Storage battery grid
A battery and grid technology, applied to battery electrodes, circuits, electrical components, etc., to achieve good conductivity, improve ineffective interface structure, and improve deep discharge performance
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Embodiment 1
[0024] Such as figure 1 As shown, a storage battery grid in this embodiment includes a grid 3 and a frame 1 arranged along the periphery of the grid. The grid is made of a metal alloy, and the metal alloy is composed of aluminum: 88% , magnesium: 5%, tin: 7%. The frame 1 is made of a lead-tin alloy, and the composition of the lead-tin alloy is, by weight percentage, lead: 99%, tin: 1%. Magnesium is chemically active and has a certain degree of ductility and heat dissipation, while tin and aluminum elements can increase the fluidity, electrical conductivity, corrosion resistance and strength of the alloy. The grid is made by gravity casting, cut after 72 hours of natural aging, and the cut grid table is silver-plated. Gravity casting refers to the process of pouring molten metal into the mold under the action of the gravity of the earth, also known as casting. The gravity casting method has a simple process and low cost; the surface of the grid is plated with silver, which ca...
Embodiment 2
[0032] In this embodiment, a battery grid has the same structure as in Embodiment 1, but the composition of the metal alloy used to prepare the grid is different from that in Embodiment 1. In terms of weight percentage, the composition of the metal alloy in this embodiment is: aluminum: 90 %, Magnesium: 5%, Tin: 5%.
[0033] The composition of the lead-tin alloy for preparing the frame is different from that of Example 1. In terms of weight percentage, the composition of the lead-tin alloy in this embodiment is: lead: 98.5%, tin: 1.5%.
[0034] The grid of the conventional grid, by weight percentage, calcium: 0.085%, tin: 0.025%, aluminum: 1.2%, and the rest is lead. The frame of the conventional grid is the same as that of this embodiment. The weight of the small piece of the positive plate using the conventional grid is 9.5g, while the small piece of the positive plate using the grid of this embodiment only needs 6.9g.
[0035] The cycle life test was performed on the batt...
Embodiment 3
[0039] In this embodiment, a battery grid has the same structure as in Embodiment 1, but the composition of the metal alloy used to prepare the grid is different from that in Embodiment 1. In terms of weight percentage, the composition of the metal alloy in this embodiment is: aluminum: 86 %, Magnesium: 7%, Tin: 7%.
[0040] The composition of the lead-tin alloy for preparing the frame is different from that of Example 1. In terms of weight percentage, the composition of the lead-tin alloy in this embodiment is: lead: 99.5%, tin: 0.5%.
[0041] The grid of the conventional grid, by weight percentage, calcium: 0.085%, tin: 0.025%, aluminum: 1.2%, and the rest is lead. The frame of the conventional grid is the same as that of this embodiment. The weight of the positive small piece using the conventional grid is 9.5g, while the positive small piece using the grid of this embodiment only needs 7.0g.
[0042] The cycle life test was performed on the battery using the battery grid...
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