Valve-regulated storage battery container formation process
A technology of internal formation and storage battery, which is applied in the direction of lead-acid battery, lead-acid battery construction, secondary battery, etc. It can solve the problems of poor consistency of battery discharge capacity and difficult temperature control, and achieve uniform positive active material content and long charging time. The effect of short and low charging power
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Embodiment 1
[0026] 6-DZF-12 There are 864 semi-finished batteries in total. After adding acid, put the batteries into the water tank (water bath formation tank) and pour cooling water in time. After the liquid level reaches the height of the plate, stop feeding the cooling water; the battery stands still for 0.5h. The 18 batteries in each path are connected in series, and the temperature sensing probe on the side of the 9th battery in a single path is selected to be attached to the charging device to detect the charging temperature of the battery.
[0027] The set temperature is 45°C, the maximum battery current is 6.0A (0.5C 2 A) Carry out chemical conversion:
[0028] Once charged, the battery first charges at 0.6A (0.05C 2 A) Charge for 1 hour, and then start charging with a current of 6.0A; when the temperature reaches 45°C during charging, the charging current drops, and the charging current drops to 1.87A / h (about 0.156C 2 A / h, the current gradually drops from 6.0A to 3.2A within ...
Embodiment 2
[0037] 6-DZF-20 There are 1152 semi-finished batteries in total. After adding acid, put the batteries into the water tank and pour cooling water in time. After the liquid level reaches the plate height, stop feeding the cooling water; the batteries stand for 2 hours. The 18 batteries in each path are connected in series, and the side of the sixth battery in a single path is selected to be connected to the temperature sensing probe on the charging device to detect the charging temperature of the battery.
[0038] The set temperature is 44°C, the maximum battery current is 14.0A (0.7C 2 A) Carry out chemical conversion:
[0039] Once charged, the battery first charges at 2.0A (0.1C 2 A) Charge for 2 hours, and then start charging with a current of 14.0A; when the temperature reaches 44°C during charging, the charging current drops, and the charging current drops to 4.11A / h (about 0.206C 2 A / h, the charging current gradually drops from 14.0A to 2.9A within 2.7h); from 2.7h onwa...
Embodiment 3
[0048] 6-EVF-32 There are 864 semi-finished batteries in total. After adding acid, put the batteries into the water tank and pour cooling water in time. Stop feeding the cooling water after the liquid level reaches the plate height; the batteries stand for 1 hour. The 18 batteries in each path are connected in series, and the temperature sensing probe on the side of the 12th battery in a single path is selected to be attached to the charging device to detect the charging temperature of the battery.
[0049] The set temperature is 46°C, the maximum battery current is 20.0A (0.625C 2 A) Carry out chemical conversion:
[0050] Once charged, the battery first charges at 3.0A (0.09375C 2 A) Charge for 2 hours, and then start charging with a current of 20.0A; when the temperature reaches 46°C during charging, the charging current drops, and the charging current drops to 6.35A / h (about 0.198C 2 A / h, the charging current gradually decreased from 20.0A to 3.5A within 2.6h); from 2.6h...
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