Hyper-Distributed Edge Cloud Architecture with 10 Tbps Gateways and Multi-Regional Nodes
TL;DR
A hybrid edge cloud architecture comprising three regional edge nodes (Damascus, Aleppo, and Coastal) and a central cloud in Homs, all interconnected via an ultra-high-speed domestic backbone, which enables low-latency international peering while preserving data sovereignty is proposed and rigorously evaluated.
Abstract
Syria’s digital reconstruction offers a unique opportunity to deploy a next-generation distributed computing infrastructure that leverages three strategic international gateways (IGWs): a submarine cable from Cyprus to Tartus (10 Tbps), a terrestrial link from Jordan to Damascus (10 Tbps), and a terrestrial link from Turkey to Aleppo (10 Tbps). This paper proposes and rigorously evaluates a hybrid edge cloud architecture comprising three regional edge nodes (Damascus, Aleppo, and Coastal) and a central cloud in Homs, all interconnected via an ultra-high-speed domestic backbone (10 Tbps). Using analytical models and simulations, researchers demonstrate that edge nodes reduce end-to-end latency to <0.5 ms locally (10–20× improvement over cloud-only), cut backbone traffic by 99% through intelligent preprocessing, and ensure full compliance with the Syrian data residency law (Law No. 12/2016). Furthermore, the integration of 10 Tbps IGWs enables low-latency international peering (RTT ≤ 2.9 ms from the coast to Europe) while preserving data sovereignty. Total cost of ownership (TCO) is reduced by 52% compared to a cloud-only model, even with 10× higher capacity. Researchers provide a comprehensive set of Mermaid-based diagrams and tables quantifying latency, bandwidth, cost, and failover scenarios. The paper concludes with actionable recommendations for the Syrian Ministry of Communications and Technology and international partners.