Custom LiPo Battery Pack Manufacturer

To design a custom LiPo battery pack, engineers usually need the required voltage, capacity, battery dimensions, continuous and peak discharge current, charging method, operating temperature, connector type, wire length, protection requirements, application details, and estimated annual quantity.

For the most accurate battery design, it is helpful to provide the device power consumption, available battery space, expected runtime, charging conditions, and any certification requirements. These details allow the battery pack to be designed around the real electrical and mechanical needs of the product.

The correct LiPo battery voltage depends on the input voltage range of the device. A single LiPo cell normally has a nominal voltage of 3.7V and a full charge voltage of 4.2V.

Common LiPo pack configurations include 1S 3.7V, 2S 7.4V, 3S 11.1V, 4S 14.8V, 6S 22.2V, and 8S 29.6V. For motors, controllers, medical devices, IoT equipment, and portable electronics, the pack voltage should be selected according to the device power system and allowed voltage range.

LiPo battery capacity is calculated from the device power consumption and required operating time. A basic formula is:

Capacity (Ah) = Power consumption (W) × Runtime (h) ÷ Battery voltage (V)

For example, if a device consumes 10W and needs to operate for 5 hours at 3.7V, the required capacity is about 13.5Ah. In real pack design, engineers also add margin for discharge efficiency, temperature conditions, peak current, battery aging, and the actual cut-off voltage of the device.

A LiPo cell is a single lithium polymer pouch cell. A LiPo battery pack is a complete battery assembly designed for a specific device.

A LiPo battery pack may include one or more cells in series or parallel, a PCM or BMS protection circuit, wires, connectors, insulation materials, labels, and sometimes an enclosure or mechanical support. The cell provides the energy source, while the pack is engineered to match the voltage, current, safety, size, and installation requirements of the final product.

Yes. Flexible pouch construction is one of the main advantages of LiPo batteries. Compared with cylindrical cells, LiPo pouch cells can be customized in length, width, thickness, shape, cable exit direction, and connector position.

This makes custom LiPo batteries suitable for compact or space-limited products such as wearable devices, GPS trackers, IoT sensors, medical equipment, smart home devices, handheld instruments, and portable electronics.

LiPo battery packs can be assembled with different connectors according to the device design. Common connector options include JST, Molex, Hirose, PH, XH, micro connectors, and custom wiring harnesses.

Connector selection depends on the current requirement, available installation space, polarity, mating frequency, cable length, and terminal position. For custom battery packs, the connector and wire layout should be confirmed together with the mechanical structure of the device.

Most LiPo battery packs need a protection circuit. A PCM or BMS helps protect the pack from overcharge, over-discharge, over-current, short circuit, and abnormal temperature conditions.

For small 1S or 2S packs, a PCM is commonly used. For higher-voltage or higher-power LiPo battery packs, a BMS may be required, especially when cell balancing, temperature monitoring, or communication functions such as CAN, RS485, SMBus, or Bluetooth are needed.

The output current of a LiPo battery pack depends on the cell capacity, C-rate, cell chemistry, number of cells in parallel, temperature conditions, wire gauge, connector rating, and protection circuit design.

For example, a 5000mAh LiPo cell rated at 1C can normally provide 5A continuous current, while a high-rate LiPo cell can provide much higher current for drones, robotics, RC models, and power tools. Pack design should always consider both continuous current and short peak current to reduce voltage drop, heat generation, and premature cell aging.

The service life of a LiPo battery pack depends on how it is charged, discharged, stored, and used. Key factors include depth of discharge, charge voltage, charge current, discharge rate, operating temperature, storage state of charge, and mechanical protection.

Under proper use, a quality LiPo battery pack can typically provide hundreds of charge and discharge cycles. The actual cycle life should be evaluated according to the battery cell type, pack design, working current, temperature profile, and end-product requirements.

Yes. LiPo batteries are widely used in drones and robotics because they offer high energy density, lightweight structure, flexible pack design, and strong discharge capability.

For drones and robotic systems, engineers usually focus on pack weight, peak current, continuous current, runtime, voltage stability, battery dimensions, connector compatibility, and safety protection. A custom LiPo battery pack can be designed according to the motor power, controller specification, installation space, and operating environment.