Lithium carbon fluoride-supercapacitor quick response composite battery
A lithium fluorocarbon battery and supercapacitor technology, which is applied in the field of lithium fluorocarbon-supercapacitor fast-response composite batteries, can solve the problem of voltage lag, unsatisfactory battery comprehensive performance, and inability to realize fast-response use of lithium fluorocarbon batteries, etc. problem, to achieve the effect of eliminating low-wave voltage and extending low-temperature operating temperature
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Embodiment 1
[0041]A lithium fluoride carbon-supercapacitor fast-response composite battery, the lithium fluoride carbon battery positive pole fluorinated graphite and fluorinated graphene, the ratio is 9:1, the negative pole metal lithium alloy (lithium content is 90%), the capacity 1Ah, the working voltage range is 1.5V~4.0V; the positive electrode material of the supercapacitor is activated carbon and manganese dioxide, the ratio is 9:1, the negative electrode is activated carbon, the capacity is 50F, and the working voltage range is 0.1V~2.7V. The positive electrode of the carbon dioxide battery is connected to the positive electrode of the supercapacitor, and the negative electrode is connected correspondingly, and then electrically connected to the output terminal of the positive electrode and the output terminal of the negative electrode respectively, and then packaged in an aluminum-plastic film case to prepare a lithium fluoride carbon-supercapacitor fast-response composite battery ...
Embodiment 2
[0043] The difference from Example 1 is that the positive pole of the lithium carbon fluoride battery is fluorinated graphite and fluorinated graphene, the ratio is 9:1, the negative pole is a metal lithium alloy (lithium content is 90%), the capacity is 1Ah, and the working voltage range 1.5V~4.0V; the supercapacitor positive electrode material is activated carbon and manganese dioxide, the ratio is 9:1, the negative electrode is activated carbon, the capacity is 100F, and the working voltage range is 0.1V~2.7V.
Embodiment 3
[0045] The difference from Example 1 is that the positive pole of the carbon fluoride lithium battery is fluorinated graphite and fluorinated graphene, the ratio is 6:4, the negative pole is a metal lithium alloy (lithium content is 90%), the capacity is 1Ah, and the working voltage range 1.5V~4.0V; the positive electrode material of supercapacitor is activated carbon and manganese dioxide, the ratio is 9:1, the negative electrode is activated carbon, the capacity is 50F, and the working voltage range is 0.1V~2.7V.
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