The LSPatch modules developed in 2021 have demonstrated significant advancements in image restoration tasks. The improved LSPatch algorithms, deep learning-based LSPatch modules, and application-specific LSPatch modules have shown improved restoration quality, efficiency, and applicability. This paper provides a comprehensive review of these modules, highlighting their key features, advantages, and limitations. Future research directions include the development of more efficient and robust LSPatch algorithms, as well as the integration of LSPatch with other image processing techniques.
[1] [Insert references cited in the paper] lspatch modules 2021
| Module | Restoration Quality | Processing Time | Applicability | | --- | --- | --- | --- | | LSPatch+ | High | Fast | General | | MS-LSPatch | High | Medium | General | | DeepLSPatch | State-of-the-art | Fast | General | | LSPatch-Net | State-of-the-art | Fast | General | | LSPatch-MID | High | Medium | Medical image denoising | | LSPatch-IDB | High | Medium | Image deblurring | The LSPatch modules developed in 2021 have demonstrated
In recent years, several modules have been developed to enhance the performance and applicability of LSPatch. These modules aim to improve the algorithm's efficiency, robustness, and flexibility, enabling it to handle a wider range of image restoration tasks. This paper reviews the LSPatch modules developed in 2021, highlighting their key features, advantages, and limitations. Future research directions include the development of more
The LSPatch modules developed in 2021 have shown significant improvements in terms of restoration quality, efficiency, and applicability. A comparison of the modules is presented in Table 1.