77 results about "Battery sizing" patented technology

The utility model discloses a UPS (Uninterrupted Power Supply) battery fixing tray structure which comprises a positioning tray, mounting strips are mounted on the inner walls of the two sides of the positioning tray, a plurality of positioning structures are connected to the two mounting strips, limiting screws and mounting screws are connected to the positioning structures, and adjusting structures are connected to the limiting screws; the positions of the long partition plates can be adjusted by unscrewing the second limiting nuts and rotating the threaded sleeves, the positions of the U-shaped short partition plates can be adjusted when the first limiting nuts are unscrewed, and therefore the distance between the adjacent long partition plates and the U-shaped short partition plates and the size of the space formed between the long partition plates and the U-shaped short partition plates are changed. The positions of the U-shaped short partition plates and the long partition plates can be adjusted according to the sizes of the placed UPS batteries, it is ensured that the U-shaped short partition plates and the long partition plates can be attached to the sides of the UPS batteries and limit the positions of the UPS batteries, buffer pads can be arranged on the contact faces of the U-shaped short partition plates and the long partition plates with the batteries, and the UPS batteries are prevented from moving and colliding with one another in the transportation process; therefore, the stability and the safety of the UPS battery during transportation can be improved.

This utility model discloses a battery shock absorption device for RVs, specifically relating to the field of battery technology. It includes a base plate, with support frames fixedly connected to the four corners of the top of the base plate. A connecting plate is fixedly connected to the top of the four support frames. Two square recesses are formed on the top of the connecting plate, and cooling fans are installed on the inner walls of both square recesses. An adjustment component is provided above the base plate, and a fixing component is provided below the connecting plate. This RV battery shock absorption device, through the adjustment component—specifically, by activating a motor to move two sliding plates—allows the device to match the size of the installed RV battery. Users do not need to purchase different shock absorption devices for different battery models, avoiding the cost of repeated purchases and reducing operating costs. Furthermore, the adjustable sliding plates can be flexibly adjusted according to the actual size of the battery, allowing the battery to be easily placed in the shock absorption device.

The utility model relates to a solar photovoltaic support which comprises a photovoltaic supporting beam, a battery bin, a connecting rod and a lamp pole. A battery bin is arranged at the bottom end of the photovoltaic supporting beam and arranged at the top end of the lamp pole through a connecting rod. A battery is arranged in the battery bin, and the battery bin comprises a bin body and two battery bin side plates arranged on the two sides of the bin body. According to the battery compartment, the longer compartment body matched with the size of the battery can be selected according to the size of the battery, and then the compartment body is assembled with the battery compartment side plates on the two sides of the compartment body, so that the adaptability and the universality of the battery compartment for accommodating batteries with different sizes are improved; the battery compartment adopts an assembled structure, so that the adaptability of the battery compartment is greatly improved, and the universality of the bracket is further improved.

This invention discloses a battery leakage detection device and method. In the detection device, an environmental adjustment module adjusts the environment of the detection space. During the environmental adjustment process, an organic volatile matter (EVM) detection module measures the concentration of EVMs within the detection space, while a size detection module measures the size data of the battery under test using the principle of sliding rheostat. A control module is connected to both the EVM detection module and the size detection module. The control module combines the changes in EVM concentration and the changes in the size data of the battery under test during the vacuuming operation to determine the leakage detection result. This combined approach of EVM detection and size detection achieves battery leakage detection. On the one hand, the use of the sliding rheostat principle to measure battery size avoids the influence of air pressure changes on the size of the battery under test; on the other hand, the comprehensive analysis combining the two detection methods improves the reliability of the detection results.