| This glass-ceramic material is fast, Lithium-ionic conducting solid electrolyte. By applying OHARA's manufacturing technology for accumulating optical glass and glass-ceramics, lithium-ionic conducting glass-ceramic with superior performance was achieved. This glass-ceramic has good chemical resistance, and again, is suitable for various solid electrolytes, since it has practical ionic conductivity. |
|
 |
Advantages
High Lithium-ionic Conductivity:
Lithium-ionic conductivity is higher than 10-1S.m-1(10-3S.m-1) at the room temperature. This value is one of highest conductivity for a solid electrolyte. The ionic conductivity obey on Arrhernius-type equation. (See figure)
Prominent Chemical Properties:
This glass-ceramics has good chemical resistance. In addition, Lithium-ionic conductivity is not influence against water and acid.
Properties
Electrical Properties (Plate, Powder) | Lithium-ionic Conductivity (102S·m-1=S·cm-1) | -50°C | 1.8×10-5 (Powder) |
| 25°C | 1.2×10-3 (Powder) |
1.0×10-4 (Plate) |
| 500°C | 2.0×10-1 (Plate) |
Thermal Properties (Plate) | Thermal Expansion Coefficient α(10-7/K) | 30~350°C | 94 |
| 350~600°C | 82 |
Mechanical Properties (Plate) | Bending Strength (N/mm2) | 140 |
| Knoop Hardness (Hk) | 590 |
| Specific Gravity | 3.05 |
Chemical Properties (Plate, Powder) | Water Resistance (Powder) RW(P) | 1 |
| Acid Resistance (Powder) RA(P) | 1 |
·Specification subject to change along development.
·Mechanical properties are measured at room temperature except for CTE.
Available Size
Plate: 1×1 inch Thickness 0.3~2.0mm
Powder: Average of grain size 1~10μm(D=50)
Please feel free to contact us if you have any questions.
Lithium-ionic Conductivity