Hamburg’s Container Terminal Altenwerder Builds the Platform First – Then Proves the Applications

Hamburger Hafen und Logistik AG has taken a different approach at Container Terminal Altenwerder. The private 5G campus network that Deutsche Telekom and Ericsson activated at the end of May 2026, covering more than one square kilometre of one of Europe‘s most automated container terminals, is not primarily a solution to a specific problem. It is a platform designed to find out which solutions work when tested against the conditions of a real operating terminal — not a vendor demonstration environment, not a lab, but a facility processing live cargo under the commercial pressures and unpredictable physical conditions that characterise actual port operations.

Why Container Terminal Altenwerder needs a live private 5G test field

Most technology providers run validation programmes in controlled settings. Vendor laboratories can simulate throughput, model interference, and replicate common failure modes. What they cannot replicate is the electromagnetic environment inside an active container stack, the signal behaviour around a fully loaded ship crane in motion, or the connectivity demands of a terminal running at commercial capacity on a day when weather, equipment maintenance, and a delayed vessel arrival are all happening simultaneously.

HHLA’s IT Project Manager Michael Albers articulates the distinction directly. The new network, he explains, allows HHLA to test applications under realistic conditions and, where those tests succeed, move them into production without building a separate testing infrastructure. The terminal serves as both the operating environment and the development platform. Applications that fail in the lab for reasons that don’t appear in operation can be cleared. Applications that fail in operation for reasons that don’t appear in the lab can be caught before they become production problems. That is a different quality of evidence than any vendor reference case provides.

The project sits within Germany’s Digital Test Fields in Ports funding programme, operated by the Federal Ministry for Digital and Transport and managed by TÜV Rheinland. The programme’s explicit objective is to establish live digital infrastructure at German seaports and inland ports for the development and validation of new technologies under operational conditions — an acknowledgement, built into the funding rationale, that laboratory validation alone is insufficient for the physical complexity of port environments.

Container Terminal Altenwerder’s private 5G connectivity requirement

Container Terminal Altenwerder is one of the most heavily automated container terminals in Europe. Automated stacking cranes, automated guided vehicles, and terminal management systems already handle a substantial share of what would otherwise be manual operations. That existing automation level makes the connectivity requirement more demanding, not less. Systems that depend on continuous communication with a management platform — automated guided vehicles coordinating with crane schedules, sensors feeding real-time equipment status into logistics software — need connectivity that does not degrade when the terminal is under peak load or when the radio environment is affected by the movement of large metal structures.

A public mobile network provides broad coverage but not the dedicated capacity, device management and performance assurance that continuous machine communication requires. A private 5G campus network, built on locally allocated spectrum and operated as dedicated infrastructure for the terminal, removes the variable of shared public network load from the operational equation. CTA can control which devices connect, how available radio resources are allocated between different application categories, and what happens to connectivity when competing demands are placed on the network simultaneously.

Ericsson‘s Private 5G architecture underpins the deployment, with Deutsche Telekom handling implementation and ongoing network management. The infrastructure connects vehicles, sensors, mobile devices, cameras and IT systems across the terminal, and is designed to remain stable under the heavy network load that periods of peak terminal activity generate. The architecture is also scalable: additional coverage areas, device categories and application workloads can be integrated as the test programme identifies candidates for production deployment.

Three workload categories on Hamburg’s private 5G campus network

The network is currently scoped around three operational workload categories that represent different connectivity profiles. Autonomous and remotely controlled transport requires mobility support across the terminal with continuous low-latency communication to management and safety systems. Real-time video transmission supports operational monitoring and potential analytics applications, with bandwidth demands that fluctuate with terminal activity. Sensor-based monitoring covers equipment tracking, environmental sensing and process coordination — typically lower bandwidth but high in device count and time-sensitivity.

What makes the PROCON-5G test field valuable is not that it has already demonstrated results in all three categories. No detailed performance metrics — latency measurements, throughput figures, productivity changes attributable to the network — have been published, which is honest given that the network has been operational for a matter of weeks. What it has established is the controlled environment in which those results can be generated under conditions that will actually predict operational performance. For ports evaluating whether a private network investment will deliver its projected returns, that distinction matters considerably.

Private 5G at the Port of Hamburg: platform first, outcomes second

Klaus Werner, Managing Director for Business Customers at Deutsche Telekom, frames the deployment in terms of what it enables for downstream logistics processes: efficiency, transparency and flexibility. Those are outcome words, not infrastructure words. The gap between them and the current state of the deployment — a campus network covering one square kilometre, serving current processes while HHLA tests the applications that will deliver those outcomes — is where the work of the next two to three years sits.

For port operators evaluating a similar investment, that gap is the most important thing to understand about a deployment at this stage. A private 5G network does not itself automate a terminal, improve cargo handling throughput, or reduce operational costs. It creates the connectivity condition under which those outcomes become achievable, and the test environment in which the specific applications that will deliver them can be validated. HHLA’s measure of success will ultimately be the number of applications that move from PROCON-5G test status into full production deployment — and the operational results those applications generate once they do.

That sequencing has implications for how port operators should think about procuring private network infrastructure. A network built to support a small number of defined applications and sized exactly for their current requirements creates a different long-term constraint than a network built as a scalable platform with headroom for use cases that haven’t been identified yet. HHLA’s approach — deploy the platform, then use it to discover and validate what belongs on it — carries a different upfront cost rationale than a narrowly scoped deployment, and requires a different way of evaluating return on investment over time.

Hamburg’s private 5G model for smart port operations worldwide

Duncan Hawkins, Ericsson’s Vice President for Enterprise Sales in EMEA, describes the CTA deployment as a scalable model for smart port operations in Germany and other markets. That is a reasonable characterisation of the architecture. The technology stack — private 5G campus network on local spectrum, supporting autonomous transport, real-time video and sensor monitoring with edge compute headroom — is transferable in principle to container terminals, inland ports, airport cargo facilities and industrial logistics parks with comparable physical and operational profiles.

The caveat is one that the pasted documentation around this project applies honestly: no port can copy the CTA design without adjustment for its specific spectrum environment, terminal layout, existing infrastructure, automation level and regulatory context. The Hamburg deployment is a reference model, not a template. For port operators drawing on it as a planning input, the value is in the architecture principles and the live test field methodology — both of which are genuinely portable — rather than in the specific equipment configuration or network dimensioning of a terminal with its own particular operational history.