Power information acquisition device, method and power detection method of vanadium liquid flow energy storage system
A power information and collection device technology, applied in the field of flow batteries, can solve the problems of judging the ion concentration, the difficulty of visually distinguishing the color of the electrolyte, and the inability to judge the power contained in the vanadium fluid energy storage device in real time, etc., to achieve the expansion of data Space, precise power detection, and the effect of improving accuracy
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Embodiment 1
[0071] Figure 5 An embodiment of the power information collection device of the present invention is shown. The power information collection device in this embodiment includes a sub-device, and the inlet and outlet of the power information collection device are respectively connected to the inlet and outlet of the cuvette in the sub-device. When in use, the switch part turns on the light source, and the electrolyte flows into the power information collection device, flows through the cuvette, and then flows out from the outlet of the device. When the electrolyte flows through the cuvette, the light emitted by the light source passes through the electrolyte and the cuvette, and shines on the color sensor on the other side of the cuvette. The color sensor generates color data and transmits it to the communication part. The component generates the voltage and current data supplied to the light source and calculates the output power, and transmits the above data as light source ...
Embodiment 2
[0075] Figure 6 Another embodiment of the power information collection device of the present invention is shown. The power information collection device in this embodiment includes a plurality of sub-devices, which are divided into a plurality of groups A, B, C... connected in series, and each group includes a plurality of sub-devices connected in parallel, such as A1, A2, A3 Wait. The number of neutron devices in each group can be different, and the number of branches of the electrolyte from converging to splitting can be the same or different each time. Different groups of sub-assemblies have different light source intensities and / or different cuvette thicknesses, for example A1 and B1 have the same light source intensity but the cuvette thicknesses are set to different values, or A1 and B1 have different light source intensities , and the thickness of the cuvette is the same value; while the sub-devices in the same group have the same light source intensity and cuvette t...
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