AI Companion Robot

The global companion robot market is experiencing explosive growth, with the market size projected to reach $3.81 billion by 2032. Companion robots are becoming more emotionally engaging, with richer movements and more compact designs. This trend exposes robots to extremely complex “multimodal power load” scenarios: after prolonged standby or low-power voice interactions, a robot may suddenly turn, stand up, jump, or perform complex gestures, causing multiple motors to activate simultaneously and triggering an instantaneous surge of extremely high peak current.

To ensure the safety and smooth interaction of AI companion robots across all scenarios, hardware engineers must overcome the limitations of traditional prismatic batteries when selecting batteries:

Exceptional instantaneous peak current tolerance: The battery must effortlessly handle high-load moments such as motor startup and posture recovery, ensuring voltage remains stable during high-current discharge and preventing system reboots.

Extremely low internal resistance and excellent thermal behavior: Low internal resistance not only reduces energy loss within the battery but also significantly suppresses heat generation during high-current discharge, extending the product's service life.

Efficient utilization of irregular spaces: The internal spaces of anthropomorphic or object-inspired robots (such as bionic pets) are highly constrained and irregular. Traditional off-the-shelf batteries create numerous dead zones, so custom-shaped or ultra-thin pouch batteries must be used to maximize every millimeter of space.

Stringent safety standards for children and the elderly: Since the product comes into frequent contact with the human body, including situations where children may drop or throw it, or the elderly may keep it close to their bodies for extended periods. the battery must feature extremely high thermal stability, short-circuit protection, and resistance to external impacts.

Communicative Smart BMS Power Management: The Battery Management System (BMS) must be capable of real-time communication with the robot’s main controller, providing precise estimates of State of Charge (SOC) and State of Health (SOH), and supporting intelligent low-battery strategies (such as alerting the user, reducing movement range, and automatically locating a charging station to recharge).

1. Custom-Shaped Battery Capabilities 

We can customize cell shapes to fit the internal space of desktop robots, improving space utilization and minimizing structural compromises.

2. Stable Output from Compact Batteries 

Suitable for complex load scenarios such as servos, motors, screens, speakers, cameras, and wireless modules.

3. One-Stop Service from Cells to Battery Packs 

Covers cells, protection boards, BMS, wiring harnesses, connectors, NTCs, enclosures, and certification support.

4. Support for the Entire Robot Development Process 

From concept design, EVT, DVT, and PVT through to mass production, we assist customers in optimizing battery size, capacity, temperature rise, safety, and consistency.

5. Safety Support for Export Markets 

We assist customers in preparing transportation, safety compliance, and export-related documentation according to the requirements of their target markets.