Artificial Intelligence for Networks projects examples using ns3 are listed below, read the ideas if you want experts help then to reach out for us we assist for you in best thesis support.
In this script we explore the basic sample projects that perform in various scenarios using ns3. Here, we provide some samples of Artificial Intelligence (AI) for Networks projects using ns3 simulation:
- AI-Based Traffic Prediction and Management:
- Objective: To predict network traffic and optimize traffic management using innovative AI models.
- Description:
- Simulation Setup: Fluctuating traffic patterns needs to be simulate the network.
- Techniques: For traffic prediction we need to apply an AI models such as LSTM (Long Short-Term Memory) and ARIMA
- Metrics: Evaluate prediction accuracy, network throughput, and latency before and after optimization.
- Tools: Use ns3 for network simulation and incoporate with AI frameworks like TensorFlow or PyTorch.
- Reinforcement Learning for Dynamic Routing:
- Objective: To optimize routing decisions dynamically by use of reinforcement learning.
- Description:
- Simulation Setup: Create a network with multiple paths and varying traffic loads.
- Techniques: For routing optimization execute reinforcement learning techniques like Q-learning or Deep Q-Network (DQN)
- Metrics: analyse the enhancement in latency, packet delivery ratio, and network congestion.
- Tools: Utilize ns3 routing modules and incorporate with RL libraries.
- AI-Driven Network Anomaly Detection:
- Objective: To detect and mitigate network anomalies and intrusions were developed by AI models.
- Description:
- Simulation Setup: Mimic a network with normal and anomalous traffic patterns.
- Techniques: For anomaly detection need to apply the machine learning models such as SVM (Support Vector Machine), Random Forest, and neural networks
- Metrics: Analyse detection accuracy, false positive rate, and impact on network performance.
- Tools: For generating traffic data and integrate with AI frameworks for anomaly detection by use of ns3.
- AI-Based Congestion Control:
- Objective: To develop adaptive congestion control mechanisms using AI techniques.
- Description:
- Simulation Setup: Emulate a network with changing levels of congestion.
- Techniques: To adaptively adjust congestion window sizes and transmission rates executed by AI models.
- Metrics: Analyse the developments in throughput, latency, and packet loss.
- Tools: Employ ns3 TCP modules and incorporate with AI models for congestion control.
- AI-Enhanced Quality of Service (QoS) Management:
- Objective: To enhance user experience to improve QoS parameters using AI model.
- Description:
- Simulation Setup: Generate a network with various types of traffic requiring numerous QoS levels.
- Techniques: To dynamically adjust QoS parameters like bandwidth allocation, priority queuing, and scheduling were executed by AI models.
- Metrics: Evaluate QoS metrics like latency, jitter, throughput, and packet loss for different traffic classes.
- Tools: Use ns3 tool for QoS modules and combined with AI frameworks.
- AI-Driven Network Slicing for 5G Networks:
- Objective: To dynamically manage network slices in 5G networks using AI model.
- Description:
- Simulation Setup: For diverse services like eMBB, URLLC, mMTC were simulated in 5G network with multiple slices.
- Techniques: For resource allocation and slice management that need to apply the AI techniques.
- Metrics: Analyse slices performance, resource utilization, and latency.
- Tools: In5G NR modules that combined with AI for network slicing using ns3 framework.
- AI-Based Energy Management in IoT Networks:
- Objective: To optimize energy consumption in IoT networks by using AI techniques.
- Description:
- Simulation Setup: Generate an IoT network with battery-powered devices.
- Techniques: To predict energy consumption and optimize duty cycles and transmission power by implementing AI models.
- Metrics: Measure energy savings, network lifetime, and data reliability.
- Tools: By using ns3 for IoT modules and energy models, integrating with AI frameworks.
- Machine Learning for Predictive Maintenance in Networks:
- Objective: To predict and prevent network component failures by implementing machine learning techniques.
- Description:
- Simulation Setup: Mimic a network with historical performance and failure data.
- Techniques: Apply predictive maintenance models using techniques like regression analysis, neural networks, and time-series forecasting.
- Metrics: Measure prediction accuracy, downtime reduction, and maintenance efficiency.
- Tools: For generating network performance data and integrate with machine learning libraries using ns3.
- AI-Enhanced Security in SDN:
- Objective: To improve the security of Software-Defined Networks (SDN) using AI.
- Description:
- Simulation Setup: Mimic an SDN environment with potential security threats.
- Techniques: For threat detection, mitigation, and automated response were needed to apply the AI models.
- Metrics: Evaluate the detection accuracy, response time, and impact on network performance.
- Tools: Use ns3 for SDN modules and integrate with AI frameworks for security.
- AI for Load Balancing in Data Center Networks:
- Objective: Use AI techniques to optimize load balancing in data centre networks
- Description:
- Simulation Setup: Generate a data center network with changing workloads.
- Techniques: For dynamic load balancing and resource allocation we implemented using AI models.
- Metrics: Evaluate enhancements in throughput, latency, and resource utilization.
- Tools: Use ns3’s for data center networking modules and integrate with AI for load balancing
In the conclusion, we clearly discussed about the artificial intelligence technique and how the model will perform in other scenarios that were explained here. Also we elaborate further information regarding artificial intelligence technique.