GCC Autonomous Cloud-Native Telecom Network Blueprint
A Technical Blueprint for a Greenfield O-RAN Deployment in the GCC with Full Data Sovereignty
This repository contains a comprehensive technical blueprint for deploying a next-generation, autonomous, cloud-native telecom network across the Gulf Cooperation Council (GCC). The architecture is designed from the ground up to address the unique geographical, demographic, and regulatory challenges of the region, most notably the strict enforcement of in-country data sovereignty.
This blueprint was designed and authored by Manus AI in a Lead Network Architect simulation.
Core Architectural Pillars
- O-RAN Disaggregation: The network is built on Open RAN principles, disaggregating the base station into virtualized O-DU, O-CU, and RIC components for a multi-vendor, software-defined RAN.
- Hybrid Coverage Strategy: Bypasses traditional macro-towers by combining Small Cell densification for high-capacity urban coverage and Low Earth Orbit (LEO) satellite backhaul for ubiquitous desert and remote coverage.
- Cloud-Native & Autonomous: All network functions are deployed as containerized services on an in-country Kubernetes platform, orchestrated by an AI-driven RAN Intelligent Controller (RIC) for autonomous operation.
- Zero-Touch Provisioning (ZTP): A fully automated workflow allows new 5G radio nodes to self-authenticate, configure, and connect to the 5G Core upon power-on without human intervention.
- 100% Digital KYC & eSIM: Integration with national digital identity platforms (UAE Pass and Saudi Absher/Yaqeen) enables fully automated, secure subscriber onboarding and eSIM provisioning.
- Uncompromising Data Sovereignty: All subscriber data, network state, and operational telemetry are guaranteed to reside within the physical borders of the respective GCC nation, leveraging in-country cloud regions (AWS, Azure, Oracle, Google, stc Cloud, Huawei Cloud).
Network Architecture Overview
The topology is a hybrid model designed to provide seamless, high-performance connectivity across the GCC's diverse environments.
- Urban Centers (Dubai, Riyadh, Doha): A dense network of Small Cells operating in C-band and mmWave provides high-capacity, low-latency coverage. These connect via fiber to in-country edge data centers hosting the virtualized O-DU and O-CU functions.
- Desert & Remote Regions: Small Cells are connected via LEO satellite backhaul (e.g., Starlink, OneWeb) to an in-country satellite gateway, ensuring data sovereignty is maintained. This gateway then connects to the regional cloud data center.
Repository Structure
gcc-autonomous-telecom-network/
├── docs/
│ ├── GCC_Telecom_Blueprint_Final.md # Full technical blueprint in Markdown format
│ └── GCC_Telecom_Blueprint_Final.pdf # Full technical blueprint in PDF format
├── diagrams/
│ ├── network_topology.mmd # Mermaid source for the network topology diagram
│ ├── network_topology.png # Rendered network topology diagram
│ ├── self_healing_logic.mmd # Mermaid source for the AI self-healing logic
│ └── self_healing_logic.png # Rendered AI self-healing logic diagram
├── scripts/
│ ├── ztp_workflow.py # Python script for the Zero-Touch Provisioning workflow
│ └── vepc_init_commands.sh # Shell script with the vEPC initialization commands
├── LICENSE # MIT License file
└── README.md # This file
Getting Started
1. Zero-Touch Provisioning (ZTP) Workflow
The scripts/ztp_workflow.py script simulates the process of a new 5G gNB autonomously connecting to the network. It is a conceptual model and requires a live provisioning server and 5G core to function.
# Navigate to the scripts directory
cd scripts
# Run the ZTP workflow simulation
python3 ztp_workflow.py
2. Virtualized Evolved Packet Core (vEPC) Initialization
The scripts/vepc_init_commands.sh script contains the 10 commands needed to install and configure Open5GS on an Ubuntu 22.04 cloud instance within a GCC in-country data center.
Important: Before running, you must edit the script to set the correct PLMN ID for your target GCC operator and the correct network interface for your cloud instance.
# Make the script executable
chmod +x scripts/vepc_init_commands.sh
# Run the initialization script with sudo privileges
sudo ./scripts/vepc_init_commands.sh
Data Sovereignty: The Core Principle
This architecture was designed with the stringent data sovereignty laws of the GCC as a primary constraint. Compliance is achieved through the following measures:
- In-Country Cloud Deployment: All cloud-native network functions (O-DU, O-CU, RIC, 5GC) and all data processing/storage are hosted in data centers physically located within the UAE, Saudi Arabia, Qatar, etc.
- Local Satellite Gateways: For LEO backhaul, all traffic is terminated at a ground station within the country's borders before being routed to the core network.
- Vendor Selection: Prioritizes vendors with established, in-country cloud regions and a proven track record of compliance with local regulations (e.g., TDRA, CITC).
License
This project is licensed under the MIT License - see the LICENSE file for details.