Negative pole additive of low-gas-evolution alkaline zinc-manganese battery and preparation method thereof
A zinc-manganese battery and gas evolution technology, which is applied to battery electrodes, circuits, electrical components, etc., can solve problems such as high price and large cost burden, and achieve the effects of reducing production costs, improving competitiveness, and improving storage performance.
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Embodiment 1
[0015] Weigh 62kg of zinc powder, 24kg of deionized water, 12kg of potassium hydroxide, 1.5kg of zinc oxide, 0.45kg of binder, and 0.05kg of silicate, first put the zinc powder, binder, and silicate into the mixer, and stir Evenly, make a dry powder, then make a solution with potassium hydroxide, zinc oxide, and deionized water, then put the dry powder and aqueous solution into the zinc paste machine, stir evenly, vacuumize, remove air bubbles, and put it in a barrel for later use.
[0016] Example 1 The discharge performance experiments of the prepared low gassing alkaline zinc-manganese battery negative electrode and the alkaline zinc-manganese battery negative electrode obtained by the existing formula technology are shown in Table 1.
[0017] Table 1 Experimental comparison of discharge performance between Example 1 and common formula
[0018] 10Ω continuous play to 0.9V 3.9Ω continuous play to 0.9V 1.8Ω Pulse to 0.9V 1000mA pulse to 0.9V 3.9Ω continuou...
Embodiment 2
[0022] Weigh 67kg of zinc powder, 23.11kg of deionized water, 8kg of potassium hydroxide, 1.35kg of zinc oxide, 0.5kg of binder, and 0.04kg of silicate. First, put the zinc powder, binder and silicate into the mixer, Stir evenly to make a dry powder, then make a solution with potassium hydroxide, zinc oxide, and deionized water, then put the dry powder and aqueous solution into the zinc paste machine, stir evenly, vacuumize, remove air bubbles, and pack it into a barrel for later use.
[0023] Example 2 The discharge performance experiments of the prepared low gas evolution alkaline zinc-manganese battery negative electrode and the alkaline zinc-manganese battery negative electrode obtained by the existing formula technology are shown in Table 2.
[0024] Table 2 Experimental comparison of discharge performance between Example 2 and common formulation process
[0025] 10Ω continuous play to 0.9V 3.9Ω continuous play to 0.9V 1.8Ω Pulse to 0.9V 1000mA pulse to ...
Embodiment 3
[0029] Weigh 70kg of zinc powder, 18.37kg of deionized water, 10kg of potassium hydroxide, 1.2kg of zinc oxide, 0.4kg of binder, and 0.03kg of silicate. First, put the zinc powder, binder and silicate into the mixer, Stir evenly to make a dry powder, then make a solution with potassium hydroxide, zinc oxide, and deionized water, then put the dry powder and aqueous solution into the zinc paste machine, stir evenly, vacuumize, remove air bubbles, and pack it into a barrel for later use.
[0030] Table 3 shows the discharge performance experiments of the negative electrode of the alkaline zinc-manganese battery with low gas evolution rate prepared in Example 3 and the negative electrode of the alkaline zinc-manganese battery obtained by the existing formulation process.
[0031] Table 3 Experimental comparison of discharge performance between Example 3 and common formulation process
[0032] 10Ω continuous play to 0.9V 3.9Ω continuous play to 0.9V 1.8Ω Pulse to 0....
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