A Unique Approach for Extraction of Images with 4 Amplification Factors Using SR -GAN

Deep neural networks are quicker than super-resolution methods regarding speed and accuracy. Yet, a big chal-lenge persists: addressing turning points when dealing with large objects. The optimization-based methods for super-resolution rely heavily on selection of the loss function. Unfortunately, results often end up noisy and unreliable because they struggle to maintain clarity in higher resolutions. This paper introduces a new adversarial algorithm known as SRGAN. It's designed to decode super-resolution (SR) images. Importantly, SRGAN is recognized as the first framework capable of extracting real images with up to 4x magnification. However, when paradoxical point loss is used for optimization, performance can suffer. The process works by enhancing resolution through mapping outputs to Real-world image space, which involves separate network. This network is optimized to distinguish between the super-resolution and original high-resolution images. Rather than relying solely on pixel spatial similarity, it uses redundancy informed by per-ceptual similarity. This advanced deep network can retrieve high-quality images from extensive public image collections. Through comprehensive Mean Opinion Score (MOS) analysis, it's evident that visibility shows significant improvements when applying SRGAN. The MOS scores achieved by SRGAN are nearly equal to the best results achieved by leading-cdge techniques.

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Publication Details

Published
2024-12-27
DOI
https://doi.org/10.1109/icpids65698.2024.00056
Primary Topic
Image Processing Techniques and Applications
Type
article
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article

A Unique Approach for Extraction of Images with 4 Amplification Factors Using SR -GAN

Praveen Sharma, Himanshu Chaudhary, Prabhjot Kaur, Simranjeet Kaur
Image Processing Techniques and Applications
article

A Unique Approach for Extraction of Images with 4 Amplification Factors Using SR -GAN

Praveen Sharma, Himanshu Chaudhary, Prabhjot Kaur, Simranjeet Kaur
article en

Abstract

Deep neural networks are quicker than super-resolution methods regarding speed and accuracy. Yet, a big chal-lenge persists: addressing turning points when dealing with large objects. The optimization-based methods for super-resolution rely heavily on selection of the loss function. Unfortunately, results often end up noisy and unreliable because they struggle to maintain clarity in higher resolutions. This paper introduces a new adversarial algorithm known as SRGAN. It's designed to decode super-resolution (SR) images. Importantly, SRGAN is recognized as the first framework capable of extracting real images with up to 4x magnification. However, when paradoxical point loss is used for optimization, performance can suffer. The process works by enhancing resolution through mapping outputs to Real-world image space, which involves separate network. This network is optimized to distinguish between the super-resolution and original high-resolution images. Rather than relying solely on pixel spatial similarity, it uses redundancy informed by per-ceptual similarity. This advanced deep network can retrieve high-quality images from extensive public image collections. Through comprehensive Mean Opinion Score (MOS) analysis, it's evident that visibility shows significant improvements when applying SRGAN. The MOS scores achieved by SRGAN are nearly equal to the best results achieved by leading-cdge techniques.

Chandigarh University (IN)
Openalex Percentile: Top 57%
Image Processing Techniques and Applications
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