50+ Active Private 5G PoCs Across the UAE.
Here Is What Is Actually Working.

ADNOC operates across 11,000km² of onshore and offshore assets — oil fields, pipelines, processing plants, and refineries. Existing LTE and Wi-Fi infrastructure could not deliver the latency (<10ms), reliability (99.999%), or coverage needed for drone inspection programs, remote SCADA monitoring, and worker safety applications across dispersed desert and offshore locations. Public 4G from national operators had insufficient coverage in remote field areas.

Jebel Ali Terminal 3 operates 100+ Automated Guided Vehicles (AGVs) and 22 automated quay cranes. Legacy Wi-Fi 5 (802.11ac) infrastructure delivered 50-300ms handover latency between access points — causing AGV emergency stops that cost $2M+ per major incident in delayed throughput. RF multipath from steel containers created persistent dead zones. A single 10-second AGV connectivity gap could halt entire container loading sequences.

EMSTEEL's Mussafah facility produces 2.4 million tonnes of steel annually. The high-EMI environment from electric arc furnaces (EAF) running 150,000A currents caused catastrophic Wi-Fi interference — packet error rates of 30-40% within 100m of furnace operations. Wired Ethernet was impractical for mobile robotic platforms. Digital twin synchronisation required <50ms sensor update rates across 200,000m² of plant floor. Legacy wired SCADA could not reach new autonomous robotic inspection platforms.

Dubai Police operated a legacy TETRA P25 network that could not support the bandwidth requirements of modern policing: body-worn camera streaming (each BWC generates 4-8 Mbps), HD video from 1,100 patrol vehicles, and real-time AI suspect matching from 260+ CCTV cameras. TETRA's 28Kbps data rate was structurally incapable of carrying video. Radio blackouts in underground carparks, metro stations, and steel-frame buildings left officers in high-risk situations without communication. Data sovereignty required all traffic to remain on UAE sovereign infrastructure — public 5G was not viable.

DEWA's 127 substations operate on IEC 61850 GOOSE protection messaging — the protocol that trips circuit breakers in under 4ms to prevent cascade failures. Public 4G delivered 20-50ms RTT — 5-12x above the protection threshold. A single mis-trip on a 400kV substation could black out 240,000 homes. Additionally, DEWA's 2M+ smart meter AMI network ran on RF mesh (15-900MHz) with 40% packet loss in dense urban canyons — causing billing errors and preventing real-time demand response programs.

Khalifa Port processes cargo from 150+ vessel calls per month. Pre-arrival data exchange between vessels and port authority systems (cargo manifests, dangerous goods declarations, customs pre-clearance) relied on VHF radio and email — creating 4-6 hour delays in berthing slot assignment. Pilot boarding operations had no digital link to vessel bridge systems. Once vessels were within 2km of berth, VSAT satellite connectivity degraded to <10Mbps due to port infrastructure blocking the satellite elevation angle.

e& wanted to offer managed private 5G as a service to enterprise customers — moving beyond simple SIM connectivity to full network-as-a-service for industrial operations. Each enterprise customer (port, O&G facility, government campus) required isolated slices, dedicated security perimeters, and on-premise UPF co-location for data sovereignty — while sharing the same physical RAN infrastructure to keep CapEx viable. Managing multiple enterprise SLAs on a single platform required automated orchestration, per-tenant monitoring, and rapid slice provisioning.

DXB Terminal 3 covers 1.7 million m² of indoor space — one of the largest covered structures in the world. Underground transit connections, concrete baggage halls, and metal jet bridges created significant RF dead zones. Five national operators (Etisalat, du, and 3 international roaming partners) each deploying independent DAS infrastructure would require 5x the cabling, 5x the antennas, and continuous inter-operator coordination — structurally impractical for an airport that cannot afford construction disruption to operations. Security networks for airport police and ground handling required separate priority communications with guaranteed QoS.