Energy storage battery safety monitoring method
A safety monitoring and energy storage battery technology, applied in secondary battery testing, secondary battery, secondary battery repair/maintenance, etc., can solve the problems of rare research, gas production, slowness, etc. The effect of strong electromagnetic interference and low cost
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Embodiment 1
[0032] see Figure 1~4 , an energy storage battery safety monitoring method, the monitoring structure includes
[0033] Cell module 1, which is assembled by applying an appropriate amount of heat-conducting silica gel between several cells;
[0034] The end plate clamping assembly is arranged at both ends of the cell module 1, and it includes a fixed end plate 2 fixedly placed on one side of the cell module 1 and a fixed end plate 2 close to the cell module 1 constituted by a sliding end plate 3 on the other side and the bottom is not fixed;
[0035] The expansion pressure measuring mechanism is arranged on one side of the sliding end plate 3, and it is composed of a U-shaped plate arranged parallel to the sliding end plate 3 and having a fixed bottom end, and a middle sliding plate 12 that is movably arranged on the inner side of the U-shaped plate , and the U-shaped plate is composed of a spring support plate 11 on the front side and a fixed back plate 14 on the rear side,...
Embodiment 2
[0042] see Figure 1~4 , an energy storage battery safety monitoring method, taking a cell module composed of multiple cells as an example, the monitoring method includes
[0043] First, fix the fixed end plate of the sheet metal material to one end of the battery pack by welding or bolting, apply an appropriate amount of heat-conducting silica gel between the cells to form a group, and place the cell module against the fixed end plate. Then place the sliding end plate on the right side of the cell module. When the cell module expands, the sliding end plate will move to the right, the spring will be compressed, and the compression force will be transmitted to the pressure sensor, so as to obtain the rebound force generated by the expansion of the cell module, and the pressure sensor can detect the pressure value And store, so as to obtain the expansion rebound force of the battery module in different stages of charging and discharging.
[0044] The telescopic spring can be a...
Embodiment 3
[0052] see Figure 1~4 , an energy storage battery safety monitoring method, taking a single cell as an example, the monitoring method includes
[0053] First, fix the fixed end plate of the sheet metal material to one end of the battery pack by welding or bolting, then place a single cell, and place the cell against the fixed end plate. Then place the sliding end plate on the right side of the cell. When the cell expands, the sliding end plate will move to the right, the spring will be compressed, and the compression force will be transmitted to the pressure sensor, so as to obtain the rebound force caused by the expansion of the cell. The pressure sensor can detect and store the pressure value, so that Obtain the expansion rebound force of the battery cell at different stages of charge and discharge.
[0054] The telescopic spring can be a spiral mold spring with a load of 137N, a spring constant of 3.1N / mm, an inner and outer diameter of the spring of 12-15mm, a free leng...
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