Abstract
This study proposes an image acquisition method using scattering parameters based on the evaluation of tissue information in the reflection coefficient curves. An antenna with breast tissue in its mid-field was simulated at millimeter wave frequencies, consecutively for varying tissue types, sizes, and locations. The resulting 3468 reflection coefficient curves |S11| were assessed by Mutual Information and Machine Learning (ML) algorithms. The accuracy of prediction models achieved %96.4 in tissue size, and regression models localized tissues with errors less than their sizes. ML models extracted the tissue information from an |S11| curve, however, the extraction process varied from model to model and was not defined. Considering that the interference phenomenon identifies the relation between tissue and |S11| curve, an interference pattern was created using the |S11| curve. Then, the pattern was assumed as a coefficient matrix of a system of linear equations, where the unknowns were tissue vectors in the radiation field. The solution of this system provided the tissues’ contributions to |S11|. Therefore, a reflection pattern and |S11| curves made image acquisition attainable, and a distinctive method, Reflection Coefficient-based Linear Tomographic Imaging (RC-LTI), was presented for breast cancer detection.
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Güneş, N., Duru, İ. & Tabaru, T.E. A Linear system of reflection coefficients for tomographic imaging of breast cancer. SIViP 19, 167 (2025). https://doi.org/10.1007/s11760-024-03758-1
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DOI: https://doi.org/10.1007/s11760-024-03758-1