作为热离子材料的非晶态金刚石

J. Sung, Ming-Chi Kan, T. Hsiao, Ying-Tung Chen, Michael Sung
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摘要

非晶金刚石本质上是一种具有扭曲sp键和sp键的混沌碳混合物。因此,它既具有导电石墨的金属特性,又具有绝缘金刚石的半导体特性。此外,由于每个碳原子的电子状态都是独一无二的,这是由其化学键的扭曲程度决定的,因此非晶金刚石包含了许多离散的电子势能。事实上,非晶金刚石可能具有最高的原子密度(每立方厘米1.8 × 10),是普通材料的几倍(例如,大约是铁原子或硅原子的四倍)。因此,非晶金刚石的原子和价电子都具有最高的组态熵。非晶金刚石由于具有高密度的离散电子能量分布,具有独特的发电和发射辐射的能力。研究表明,非晶金刚石可以作为无硅太阳能电池、前面板显示场发射源、红外探测灵敏的热感测和能量转换的完美黑体。为了利用非晶金刚石的优异性能,人们正在制作各种非晶金刚石器件。
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Amorphous Diamond as a Thermionic Material
Amorphous diamond is essentially a chaotic carbon mixture with distorted sp and sp bonds. As such it possesses both metallic character of conductive graphite and semiconductor character of insulating diamond. Moreover, as each carbon atom is unique in its electronic state that is determined by the degree of distortion of its bonds, amorphous diamond contains numerous discrete potential energies for electrons. In fact, amorphous diamond may have the highest density of atoms (1.8 × 10 per cubic centimeter) that is several times higher than ordinary materials (e.g. about four times of iron atoms or silicon atoms). Thus, amorphous diamond has the highest configuration entropy for both atoms and valence electrons. Due to the distribution of discrete electronic energies with high density, amorphous diamond is uniquely capable to generate electricity and emit radiation. It has been demonstrated that amorphous diamond can be made as silicon free solar cells, front panel display field emission source, sensitive thermal sensing by IR detection, and perfect black body for energy conversion. Various amorphous diamond devices are being fabricated to exploit the superb properties of amorphous diamond.
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