AI-Driven Cloud Resource Allocation for AI Model Training

Karthik Reddy Alavalapati

Abstract: Cloud resource allocation is an essential element for efficient and high performance of AI model training, which is grounded in application of AI technologies. The investigation in this research is about innovative ways of allocating resources dynamically via machine learning algorithms deployed in the cloud environments. The proposed framework is able to optimize resource utilization, to decrease energy consumption, and decrease latency on large scale AI workloads through the use of predictive analytics and reinforcement learning models. The methodology utilizes the approach of hybrid, where deep reinforcement learning (DRL) is employed for adaptive scaling of resource and heuristic algorithms for efficient job scheduling. The results show that the proposed model performs better than the conventional static allocation strategies in terms of throughput and cost reduction up to 30%. Achievements of AI driven frameworks can thus be explained by the ability to cope with increasing cloud resource demand for resource efficient cloud environments and to cater the demand for scalable performance for AI training models. The proposed system is enhanced with the emerging technologies, federated learning, and edge computing to distribute computations closer to data sources. Moreover, Kubernetes-based microservices are also integrated with the deployment and provide improved fault tolerance of cloud-based AI workloads. The contribution of this research is a significant contribution to the field of cloud computing with an intelligent and adaptive solution for real-time resource management in AI model training pipelines.

Keywords: AI-driven resource allocation, cloud computing, reinforcement learning, federated learning, Kubernetes, AI model training, predictive analytics, microservices, scalable AI systems

How to Cite?: Karthik Reddy Alavalapati, "AI-Driven Cloud Resource Allocation for AI Model Training", Volume 14 Issue 10, October 2025, International Journal of Science and Research (IJSR), Pages: 625-630, https://www.ijsr.net/getabstract.php?paperid=SR25527075206, DOI: https://dx.doi.org/10.21275/SR25527075206