Lithium battery with high specific energy and preparation method for current collector of lithium battery
A lithium battery and current collector technology, which is applied in the direction of battery electrodes, lithium batteries, non-aqueous electrolyte battery electrodes, etc., can solve the problems of affecting the use of lithium-ion batteries, insufficient binding force, and low specific surface area, and achieve large binding force and improved The effect of binding force and large specific surface area
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Embodiment 1
[0028] will contain 90 wt .% lithium manganate, 6 wt .% PVDF and 4 wt The mixture of .% acetylene black is coated on the 20μm carbon-coated aluminum mesh prepared by the magnetron sputtering method as the positive pole piece; will contain 90 wt .% Artificial graphite, 5 wt .% PVDF and 5 wt The mixture of .% acetylene black was coated on the 25 μm carbon-coated copper grid prepared by magnetron sputtering method as the negative pole piece; the PP single-layer separator, the positive pole piece and the negative pole piece were as figure 1 , 2 Laminate in the manner shown, pack with aluminum-plastic film, and inject electrolyte to obtain a high-specific-energy lithium battery.
Embodiment 2
[0030] will contain 85 wt .% nickel cobalt manganese ternary material, 7 wt .% Hydroxypropyl Methyl Cellulose and 8 wt .% The mixture of nano-carbon fibers is coated on a 50 μm carbon-coated aluminum mesh prepared by magnetron sputtering as a positive pole piece; will contain 93 wt .% lithium titanate, 5 wt .% hydroxypropyl methylcellulose and 2 wt .% The mixture of nano-carbon fibers is coated on a 10 μm carbon-coated copper grid prepared by magnetron sputtering as a negative pole piece; a PE single-layer separator, a positive pole piece and a negative pole piece such as figure 2 Laminate in the manner shown, pack with aluminum-plastic film, and inject electrolyte to obtain a high-specific-energy lithium battery.
Embodiment 3
[0032] will contain 95 wt .% layered lithium-rich material, 3 wt .% polyvinylidene fluoride and 2 wt .% The mixture of carbon nanotubes is coated on a 15 μm carbon-coated aluminum mesh prepared by magnetron sputtering as a positive pole piece; will contain 87 wt .% Silicon carbon composite material, 8 wt .% PVDF and 5 wt.% The mixture of carbon nanotubes is coated on a 35 μm carbon-coated copper grid prepared by magnetron sputtering as the negative pole piece; the PP / PE / PP three-layer composite diaphragm, the positive pole piece and the negative pole piece are as figure 2 Laminate in the manner shown, pack with aluminum-plastic film, and inject electrolyte to obtain a high-specific-energy lithium battery.
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