Modeling Biosilicification at Subcellular Scales
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| Publication date | 2013 |
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| Book title | Biomedical Inorganic Polymers |
| Book subtitle | Bioactivity and Applications of Natural and Synthetic Polymeric Inorganic Molecules |
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| Series | Progress in molecular and subcellular biology |
| Pages (from-to) | 117-141 |
| Publisher | Heidelberg: Springer |
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| Abstract |
Biosilicification occurs in many organisms. Sponges and diatoms are major examples of them. In this chapter, we introduce a modeling approach that describes several biological mechanisms controlling silicification. Modeling biosilicification is a typical multiscale problem where processes at very different temporal and spatial scales need to be coupled: processes at the molecular level, physiological processes at the subcellular and cellular level, etc. In biosilicification morphology plays a fundamental role, and a spatiotemporal model is required. In the case of sponges, a particle simulation based on diffusion-limited aggregation is presented here. This model can describe fractal properties of silica aggregates in first steps of deposition on an organic template. In the case of diatoms, a reaction–diffusion model is introduced which can describe the concentrations of chemical components and has the possibility to include polymerization chain of reactions.
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| Document type | Chapter |
| Language | English |
| Published at | https://doi.org/10.1007/978-3-642-41004-8_5 |
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