LSM 5 EXCITER - Carl Zeiss

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Polymers Comprehensive, In-Depth Characterization Polymer research and the plastics industry are another field for the LSM 5 EXCITER to prove its excellence – no matter whether the job is the surface analysis of soft, light-weight plastics, or the failure analysis of new materials with complex microstructures and chemical compositions. Multimode analysis of blended and composite materials Use the reflection mode of the LSM 5 EXCITER for non-destructive determination of the roughness parameters of soft plastic foils or the porosity of foamed materials. Observe mixing and unmixing processes in polymeric blends in 4D with the time-lapse facility. Use volume rendering or transparent projection in the fluorescence mode for artefact-free visualization of the spatial distribution of pigments or fillers. Or employ polarization to optically evaluate stress states and stress propagation at fiber-matrix interfaces in tensile stress tests. Flaws under the surface Novel fiber-reinforced materials with outstanding strength and rigidity have become established in the motor and aerospace industries. Where matrix materials are transparent, it is no problem for the LSM 5 EXCITER to see defects and inhomogeneities deep below the surface. The instrument’s auto-Z correction facility reliably detects shrink cavities, pores and inclusions. The distribution, orientation and surface condition of the embedded fiber bundles. Fabrics or fleeces made of coated microfibers. Use the StitchArt plus option to acquire reflected-light images that combine large-area overview with high resolution. 1 Microfiber fabric. 3D shadow projection. Epiplan-Neofluar 20x/0.5; 651.5 µm x 651.5 µm x 304.7 µm, 512 x 512 pixels x 110 sections. 1 2 Multilayer polymer foil (region of interest). 3D shadow projection. Epiplan-Neofluar 50x/0.8; 60.4 µm x 60.4 µm x 13.8 µm, 511 x 511 pixels x 83 sections. 3 Bicontinuous PB/DPB polymer blend (PB fluorescence-labeled, region of interest). 3D shadow projection. C-Apochromat 40x/1.2 W; 187.5 µm x 187.5 µm x 49.5 µm, 300 x 300 pixels x 99 sections. Sample and measurement: Prof. Jinnai, Kyoto Institute of Technology, Kyoto, Japan 18
Porous foamed plastic. 3D shadow projection. Plan-Neofluar 10x/0.3; 1303.0 µm x 1303.0 µm x 698.6 µm, 512 x 512 pixels x 90 sections. 2 3 19
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LSM 5 EXCITER - Carl Zeiss

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