Sub-micrometre-scale 3D Chemical Characterization of Organic and Biological Materials
Novel technologies and measurement methods are developed to improve the quality and robustness of sub-micrometre-scale in-depth and 3D chemical characterization of soft organic and bio-materials. Piezo-motor-driven cryo-microtome modules to be operated inside a ToF-SIMS instrument and capable to perform in-situ consecutive layer-by-layer slicing of soft materials is designed. In parallel, the "standard" sputtering technique is refined. The complementarity of both techniques is evaluated via the study of two target systems: organic light-emitting device and collagen-based materials (see more).
Contact info: Dr. L. Bernard (email@example.com), Dr. Rowena Crockett (firstname.lastname@example.org)
Metro4-3D - Metrology for future 3D-technologies
As follow-up of the 3D NanoChemiscope project (see below), the Empa team here coordinates the development of novel operation modes and functionalities of the combined ToF-SIMS / SFM instrument. Novel data analysis routes are also developed to combine SFM and ToF-SIMS data, in order to achieve 2D and 3D chemical mapping with nanometre-scale lateral resolution (see more).
Contact info: Dr. L. Bernard (email@example.com), Dr. O. Scholder (firstname.lastname@example.org)
TISBA - Tailored Interface for Structural Bonding of Aluminum (completed 2017)
Ar-cluster as Primary Ion Source in ToF-SIMS (completed 2015)
This CCMX-funded project in collaboration with the German company IONTOF aimed at studying the effect of Ar-cluster sputtering on materials surface roughening via scanning force microscopy (see more).
3D NanoChemiscope (completed 2013)
A combined ToF-SIMS / SFM instrument was jointly developed, built and tested in the framework of an FP7 European commission Program by Empa, the German company ION-TOF (world leader in ToF-SIMS technology) and 6 additional European partners, with the goal to permit 3D materials characterization with direct measurement of the structural, physical and chemical sample properties on a local scale (see more).
Contact info: Prof. Dr. Hans J. Hug (email@example.com), Dr. Laetitia Bernard (firstname.lastname@example.org)