Publications of Martin Gierer

Journal Article (9)

1998
Journal Article
Setzer, C., J. Platen, H. Bludau, M. Gierer, H. Over and K. Jacobi: LEED intensity and surface core level shift analysis ofthe MBE-prepared GaAs (1 ̅1 ̅1 ̅)B(2×2 ) surface. Surface Science 402-404, 782–785 (1998).
1997
Journal Article
Gierer, M., H. Over, P. Rech, E. Schwarz and K. Christmann: The adsorption geometry of the (2 × 1)-2O oxygen phase formed on the Co(101̅0) surface. Surface Science 370 (2-3), L201–L206 (1997).
1996
Journal Article
Gierer, M., H. Bludau, H. Over and G. Ertl: The bending mode vibration of CO on Ru(0001) studied with low-energy electron-diffraction. Surface Science 346 (1-3), 64–72 (1996).
Journal Article
Payne, S.H., H.A. McKay, H.J. Kreuzer, M. Gierer, H. Bludau, H. Over and G. Ertl: Multilayer adsorption and desorption: Cs and Li on Ru(0001). Physical Review B 54 (7), 5073–5080 (1996).
Journal Article
Schwegmann, S., H. Over, M. Gierer and G. Ertl: Initial growth of Mg films on Ru(0001): An efficient approximation scheme for the LEED analysis of incommensurate structures. Physical Review B 53 (16), 11 164–11 169 (1996).
1994
Journal Article
Bludau, H., M. Gierer, H. Over and G. Ertl: A low-energy electron diffraction analysis of the (√3 x √3) R30° structure of molecular nitrogen adsorbed on Ru(0001). Chemical Physics Letters 219 (5-6), 452–456 (1994).
Journal Article
Hertel, T., H. Over, H. Bludau, M. Gierer and G. Ertl: Na adsorption on Ru(0001): a low-energy electron-diffraction analysis of three ordered phases. Surface Science 301 (1-3), 1–10 (1994).
Journal Article
Hertel, T., H. Over, H. Bludau, M. Gierer and G. Ertl: Structural analyses of ordered rubidium phases on Ru(0001) using low-energy electron diffraction. Physical Review B 50 (11), 8126–8129 (1994).
Journal Article
Over, H., M. Gierer, H. Bludau, G. Ertl and S.Y. Tong: Fingerprinting technique in low-energy electron diffraction. Surface Science 314 (2), 243–268 (1994).

Thesis - PhD (1)

1994
Thesis - PhD
Gierer, M.: Analyse von Oberflächenstrukturen mittels Beugung langsamer Elektronen. Freie Universität Berlin
Go to Editor View