Effect of precursor molecular structure while synthesizing hetero-carbon nanomaterials via solution plasma process
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Solution plasma processes (SPP) have recently attracted significant attention for the synthesis of heterocarbon nanomaterials (HCNs). However, to date, very few studies have reported the control of HCNs structures using SPP. Therefore, the factors affecting the structure of HCNs were investigated using a precursor with a similar molecular structure. In this study, powder X-ray diffraction and Raman spectroscopy results revealed that the nitrogen conjugation in the cyanopyrazine molecular structure could lead to facile crystalline carbon formation compared to the pyrazine precursor.
Abstract
Solution plasma processes (SPP) have recently attracted significant attention for the synthesis of heterocarbon nanomaterials (HCNs). However, to date, very few studies have reported the control of HCNs structures using SPP. Therefore, the factors affecting the structure of HCNs were investigated using a precursor with a similar molecular structure. In this study, powder X-ray diffraction and Raman spectroscopy results revealed that the nitrogen conjugation in the cyanopyrazine molecular structure could lead to facile crystalline carbon formation compared to the pyrazine precursor.
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