[Application Scenarios] Why are standard lithium batteries unsuitable for ships and public spaces?

For ships and public spaces, the primary requirement for battery systems is not energy density, but rather the safety margin and risk controllability. In these scenarios, the consequences of a battery accident can rarely be mitigated through simple evacuation or rapid replacement.

The marine environment is inherently characterized by high humidity, salt spray, vibration, and confined spaces. Any thermal runaway or fire can quickly escalate into a systemic risk. Public spaces share similar vulnerabilities; they are densely populated and operate continuously, leaving virtually zero tolerance for unexpected incidents.

Standard lithium batteries typically rely on Battery Management Systems (BMS) and peripheral protection to mitigate risks. However, such measures are largely reactive rather than eliminating hazards at the material level. Once internal anomalies occur, electronic protection cannot completely prevent thermal runaway.

The advantage of LYP batteries lies in their intrinsic safety design, ensuring they do not enter an uncontrollable state even under abnormal conditions. This makes them particularly well-suited for zero-tolerance applications such as marine environments, electric transportation, and public facilities, providing system designers with a greater safety margin.