
The rapid expansion of artificial intelligence (AI) applications has increased the demand for efficient workload management in distributed cloud environments. This study explores AI-powered orchestration strategies to optimize workload execution, improve resource utilization, and enhance system scalability. By leveraging machine learning-based predictive analytics, automated scheduling, and dynamic resource allocation, AI-driven orchestration reduces execution time, improves fault tolerance, and enhances network efficiency. Comparative analysis with traditional workload management techniques highlights the benefits of AI-powered approaches in terms of cost efficiency, energy consumption reduction, and overall performance optimization. The study also discusses the role of advanced data engineering techniques, including intelligent data partitioning and caching, in streamlining AI workload distribution. Results indicate a significant improvement in job completion rates, computational throughput, and system reliability when AI-powered orchestration frameworks are implemented. The findings emphasize the need for intelligent cloud management solutions to address the growing complexity of AI-driven applications. Future research should focus on refining orchestration algorithms, further optimizing AI model execution, and addressing emerging security concerns in distributed computing infrastructures
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