Heteroatom-Doped Graphdiyne Enables Ferromagnetism of Carbon
Abstract
The rise and prosperity of graphdiyne have enriched the family of carbon materials.(1−4) As a carbon semiconductor material, its direct band gap, highly conjugated structure, and impressive intrinsic mobility are attractive features that give potential to various applications such as energy conversion and storage and spin transistors. The rapid development and broad application of graphdiyne materials have driven the exploration of its intrinsic properties and of regulating methods for its functional integration. Li and co-workers have developed an atomic-level functionalization strategy to introduce different light elements ...
View more >The rise and prosperity of graphdiyne have enriched the family of carbon materials.(1−4) As a carbon semiconductor material, its direct band gap, highly conjugated structure, and impressive intrinsic mobility are attractive features that give potential to various applications such as energy conversion and storage and spin transistors. The rapid development and broad application of graphdiyne materials have driven the exploration of its intrinsic properties and of regulating methods for its functional integration. Li and co-workers have developed an atomic-level functionalization strategy to introduce different light elements into graphdiyne to achieve a ferromagnetic semiconductor.(1) This work, like the construction of a pyramid (as shown in Figure 1a), is indispensable and precisely establishes the relationship between chemical doping and physical property control. It provides the fundamental understanding of graphdiyne’s ferromagnetic origin.
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View more >The rise and prosperity of graphdiyne have enriched the family of carbon materials.(1−4) As a carbon semiconductor material, its direct band gap, highly conjugated structure, and impressive intrinsic mobility are attractive features that give potential to various applications such as energy conversion and storage and spin transistors. The rapid development and broad application of graphdiyne materials have driven the exploration of its intrinsic properties and of regulating methods for its functional integration. Li and co-workers have developed an atomic-level functionalization strategy to introduce different light elements into graphdiyne to achieve a ferromagnetic semiconductor.(1) This work, like the construction of a pyramid (as shown in Figure 1a), is indispensable and precisely establishes the relationship between chemical doping and physical property control. It provides the fundamental understanding of graphdiyne’s ferromagnetic origin.
View less >
Journal Title
ACS Central Science
Volume
6
Issue
6
Copyright Statement
© 2020 American Chemical Society. This is an open access article published under an ACS AuthorChoice License, which permits
copying and redistribution of the article or any adaptations for non-commercial purposes.
Subject
Chemical Sciences
Science & Technology
Physical Sciences
Chemistry, Multidisciplinary
Chemistry