“As burning rate catalyst in rocket propellant. It can greatly improve the homogeneous propellant burning rate, lower pressure index, and also perform better as a catalyst for the AP composite propellant
Can be applied to the catalyst, superconducting materials, thermoelectric materials, sensing materials, glass, ceramics and other fields
As ceramic resistors, magnetic storage media, gas sensors, near-infrared tilters, photoconductive and photothermal applications
As semiconductors, solar energy transformation, and high-tech superconductors.”
| Cas number | 1317-38-0 |
|---|---|
| Empirical formula | CuO |
| Molecular weight | 79.545 g/mol |
| Average particle size | ~250 nm |
| Purity | >99% |
| Appearance | Black Powder |
| Morphology | Urchin like nanostructures |
| Bulk density | ~0.80 g/cm3 |
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“As burning rate catalyst in rocket propellant. It can greatly improve the homogeneous propellant burning rate, lower pressure index, and also perform better as a catalyst for the AP composite propellant
Can be applied to the catalyst, superconducting materials, thermoelectric materials, sensing materials, glass, ceramics and other fields
As ceramic resistors, magnetic storage media, gas sensors, near-infrared tilters, photoconductive and photothermal applications
As semiconductors, solar energy transformation, and high-tech superconductors.”
“As burning rate catalyst in rocket propellant. It can greatly improve the homogeneous propellant burning rate, lower pressure index, and also perform better as a catalyst for the AP composite propellant
Can be applied to the catalyst, superconducting materials, thermoelectric materials, sensing materials, glass, ceramics and other fields
As ceramic resistors, magnetic storage media, gas sensors, near-infrared tilters, photoconductive and photothermal applications
As semiconductors, solar energy transformation, and high-tech superconductors.”
