Diatom Morphogenesis. Группа авторов
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8. To understand the relationships of frustule elements and the inner ultrastructure of a given valve, or girdle bands, FIB-SEM should be considered (see example in Figure 1.6). For more advanced understanding, one of the methods mentioned for 3D reconstruction should be used [1.41] such as the 3D reconstruction of the 2D image series resulting from FIB-SEM. Through these techniques, a clear understanding of, for example, the multilayer nature of the valve could be obtained.
Afterward, all the ultrastructure details from inside and outside become well-known.
1.4 Conclusion
Diatom morphology could be an interesting topic for students; however, many challenges in the field usually keep them away from getting a deeper understanding. This is a major opportunity, since only 15,000–20,000 species have been identified [1.46], out of very large number of extant and fossil species. Recently, the developed tools, especially AFM and FIB-SEM, can make the complex 3D ultrastructure of diatoms more accessible; however, very few attempts have been recorded in literature. For both the beginners and professionals, many unrevealed secrets of diatom morphology and morphogenesis are still kept hidden, which needs more progress in the field. The study of diatom morphology could also inspire material scientists and engineers especially as the functions beyond morphology are revealed. A comprehensive tutorial suitable for different specialists could be helpful to put the beginners on the right track. Here, we only provided a potential introduction for such tutorial.
Acknowledgements
We would like to express our gratitude to the editors for their understanding and help; we are grateful for the meaningful suggestions of reviewers. KMM’s work on this project was supported by funding from EPD, State of Georgia, USA. MG is very grateful to Dr. Mary Ann Tiffany for giving him the micrographs in Figure 1.1.
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