Lithium battery plug-in management container

Abstract

The invention relates to a lithium electric inserting plate type management container, which comprises three parts including a container body, an inserting plate and pins, wherein the container body is a square body, one point on the top surface of the square body is used as a coordinate, a rectangular array is provided with H through holes with the row number being N, the row gap being C, the line number being M and the line gap being D, the middle part of one end surface is provided with a rectangular hole formed by stretching and cutting a certain depth towards a first end surface opposite to a second end surface, F container body pull plate grooves are reserved in the long edge, near the rectangular hole formed in the top surface, on the first end surface, and G pin groove holes are reserved in the edge part, near the first end surface, on the top surface. The inserting plate is a rectangular plate, H points on the top surface of the rectangular plate are coordinates, the rectangular array is provided with the through holes with the row number being N, the row gap being C, the line number being M and the line gap being D, the inserting plate glidingly enters the container body through the rectangular hole formed in the container body end surface, the pins pass through the pin groove holes formed in the container body and pin holes formed in the inserting plate, and the pins are glidingly connected with the pin groove holes and the pin holes.

Description

technical field [0001] The invention relates to a device suitable for management and storage of batteries, in particular to a container for management, grading and storage of lithium batteries. Background technique [0002] At present, open-frame and press-type testing are mostly used in the testing of lithium batteries. The open-frame detection relies on manual detection one by one, which is inefficient, and the current press-type detection uses tray-type containers; after the lithium battery is manufactured, because the data indicators of a single battery are not completely consistent, this requires Classify the batteries according to a certain performance level and use them in groups to achieve the best use effect; in the grading process of lithium batteries, manual grading or semi-automatic mechanical grading is often used for the grading of battery management containers, which is not only inefficient, but also requires There are a lot of workers, and it is prone to gra...

AI Technical Summary

Problems solved by technology

The open-frame detection relies on manual detection one by one, which is inefficient, and the current press-type detection uses tray-type containers; after the lithium battery is manufactured, because the data indicators of a single battery are not completely consistent, this requires Classify the batteries according to a certain performance level and use them in groups to achieve the best use effect; in the grading process of lithium batteries, manual grading or semi-automatic mechanical grading is often used for the grading of battery management containers, which is not only inefficient, but also requires There are a lot of workers, and it is prone to grading errors such as omission and wrong classification, which will bring losses to the quality of battery pack applications and sales; and the current semi-automatic machinery for battery grading of battery management containers requires manual picking, large errors, and high quality and efficiency of grading. Due to the large human factors of workers, it is not suitable for large-scale production needs; some foreign automatic grading equipment mostly uses multiple manipulators to pick one by one. Falling from the manipulator, there is a danger of falling the battery, the cost of the equipment is high, and the processing accuracy of the equipment components is high.

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