TY - JOUR
T1 - One-step synthesis of graphene containing topological defects
AU - Klein, Benedikt P.
AU - Stoodley, Matthew A.
AU - Deyerling, Joel
AU - Rochford, Luke A.
AU - Morgan, Dylan B.
AU - Hopkinson, David
AU - Sullivan-Allsop, Sam
AU - Thake, Henry
AU - Eratam, Fulden
AU - Sattler, Lars
AU - Weber, Sebastian M.
AU - Hilt, Gerhard
AU - Generalov, Alexander
AU - Preobrajenski, Alexei
AU - Liddy, Thomas
AU - Williams, Leon B.S.
AU - Buchan, Mhairi A.
AU - Rance, Graham A.
AU - Lee, Tien Lin
AU - Saywell, Alex
AU - Gorbachev, Roman
AU - Haigh, Sarah J.
AU - Allen, Christopher S.
AU - Auwärter, Willi
AU - Maurer, Reinhard J.
AU - Duncan, David A.
N1 - Publisher Copyright:
© 2025 The Royal Society of Chemistry.
PY - 2025
Y1 - 2025
N2 - Chemical vapour deposition enables large-domain growth of ideal graphene, yet many applications of graphene require the controlled inclusion of specific defects. We present a one-step chemical vapour deposition procedure aimed at retaining the precursor topology when incorporated into the grown carbonaceous film. When azupyrene, the molecular analogue of the Stone-Wales defect in graphene, is used as a precursor, carbonaceous monolayers with a range of morphologies are produced as a function of the copper substrate growth temperature. The higher the substrate temperature during deposition, the closer the resulting monolayer is to ideal graphene. Analysis, with a set of complementary materials characterisation techniques, reveals morphological changes closely correlated with changes in the atomic adsorption heights, network topology, and concentration of 5-/7-membered carbon rings. The engineered defective carbon monolayers can be transferred to different substrates, potentially enabling applications in nanoelectronics, sensorics, and catalysis.
AB - Chemical vapour deposition enables large-domain growth of ideal graphene, yet many applications of graphene require the controlled inclusion of specific defects. We present a one-step chemical vapour deposition procedure aimed at retaining the precursor topology when incorporated into the grown carbonaceous film. When azupyrene, the molecular analogue of the Stone-Wales defect in graphene, is used as a precursor, carbonaceous monolayers with a range of morphologies are produced as a function of the copper substrate growth temperature. The higher the substrate temperature during deposition, the closer the resulting monolayer is to ideal graphene. Analysis, with a set of complementary materials characterisation techniques, reveals morphological changes closely correlated with changes in the atomic adsorption heights, network topology, and concentration of 5-/7-membered carbon rings. The engineered defective carbon monolayers can be transferred to different substrates, potentially enabling applications in nanoelectronics, sensorics, and catalysis.
UR - https://www.scopus.com/pages/publications/105018709280
U2 - 10.1039/d5sc03699b
DO - 10.1039/d5sc03699b
M3 - Article
AN - SCOPUS:105018709280
SN - 2041-6520
JO - Chemical Science
JF - Chemical Science
ER -