Nanometer Recording on Graphite and Si Substrate Using an Atomic Force Microscope in Air
- 1 March 1993
- journal article
- Published by IOP Publishing in Japanese Journal of Applied Physics
- Vol. 32 (3B) , L464-467
- https://doi.org/10.1143/jjap.32.l464
Abstract
Nanometer recording has been demonstrated with tens nanometer diameter pits and gold mounds formed on graphite and Si substrate using an atomic force microscope at atmospheric pressure. The probe is prepared by means of coating thin gold film on an SiO2 birdbeak-type cantilever probe, fabricated by a Si microprocess. Applications of voltage pulses between the probe and the graphite make about 10-nm diameter pits and Au mounds. Furthermore, about 50-nm to 30-nm diameter Au mound formations on Si wafer covered with natural silicon oxide are also demonstrated. The results indicate that the technique has potentials to achieve Tera-bit/in2 highly packed storage in air, and directly to write nanometer sized patterns on an insulating thin film.Keywords
This publication has 14 references indexed in Scilit:
- Conductance Oscillations in a Quantum Wire with a Stub Structure due to Quantum InterferenceJapanese Journal of Applied Physics, 1992
- Surface modification of MoS2 using an STMApplied Surface Science, 1992
- Atomic emission from a gold scanning-tunneling-microscope tipPhysical Review Letters, 1990
- Nanometre-scale chemical modification using a scanning tunnelling microscopeNature, 1990
- Making a Monolayer Hole in a Graphite Surface by Means of a Scanning Tunneling MicroscopeJapanese Journal of Applied Physics, 1990
- Surface investigations with a combined scanning electron–scanning tunneling microscopeScanning, 1990
- Positioning single atoms with a scanning tunnelling microscopeNature, 1990
- Reactive graphite etch and the structure of an adsorbed organic monolayer—a scanning tunneling microscopy studyJournal of Vacuum Science & Technology A, 1990
- Atomic Force MicroscopePhysical Review Letters, 1986
- 7 × 7 Reconstruction on Si(111) Resolved in Real SpacePhysical Review Letters, 1983