is 1.5mm.
[0045] The particle diameter of mullite is 1 μm, the particle diameter of α-alumina is 1 nm, the particle diameter of silicon carbide coarse powder is 1 mm, and the particle diameter of silicon carbide fine powder is 1 μm.
[0046] The manufacturing method of the above-mentioned high-yield lithium...
Embodiment 3
[0054] The invention discloses a high-yield lithium battery anode material sagger, which comprises a pot body formed integrally from the bottom of the pot and the side of the pot, and a protective coating coated on the inner surface of the pot;
[0055] The bowl includes the following raw materials in mass percentage: 60% mullite, 20% α-alumina, 15% potassium acetylacetonate, and 5% carboxymethyl cellulose;
[0056] The protective coating comprises the following raw materials in mass percentage: 35% of silicon carbide coarse powder, 35% of silicon carbide fine powder, 20% of polyacrylate, 9.7% of methanol, 0.3% of attapulgite; the coating thickness of the protective coating is 1mm.
[0057] The particle diameter of mullite is 5 μm, the particle diameter of α-alumina is 5 nm, the particle diameter of silicon carbide coarse powder is 5 mm, and the particle diameter of silicon carbide fine powder is 5 μm.
[0058] The method for manufacturing a high-yield lithium battery cathode...
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Abstract
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