This study aims to identify the critical parameters for implementing a sustainable artificial intelligence (AI) cloud system in the information technology industry (IT). To achieve this, an AHP-ISM-MICMAC integrated hybrid multi-criteria decision-making (MCDM) model was developed and implemented. The analytic hierarchy process (AHP) was used to determine the importance of each parameter, while interpretive structural modeling (ISM) was used to establish the interrelationships between the parameters. The cross-impact matrix multiplication applied to classification (MICMAC) analysis was employed to identify the driving and dependent parameters. A total of fifteen important parameters categorized into five major groups have been considered for this analysis from previously published works. The results showed that technological, budget, and environmental issues were the most critical parameters in implementing a sustainable AI cloud system. More specifically, the digitalization of innovative technologies is found to be the most crucial among the group from all aspects, having the highest priority degree and strong driving power. ISM reveals that all the factors are interconnected with each other and act as linkage barriers. This study provides valuable insights for IT industries looking to adopt sustainable AI cloud systems and emphasizes the need to consider environmental and economic factors in decision-making processes.

Introduction: Prostate cancer continues to be the leading cause of male fatalities requiring advanced and early diagnosis methods. The complexityresenter immune response after COVID-19 vaccination in senior patients. Neural networks stand as promising deep learning models for dealing with current healthcare diagnostic problems. The research investigates an improved neural network structure which unites convolutional neural networks (CNNs) for image analysis and recurrent neural networks (RNNs) for sequential clinical data interpretation. The proposed model utilizes multimodal data fusion which results in better accuracy of prostate cancer diagnosis. Objective: The research seeks to establish an optimized deep learning diagnostic system for prostate cancer through the integration of CNNs for image analysis and RNNs for clinical data interpretation sequences. Computer-aided prostate cancer diagnosis requires better accuracy and reliability through the integration of multiple data types. The research addresses diagnostic explainability through explainable AI (XAI) methods to enable healthcare professionals to understand AI model decisions with clarity. The rates of false positives and false negatives need minimization to increase the detection effectiveness of prostate cancer. The research evaluates the proposed model's performance by comparing it to standard diagnostic methods consisting of Bayesian networks and Naïve Bayes classifiers to prove its better handling of medical data heterogeneity. Method: Training of the proposed neural network occurs through data made up of diverse information including MRI scans and histopathological images and clinicopathological data. The data preprocessing stage contains normalization together with augmentation methods in addition to feature extraction components to maximize learning effectiveness. Hospital executives utilize high-resolution medical image-processing with CNNs to extract necessary tumor characteristics from images. Sequential clinical information is managed by RNNs while they extract temporal patterns which bear diagnostic significance. Standard evaluation metrics like accuracy and the set of sensitivity, specificity and F1-score are used for training and validating the combined model. Results: The experimental examination reveals that the proposed neural method achieves superior diagnostic performance when compared to established diagnostic techniques regarding accuracy levels and both sensitivity and specificity indices. The CNN segment successfully extracts tumor-related information from MRI scans and digital pathology pictures and the RNN part advances the diagnostic precision through sequence-based clinical data inspection. The integrated diagnostic system effectively decreases wrong test results which leads to better diagnostic accuracy. Conclusion: The presented research demonstrates deep learning's capability to advance prostate cancer diagnostic procedures. Combining CNNs with RNNs allows the proposed diagnostic system to perform better than traditional approaches. Programmable artificial intelligence technologies deliver transparent models thus making them easier for clinicians to use. The study confirms AI diagnostic solutions offer prompt proper diagnosis which brings about improved clinical results.