True 3-D displays for avionics and mission crewstations
Elizabeth A. Sholler, Frederick M. Meyer, et al.
SPIE AeroSense 1997
The Fe/MoS2(0001) interface has been studied by high-resolution photoelectron spectroscopy using synchrotron radiation. The evolution of the Mo3d, Fe3p, and S2p core levels and of the valence band spectra (hν = 152 eV) during growth of vapor-deposited Fe films (1-10 Å) indicates the production of sulfur vacancy defects in the MoS2(0001) surface. Several submonolayer sulfur surface species were formed, including sulfur adsorbed on the Fe surface and a reacted Fe-S species. The MoS2 surface was found to be covered for Fe film thicknesses of ~10 Å. Annealing a 10 Å film to 600 K resulted in the Fe film beginning to agglomerate, while annealing to 700-900 K resulted in further agglomeration of the Fe film. Annealing to 700-900 K also resulted in reformation of a partially disordered MoS2(0001)-1 × 1 surface with ~5% defects, as determined from photoelectron spectroscopy and low-energy electron diffraction. The overlayer film remained primarily in the form of metallic Fe, before and after annealing to temperatures ≲ 900 K, which was shown by the behavior of the Fe3p core level spectra and valence band spectra. Annealing the sample to 1200 K resulted in decomposition of the MoS2(0001) surface. The results indicate that the Fe/MoS2(0001) system exhibits some interfacial reactivity but does not form bulk Fe-S compounds. The results have been compared to those of previous studies of the Fe/MoS2(0001) system. © 1989.
Elizabeth A. Sholler, Frederick M. Meyer, et al.
SPIE AeroSense 1997
S. Cohen, J.C. Liu, et al.
MRS Spring Meeting 1999
Joy Y. Cheng, Daniel P. Sanders, et al.
SPIE Advanced Lithography 2008
S.F. Fan, W.B. Yun, et al.
Proceedings of SPIE 1989