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From Detection to Response: A Deep Learning and Retrieval-Augmented Generation Framework for Network Intrusion Mitigation

Machine-learning-based Intrusion Detection Systems (IDS) have achieved impressive accuracy in classifying network attacks, yet they consistently fall short on the question that matters most to a security analyst: what should I do next? This paper presents a unified, end-to-end framework that closes the gap between threat detection and actionable response. The system operates in two tightly coupled stages. First, an ensemble of three independently trained binary Deep Neural Networks (DNNs) classifies network traffic flows as Benign, Denial of Service (DoS), or Distributed Denial of Service (DDoS), achieving 99.84% accuracy on the CICIDS2018 dataset and 95.30% on the UNSW-NB15 dataset. Second, a Retrieval-Augmented Generation (RAG) pipeline constructs explanation-aware prompts from the top-5 anomalous features, retrieves the most semantically and lexically relevant guidance from a knowledge base derived from authorized sources and di- rects a locally deployed language model to synthesise structured, citation-grounded mitigation reports. The RAG-enhanced reports outperform vanilla LLM outputs across all automated evaluation metrics.

cs.CR

RL-based Adaptive Task Offloading in Mobile-Edge Computing for Future IoT Networks

The Internet of Things (IoT) has been increasingly used in our everyday lives as well as in numerous industrial applications. However, due to limitations in computing and power capabilities, IoT devices need to send their respective tasks to cloud service stations that are usually located at far distances. Having to transmit data far distances introduces challenges for services that require low latency such as industrial control in factories and plants as well as artificial intelligence assisted autonomous driving. To solve this issue, mobile edge computing (MEC) is deployed at the networks edge to reduce transmission time. In this regard, this study proposes a new offloading scheme for MEC-assisted ultra dense cellular networks using reinforcement learning (RL) techniques. The proposed scheme enables efficient resource allocation and dynamic offloading decisions based on varying network conditions and user demands. The RL algorithm learns from the networks historical data and adapts the offloading decisions to optimize the networks overall performance. Non-orthogonal multiple access is also adopted to improve resource utilization among the IoT devices. Simulation results demonstrate that the proposed scheme outperforms other stateof the art offloading algorithms in terms of energy efficiency, network throughput, and user satisfaction.

cs.NI