Microscopy Imaging Enhancement

My research on microscopy image enhancement focuses on addressing challenges like noise, blur, and low contrast, which often limit the interpretability of microscopy data. Enhancing microscopy images requires addressing challenges like noise, blur, and limited contrast, which often obscure important details. My work involves designing and evaluating both traditional methods, such as deconvolution and denoising, and modern machine learning techniques to improve image quality. I experiment with approaches like Wiener filtering, Richardson-Lucy deconvolution, and wavelet transformations alongside deep-learning-based denoising and reconstruction methods. By quantitatively assessing improvements using metrics such as PSNR, SSIM, and SNR, I aim to develop robust tools that support researchers in extracting meaningful insights from noisy or degraded data. This research bridges the gap between computational imaging and practical applications, empowering advancements in microscopy-based scientific discovery.

Research Highlights

  • Investigating traditional methods, including Wiener deconvolution, Richardson-Lucy deconvolution, and wavelet-based denoising, to restore degraded images. (Dutta et al., 2024).

  • Developing deep learning-based pipelines for denoising, deblurring, and contrast enhancement, tailored to microscopy data.

  • Degrading images with controlled noise and blur to simulate real-world conditions, allowing for rigorous evaluation of enhancement methods.

  • Quantifying enhancements using metrics such as SNR, SSIM, and PSNR to assess their scientific value and practical relevance.

References

2024

  1. IEEE
    Recent Advancements in Microscopy Image Enhancement using Deep Learning: A Survey
    Debasish Dutta, Neeharika Sonowal, Risheraj Barauh, and 2 more authors
    In 2024 IEEE International Conference on Computer Vision and Machine Intelligence (CVMI), 2024
     10.1109/CVMI61877.2024.10782829
    IEEE Explore