Abstract
In this manuscript, we introduce a total variation to eradicate noise from an image which the Poisson noise has corrupted. This method regulates the total variation in order to preserve edges. Apart from that, it employs the fidelity of the data term that is better suited to the Poisson noise. A diversity of approaches for denoising mammogram pictures has been described, each with its own assumptions, advantages, and limitations. The efficacy of the filters has also been compared using criteria such as MSE and PSNR. Like the Poisson noise, the result of this regularization is also signaling dependent. The design steps include preprocessing. The preprocessing techniques include manual cropping of original mammograms to remove background details, quantum noise reduction, and contrast enhancements. A modified TV-based filter with the Poisson noise adaptation is utilized to reduce quantum noise.
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Tiruwa, S., Yadav, R.B., Singh, N. (2022). Poisson Noise-Adapted Total Variation-Based Filter for Restoration and Enhancement of Mammogram Images. In: Kumar, N., Shahnaz, C., Kumar, K., Abed Mohammed, M., Raw, R.S. (eds) Advance Concepts of Image Processing and Pattern Recognition. Transactions on Computer Systems and Networks. Springer, Singapore. https://doi.org/10.1007/978-981-16-9324-3_10
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