This search combines search strings from the content search (i.e. "Full Text", "Author", "Title", "Abstract", or "Keywords") with "Article Type" and "Publication Date Range" using the AND operator.
Beilstein J. Nanotechnol. 2025, 16, 2132–2143, doi:10.3762/bjnano.16.147
Figure 1: Modeling of graphite and h-BN. (a) Unit cell of graphite, (b) DOS of graphite, (c) band structure o...
Figure 2: Modeling of graphite and h-BN with Stone–Wales defect. (a) Unit cell of defective graphite, (b) DOS...
Figure 3: Modeling of N-doped graphite. (a) Unit cell of N-doped graphite, (b) band structure of N-doped grap...
Figure 4: Geometry of Pt/graphene/Pt junctions with (a) one layer, (b) two layers, (c) three layers, (d) four...
Figure 5: Geometry of Pt/h-BN/Pt junctions with (a) one layer, (b) two layers, (c) three layers, (d) four lay...
Figure 6: Geometry of Pt/graphene with Stone–Wales defect/Pt junctions with (a) two layers, (b) four layers, ...
Figure 7: Transmission spectra of (a) Pt/graphene/Pt and (b) Pt/graphene with Stone–Wales defect/Pt junctions...
Figure 8: Geometry of Pt/h-BN with Stone–Wales defect/Pt junctions with (a) two layers, (b) four layers, and ...
Figure 9: Geometry of Pt/graphene with N-doping/Pt junctions with (a) two layers, (b) four layers, and (c) si...