Electrolyte containing nano carbon tube
A technology of carbon nanotubes and electrolyte, which is applied in the field of electrolyte, can solve the problems of reducing the speed of ion movement, affecting the conductivity of batteries, and affecting the conductivity of electrolyte, so as to promote the speed of movement, improve the efficiency of electrochemical reactions and Conductive performance, the effect of improving service life
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Embodiment 1-26
[0071] Take the above-mentioned sulfuric acid solution with a density of 1.33g / ml, add carbon nanotubes and silica powder according to the formula listed in Table 1, and stir them thoroughly for 24 hours with a mixer, and mix them evenly, to prepare examples 1 to 26 Of electrolyte. Each electrolyte is added to the test battery, and the battery type used in automobiles and motorcycles is 12V4Ah. The test results are shown in Table 1.
[0072] Table 1. Performance of electrolytes with various carbon nanotubes and silica concentrations in non-colloidal batteries
[0073]
serial number
Carbon nanotubes
weight ratio
Carbon nanotubes
Kind
Silica weight
Quantity ratio
0.4A discharge
, Hours
40A discharge
,second
Impact test
(Number of cycles)
Simulated life
Life
Comparative example 1
No sodium in electrolyte
M carbon tube
No
No
10
150
30
Qual...
Embodiment 27-50
[0080] Example 27-50 Preparation of Electrolyte Concentrate Containing Carbon Nanotubes
[0081] Because the dispersion and mixing of carbon nanotubes requires a long time of stirring and mixing, for practical application considerations, a higher concentration can be used to prepare an electrolyte concentrate containing carbon nanotubes, and the carbon nanotubes and sulfuric acid can be mixed to make a good dispersion. The suspended concentrated solution is diluted and added with silica to achieve an effective use of low-concentration carbon nanotube electrolyte, which can save the time of stirring and mixing and reduce the economic benefits of carbon nanotube electrolyte storage and transportation volume.
[0082] Take the above-mentioned sulfuric acid solution with a density of 1.33g / ml, and add 5 weight percent and 15 weight percent of carbon nanotubes respectively. The weight percent is calculated based on the weight of the sulfuric acid solution as 100%. Stir thoroughly for 2...
Embodiment 51-74
[0097] Take the above-mentioned sulfuric acid solution with a density of 1.33g / ml, add the carbon nanotubes according to the formula listed in Table 3, and mix it thoroughly with a mixer for 24 hours, then add silica to achieve the required silica concentration, mix Evenly, leave the electrolyte to form a gel, that is, the colloidal electrolytes of Examples 51 to 74 have been prepared. Each electrolyte was added to the test battery, and the battery type used in automobiles and motorcycles was 12V4Ah. The test results are shown in Table 3.
[0098] Table 3. Performance of electrolytes with various carbon nanotubes and silica concentrations in colloidal batteries
[0099] serial number
Carbon nanotube weight
Than
Carbon nanotubes
Kind
Silica
weight ratio
0.4A discharge,
Hour
40A discharge
,second
Impact test
(Number of cycles)
Simulated life
Life
Comparative example 1
No sodium in electrolyte
M carbon tube
N...
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