Philippi, B.; Kirchlechner, C.; Micha, J.-S.; Dehm, G.: Size and orientation dependent mechanical behavior of body-centered tetragonal Sn at 0.6 of the melting temperature. Acta Materialia 115, pp. 76 - 82 (2016)
Imrich, P. J.; Kirchlechner, C.; Dehm, G.: Influence of inclined twin boundaries on the deformation behavior of Cu micropillars. Materials Science and Engineering A: Structural Materials Properties Microstructure and Processing 642, pp. 65 - 70 (2015)
Imrich, P. J.; Kirchlechner, C.; Kiener, D.; Dehm, G.: In situ TEM microcompression of single and bicrystalline samples: insights and limitations. JOM-Journal of the Minerals Metals & Materials Society 67 (8), pp. 1704 - 1712 (2015)
Imrich, P. J.; Kirchlechner, C.; Kiener, D.; Dehm, G.: Internal and external stresses: in situ TEM compression of Cu bicrystals containing a twin boundary. Scripta Materialia 100, pp. 94 - 97 (2015)
Kapp, M. W.; Kapp, M. W.; Kirchlechner, C.; Pippan, R.; Dehm, G.: Importance of dislocations pile-ups on the mechanical properties and the Bauschinger effect in micro cantilevers. Journal of Materials Research 30 (6), pp. 791 - 797 (2015)
Jaya, B. N.; Kirchlechner, C.; Dehm, G.: Can micro-scale fracture tests provide reliable fracture toughness values? A case study in silicon. Journal of Materials Research 30 (5), pp. 686 - 698 (2015)
The aim of this project is to correlate the point defect structure of Fe1-xO to its mechanical, electrical and catalytic properties. Systematic stoichiometric variation of magnetron-sputtered Fe1-xO thin films are investigated regarding structural analysis by transition electron microscopy (TEM) and spectroscopy methods, which can reveal the defect…
The aim of this project is to develop novel nanostructured Fe-Co-Ti-X (X = Si, Ge, Sn) compositionally complex alloys (CCAs) with adjustable magnetic properties by tailoring microstructure and phase constituents through compositional and process tuning. The key aspect of this work is to build a fundamental understanding of the correlation between…
The aim of the Additive micromanufacturing (AMMicro) project is to fabricate advanced multimaterial/multiphase MEMS devices with superior impact-resistance and self-damage sensing mechanisms.