Aug 2026· Cluster Computing· Vol 29· 0 citations· 34 references
TL;DR
Results demonstrate that Adaptive-CGAN can improve diagnostic performance, synthetic image quality, computational efficiency, and environmental sustainability in AI-assisted healthcare.
Abstract
Machine learning has become increasingly important in medical diagnosis, yet its effectiveness depends on access to large, reliable, and high-quality datasets. During epidemics and emerging diseases, such as COVID-19, acquiring sufficient real-world medical images rapidly is challenging. To address these issues, this study presents an Adaptive Conditional Generative Adversarial Network (Adaptive-CGAN) integrated with a cloud-based medical image processing framework. The proposed approach makes three main contributions. First, Adaptive-CGAN generates high-fidelity synthetic medical images that closely resemble real samples while improving the distinction between real and fake images. Second, a scalable TensorFlow Records (TFRecords)-based pipeline is implemented on Google Cloud Platform (GCP) to support efficient storage, loading, and processing of large-scale medical datasets. Third, a real-world COVID-19 medical image dataset comprising four disease classes is compiled and used to enhance diagnostic prediction. Experimental evaluation was conducted against several baseline generative models, including AC-GAN, WGAN, Pix2Pix, BigGAN, and CWGAN, with AC-GAN serving as the primary like-for-like baseline. Adaptive-CGAN improved classification accuracy from 93.75% ± 1.10% to 99.60% ± 0.40%, increased the Inception Score from 7.20 ± 0.28 to 8.47 ± 0.18 (+ 17.65%), reduced FID from 28.41 ± 1.35 to 26.13 ± 0.82 (− 8.02%), and reduced KID from 0.0156 ± 0.0021 to 0.0143 ± 0.0015 (− 8.33%). Adaptive-CGAN also reduced training time by 15.8% and CO₂ emissions by 9.5% compared with AC-GAN. Moreover, the GCP-based Adaptive-CGAN deployment emitted only 0.0023 kg CO₂, compared with 0.0047 kg CO₂ for the local setup, representing an approximately 50% reduction due to optimized cloud execution and the TFRecord-based pipeline. These results demonstrate that Adaptive-CGAN can improve diagnostic performance, synthetic image quality, computational efficiency, and environmental sustainability in AI-assisted healthcare.
Class imbalance in datasets remains a major problem in machine learning; most algorithms produce a biased model that generalizes poorly on the minority classes. This becomes an important factor in applications where minority Class samples are very important, such as medical diagnosis, accounting fraud detection, financial analysis, and so on. This paper proposes a new method to overcome the problem of class imbalance by using Generative Adversarial Networks (GANs). Specifically, the proposed method aims at obtaining a set of synthetic instances for the minority classes, which helps to balance the training set and improve classifiers’ performance. It introduces a modified Generative Adversarial Network (MGAN), which generates synthetic images of the minority class (128 × 128 × 3 pixels), thereby enhancing classifier resilience. Empirical evaluation indicates that MGAN surpasses conventional data balancing methods in medical imaging contexts. The effectiveness of this image filtering approach regarding lesion detection is experimentally confirmed when using two medical datasets of endoscopic and pathological images. The outcomes represent a high performance of the variant classifiers, which outperforms the conventional approaches when using the altered MGAN.
Roaa Razaq, Ebtesam N. Alshemmary, Zhentai Lu· Iraqi Journal of Science· 0 citations
Extensive experiments across three medical imaging benchmarks, two brain tumor classification datasets (SARTAJ, Br35H) and dental radiography analysis demonstrate that CENet variants achieve state-of-the-art efficiency-accuracy trade-off.
Amina Benabid, Kangjie Cheng, Yun-Feng Liu et al.· Journal of King Saud Univers...· 0 citations
Overall, GenPix provides a challenging and realistic benchmark for evaluating modern detectors, and the proposed AAE offers an efficient, interpretable baseline for future research on general-purpose fake-image detection.
Guessoum Dalila, B. Nadjia, Boumahdi Fatima et al.· Iraqi Journal for Computer S...· 0 citations
Findings establish joint-embedding predictive generation as a promising direction for 3D medical image synthesis and encourage further research in this direction.
Meng Zhou, Wen-Hao You, Yu-Xin Chen et al.· 0 citations
A hybrid Neural Network-Transformer encoder trained on four complimentary datasets maintains competitive accuracy across all four datasets while producing more retrieval-relevant embeddings and much more consistent performance under degraded queries suggests that the model may serve as a promising foundation for future CBMIR research and potential clinical exploration.
An in-depth and up- to-date overview of the GANs environment, principally highlighting the progress made over 2020 and beyond and proposing the idea of hybrid generative systems in the future while emphasizing the oppositional approach's extraordinary and enduring features.
Zahraa Salah Dhaif, H. J. Serteep· International Journal of Adv...· 0 citations
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