would allow me to refine the terminology and technical sections for you.
| Challenge | Conventional LIBs | What Researchers Want | |-----------|-------------------|-----------------------| | | 150–250 Wh kg⁻¹ (theoretical 375 Wh kg⁻¹) | > 400 Wh kg⁻¹ | | Charge‑rate performance | 1 C–3 C (full charge in 20–60 min) | > 10 C (full charge < 6 min) | | Safety & lifespan | Thermal runaway at > 4.2 V; capacity fade 20 % after 500 cycles | Stable > 4.5 V, > 2 000 cycles with < 5 % fade | HMN-372
| Metric | HMN‑372 Cell (3 Ah) | Conventional NCM‑811 Cell | % Improvement | |--------|-------------------|---------------------------|---------------| | | 420 Wh kg⁻¹ | 230 Wh kg⁻¹ | + 83 % | | Specific power | 12 kW kg⁻¹ (0.5 C → 30 min) | 3.5 kW kg⁻¹ (1 C) | + 240 % | | Cycle life (0.2 C‑5 C) @ 45 °C | 2 200 cycles, 4.7 % fade | 800 cycles, 18 % fade | + 175 % | | Thermal stability | No exothermic runaway up to 4.6 V (ΔT < 5 °C) | Onset of thermal runaway at 4.3 V (ΔT ≈ 30 °C) | + 70 % safety margin | | Self‑discharge | < 10 mV/day (≈ 0.02 %/month) | 30 mV/day (≈ 0.1 %/month) | - 66 % | would allow me to refine the terminology and
The resulting material is (Hybrid‑Material‑Nanocomposite, batch number 372). It is not merely a mixture; it is a continuously interwoven 3‑D network where electrons, lithium ions, and mechanical strain all travel through separate, yet mutually supportive, pathways. 10 C (full charge <