TECHNOLOGY

TECHNOLOGY

FAQ

The company's mission is to "promote human health and enhance the world," adhering to its core values of "delivering excellence to customers, empowering employees, rewarding shareholders, benefiting society, harmonizing with nature, and achieving win-win cooperation."
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What are the main advantages of solid-state batteries over traditional lithium-ion batteries?

 

Enerbond solid-state batteries replace liquid electrolytes with solid electrolytes, fundamentally eliminating leakage and flammability risks. Compared to traditional lithium-ion batteries, they offer higher energy density (more capacity in a smaller size), a wider operating temperature range (-40°C to +80°C), and longer cycle life (≥8,000 cycles). Additionally, solid-state batteries eliminate the short-circuit risk caused by lithium dendrite penetration, greatly enhancing safety.

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How does a graphene supercapacitor work, and how is it different from a battery?

A graphene supercapacitor stores energy through electrostatic adsorption of ions rather than chemical reactions, enabling charge/discharge in seconds to minutes with a power density 10–100 times that of conventional batteries. Unlike batteries, supercapacitors excel in high‑power, short‑duration applications (e.g., grid frequency regulation, energy recovery), offer cycle life exceeding 500,000 cycles, and are not degraded by deep charge/discharge. However, they have lower energy density, so Enerbond often combines supercapacitors with solid‑state batteries to meet both energy and power requirements.

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How safe are Enerbond solid-state batteries? Can they experience thermal runaway?

Solid state batteries use a non‑flammable solid electrolyte, eliminating the root cause of thermal runaway at the material level. Even under extreme conditions such as puncture, crushing, overcharge, or high temperature, the battery will not catch fire or explode.

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What is the cycle life of a supercapacitor? Is it suitable for frequent charge/discharge scenarios?

Graphene supercapacitors offer a cycle life exceeding one million cycles, far superior to conventional batteries (typically 5,000–10,000 cycles). They exhibit virtually no performance degradation under frequent, high-current charge/discharge conditions, making them ideal for applications requiring second-to-minute response times, such as regenerative energy recovery, port cranes, primary grid frequency regulation, and UPS systems. In addition, their maintenance-free nature reduces long-term operating costs.