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Course Outline

Foundations: The Convergence of Digital Twins and 6G

  • Application of digital twin concepts to telecommunications networks.
  • 6G service classes and requirements that drive the adoption of digital twins.
  • Data sources, fidelity levels, and lifecycle management for twins.

Modeling 6G Components and Environments

  • Representation of RAN elements, fronthaul/midhaul/backhaul, and edge computing within twin models.
  • Considerations for channel, propagation, and THz/mmWave modeling.
  • Temporal granularity and synchronization between digital and physical layers.

Simulation & Co-simulation Architectures

  • Comparison of standalone simulation and co-simulation with live network telemetry.
  • Use of Ns-3, Unity, and emulation toolchains for integrated testing.
  • Strategies for scaling large-scale twin scenarios.

AI-Native Optimization Techniques

  • Application of supervised and reinforcement learning to radio resource management.
  • Online learning, transfer learning, and domain adaptation for twin-to-field migration.
  • Workflows for closed-loop control and patterns for policy deployment.

Real-Time Telemetry, Inference, and Feedback Loops

  • Architectures for streaming telemetry and placement of low-latency inference.
  • Trade-offs between edge and cloud inference, including model partitioning.
  • Design of secure feedback loops and human-in-the-loop controls.

Digital Twin Fidelity, Validation & Uncertainty Quantification

  • Metrics for assessing twin accuracy and validation methodologies.
  • Techniques for quantifying and mitigating model uncertainty.
  • Leveraging digital twins for SLA verification and performance assurance.

Orchestration, Automation & Intent-Driven Operations

  • Integration of twins with orchestration planes and intent-based APIs.
  • CI/CD and testing pipelines for twin models and ML artifacts.
  • Policy engines and automated remediation strategies.

Security, Privacy & Trust in Twin-Enabled Networks

  • Data governance, privacy-preserving modeling, and federated twin approaches.
  • Threat models concerning twin synchronization and model integrity.
  • Auditing, provenance tracking, and explainability for AI-driven decisions.

Case Studies and Domain Applications

  • Industrial automation and networked digital twins in manufacturing.
  • Validation of mobility, autonomous systems, and XR services.
  • Operational examples of predictive maintenance and capacity planning.

Hands-On Labs and Mini-Project

  • Constructing a small-scale digital twin of a RAN segment using ns-3 and a visualization engine.
  • Training a lightweight ML model for anomaly detection using twin-generated data.
  • Executing a closed-loop test: telemetry input → model inference → policy adjustment within simulation.

Summary and Next Steps

Requirements

  • Experience in telecommunications networking, RAN, or core network engineering.
  • Proficiency with simulation tools or network emulation.
  • Practical knowledge of Python and fundamental machine learning concepts.

Target Audience

  • Telecommunications engineers and network architects specializing in next-generation networks.
  • AI/ML engineers focused on network optimization and digital twin applications.
  • Research engineers and simulation specialists investigating 6G use cases.
 21 Hours

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