Abstract
The chapter is devoted to computational methods for evaluation the indicators of the tissue regeneration process using as an example the medical data of mesh nickelide titanium implants obtained during clinical experiment. Processing and analysis of scanning electron microscopy and classical histological data are performed using a set of algorithms and their modifications, which allows simplify the data analysis procedure and improve the accuracy of estimates (15–20%). The proposed technique as a computational toolkit for analyzing the dynamics of the process under study, as well as. For highlighting the internal geometric features of the experimental images of objects of interest contains algorithms of shearlet and wavelet transforms and the algorithms for elastic maps generation with color coding, which allows to obtain more representative visualization of spatial data. An important aspect of the proposed methodology is a use of brightness correction by algorithm based on Retinex technology. It allows to obtain unified average brightness of analyzed images and, in some cases, increase local contrast, as a result it affects the quality of application of the computer-based evaluation tools offered in the work. Thus, the estimation errors are reduced by 1–5% in compared to processing without brightness correction.
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Zotin, A., Simonov, K., Kapsargin, F., Cherepanova, T., Kruglyakov, A. (2020). Tissue Germination Evaluation on Implants Based on Shearlet Transform and Color Coding. In: Favorskaya, M., Jain, L. (eds) Computer Vision in Advanced Control Systems-5. Intelligent Systems Reference Library, vol 175. Springer, Cham. https://doi.org/10.1007/978-3-030-33795-7_9
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