Table 1 Summary of related work.
From: Lightweight machine learning framework for efficient DDoS attack detection in IoT networks
References | Datasets | Objective | Methodology | Limitations |
|---|---|---|---|---|
NSL KDD | To develop a robust and efficient deep learning-based distributed attack detection framework for IoT networks | Feedforward neural networks and recurrent neural networks (RNNs) | Deploying and managing a distributed system across an extensive, diverse IoT network can be complex | |
NSL KDD | To develop a deep learning-based model for classifying multiple cyber-attacks, aiming to improve the accuracy and effectiveness of intrusion detection systems | Long-Short-Term Memory Recurrent Neural Network (LSTM-RNN) | Complex Model High False Alarm Rate | |
NSL KDD | To investigate the use of a deep learning approach for detecting DDoS attacks, potentially improving the accuracy and effectiveness of DDoS detection methods | Deep Contractive Autoencoder (DCAE) | The availability and quality of the training data may limit the model’s performance, potentially leading to inaccurate or biased detection results | |
NSL KDD | To enhance the speed of detection while upholding a commendable level of accuracy | SVM, logistic regression, KNN | The use of GPU technology results in decreased training and prediction time | |
NSL KDD | To categorize and predict various types of DDoSattacks through the application of machine learning | Random forest, XGBoost | Improved accuracy may be achieved using an enhanced suggested model | |
NSL KDD | To develop an optimized ensemble framework using big data analytics to effectively detect DDoS attacks targeting (IoT) | Convolutional Neural Network (CNN) embedded with a Gated Recurrent Unit (GRU) | The model’s complexity results in high computational time | |
NSL KDD | To develop a precise and effective DDoS attack detection system for IoT networks with a hybrid Sample Selected RNN-ELM model | Recurrent Neural Networks (RNNs) and Extreme Learning Machines (ELMs) | The model’s efficiency may hinge on the quality and variety of the training data and the particular attributes of the IoT network environment | |
NSL KDD | To provide a resilient and privacy-conscious DDoS attack detection solution for diverse IoT contexts by integrating federated learning with explainable a50rtificial intelligence approaches | Explainable Artificial Intelligence (XAI) with Federated Deep Neural Networks (FDNNs) | The efficiency of this methodology may be affected by issues including communication latency, variability in device capabilities, and the intricacy of incorporating XAI algorithms into the federated learning framework | |
NSL KDD | To develop a DDoS attack detection system using fine-tuned Multi-Layer Perceptrons | fine-tuned Multi-Layer Perceptron models | They are computationally intensive and slow | |
NSL KDD | To develop a system by integrating machine learning techniques with an SDN controller framework | Support Vector Machines, Decision Trees | The system may need to be continuously updated and adapted to address new and evolving DDoS attack techniques effectively | |
NSL KDD | To develop an intrusion detection system for IoT networks by integrating PCA for feature reduction with a CNN for accurate and efficient attack detection | Convolutional Neural Networks (CNN) | Computational overhead from CNN training could challenge resource-constrained IoT environments |