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LSM 5 EXCITER - Carl Zeiss

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Fluorescence Mode<br />

See Your Samples in a Different Light<br />

The horizons of materials microscopy are broadening. Here is another angle<br />

from which to analyze material properties and defects: In the fluorescence mode,<br />

the <strong>LSM</strong> 5 <strong>EXCITER</strong> delivers unique information that increases your certainty in<br />

assessing the structure and properties of your materials.<br />

Complex materials analysis<br />

Is a material impaired by structural impurities? Does it<br />

change under mechanical loads? Are the constituents of<br />

compositions distributed homogeneously, or are there<br />

phase separations? Questions like these arise in the analysis<br />

of polymers and fiber materials. The <strong>LSM</strong> 5 <strong>EXCITER</strong> working<br />

in the fluorescence mode can answer them exactly. It<br />

visualizes and measures autofluorescent inclusions, phases<br />

or particle aggregations several hundreds of micrometers<br />

deep in a semitransparent matrix.<br />

Unlimited slope angles<br />

The use of fluorescent dyes is helpful also in the visualization<br />

and analysis of holes and crack patterns. Unlike in the<br />

reflection mode, the image will show any slope angle up<br />

to 90°.<br />

Multifluorescence in biomaterials<br />

Biomaterials play a growing part in basic research and<br />

industry. Bioactive materials are being developed for medical<br />

and dental use; neuro- and protein chips interface<br />

information processing with biotechnologies. Where cell<br />

aggregates and tissues in contact with inorganic materials<br />

are investigated, multiple fluorescence experiments with<br />

the <strong>LSM</strong> 5 <strong>EXCITER</strong> supply substantial information that is<br />

difficult or impossible to extract by other microscopic techniques.<br />

Front end of a polymeric optical fiber.<br />

Fluorescence excitation at 633 nm.<br />

3D shadow projections, rotated by 40° each.<br />

Plan-Neofluar 10x/0.3;<br />

1302.7 µm x 1302.7 µm x 1184.0 µm, 512 x 512 pixels x 161 sections.<br />

Sample: Prof. Hartl, Prof. Dr. Poisel, Mr. Förster, Department EFI,<br />

Georg-Simon-Ohm University of Applied Sciences, Nürnberg, Germany<br />

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