Course Outline

Foundations: 6G Vision and Technical Drivers

  • Emerging 6G Key Performance Indicators (KPIs) and service classes, including latency, reliability, throughput, and sensing capabilities.
  • Key technology enablers and anticipated timelines for deployment.
  • Implications for network architecture and infrastructure requirements for government operations.

Transport Network Evolution: Fronthaul, Midhaul, Backhaul

  • Requirements for ultra-low-latency transport and deterministic tunnels to support critical government applications.
  • Fronthaul options such as CPRI/eCPRI, RoE, and split options, along with considerations for bandwidth scaling.
  • Enhancements in optical transport and strategies for fiber densification to meet the needs of advanced networks.

Cloud-Native RAN, vRAN, and O-RAN Integration

  • Principles of cloud-native network functions and containerized Radio Access Network (RAN) designs for government use.
  • Design patterns for virtualized RAN (vRAN), hardware acceleration techniques, and trade-offs in disaggregation for enhanced flexibility.
  • O-RAN architecture, open interfaces, and challenges associated with integration into existing government networks.

Edge & Distributed Compute Design

  • Strategies for edge placement to support Multi-Access Edge Computing (MEC) and ultra-low-latency services in government environments.
  • Capacity planning, resource orchestration, and multi-access edge compute implementation for efficient service delivery.
  • Interworking between central cloud, edge, and on-premises resources to optimize performance and security.

Timing, Synchronization & Determinism

  • Precision timing requirements for 6G use cases in government applications.
  • Considerations for Precision Time Protocol (PTP), Synchronous Ethernet (SyncE), and Global Navigation Satellite System (GNSS) hardening strategies.
  • Architectures for deterministic packet transport and redundancy to ensure reliable operations.

Spectrum, RF, and Antenna System Readiness

  • Challenges in millimeter wave (mmWave) and terahertz (THz) propagation and implications for cell planning in government deployments.
  • Upgrades to antenna systems, including the evolution of massive Multiple-Input Multiple-Output (MIMO) and active arrays.
  • Strategies for densification, backhaul provisioning, and site power/thermal management to support robust network operations for government.

Integrated Sensing and Communication Infrastructure

  • Co-design of sensing-capable radios and network-aware sensing pipelines to enhance situational awareness.
  • Data fusion, timing, and edge processing for real-time sensing in government applications.
  • Use cases for positioning, environmental monitoring, and industrial sensing in government operations.

Network Automation, AI-Native Management & Orchestration

  • Intent-based networking, closed-loop automation, and model-driven operations to streamline network management for government.
  • Utilization of artificial intelligence (AI) and machine learning (ML) for traffic prediction, fault detection, and resource optimization in government networks.
  • Continuous Integration/Continuous Deployment (CI/CD) practices for network functions and automated validation processes to ensure reliability.

Security, Resilience & Trustworthy Infrastructure

  • Threat models for highly distributed 6G topologies in government networks.
  • Considerations for hardware and software supply-chain security to protect government assets.
  • Strategies for operational resilience, redundancy, and disaster recovery planning to ensure continuity of government services.

Testing, Validation & Digital Twin Approaches

  • Verification methodologies for latency, jitter, and throughput Service Level Agreements (SLAs) in government networks.
  • Use of digital twin technology for planning, what-if analysis, and capacity forecasting to support informed decision-making for government.
  • Interoperability testing with 5G legacy systems and multi-vendor stacks to ensure seamless integration for government operations.

Migration Strategies and Roadmaps

  • Phased upgrade paths that include coexistence strategies to minimize disruption during the transition for government networks.
  • Building a business case, cost estimation, and Return on Investment (ROI) considerations for government stakeholders.
  • Planning for pilot projects, defining key performance indicators (KPIs), and engaging stakeholders to facilitate successful rollout of 6G for government.

Workshop: Design Review and Readiness Plan

  • Hands-on architecture design exercise addressing a real deployment scenario in a government setting.
  • Gap analysis and prioritized remediation plan to ensure infrastructure readiness for 6G in government operations.
  • Presentation of the proposed roadmap and risk mitigation measures to support informed decision-making for government leaders.

Summary and Next Steps

Requirements

  • Experience in telecommunications network engineering and design
  • Familiarity with 4G/5G Radio Access Network (RAN) and core network concepts
  • Working knowledge of IP transport, timing/synchronization, and radio frequency (RF) fundamentals

Audience for Government

  • Telecommunications engineers and Radio Access Network (RAN) architects
  • Network planners and transport/optical engineers
  • Infrastructure and cloud architects preparing networks for next-generation evolution
 21 Hours

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