Abstract
Fog computing extends cloud capabilities by decentralizing computational, storage, and networking resources,
bringing them closer to IoT devices. This proximity enables low-latency processing, real-time analytics, and
efficient data handling, making it ideal for applications like smart cities, healthcare monitoring, and industrial
automation. However, the distributed nature of fog computing introduces several challenges, particularly in
managing constrained resources across heterogeneous fog nodes. One of the primary challenges is the efficient
management of Service Level Agreements (SLAs), which depend on dynamic Quality of Service
(QoS) requirements. SLAs must balance user expectations, application performance, and provider profitability,
making it difficult to establish precise service metrics. Additionally, fog environments face scalability issues due to
the increasing number of connected devices, requiring adaptive resource allocation strategies. Interoperability is
another concern, as fog nodes often operate on diverse hardware and software platforms, complicating seamless
integration. Furthermore, ensuring reliability in resource-constrained and geographically dispersed fog networks
remains a critical hurdle.
To address these challenges, this study explores intelligent resource management strategies designed to optimize
constrained, heterogeneous, and distributed fog resources. The proposed approach leverages dynamic application
placement algorithms, adaptive workload distribution, and predictive resource allocation to enhance efficiency. By
improving resource utilization and service continuity, the framework ensures high performance while minimizing
latency and energy consumption.Ultimately, this research aims to enhance fog computing networks by
enabling scalable, reliable, and interoperable service delivery. The findings contribute to advancing real-time IoT
applications, ensuring seamless operations in dynamic fog environments. Through intelligent resource management,
fog computing can achieve its full potential as a robust extension of cloud infrastructure