IN Brief:
- Container Terminal Altenwerder now has a private 5G campus network covering more than one square kilometre.
- Vehicles, sensors, mobile devices, and operational systems connect independently of the public mobile network.
- The infrastructure supports real-time applications, further automation, remote operation, and digital trials.
Hamburger Hafen und Logistik AG has activated a private 5G campus network at Container Terminal Altenwerder, creating a dedicated wireless infrastructure layer across one of Europe’s most automated container terminals.
The network covers more than one square kilometre and has been operating since the end of May. Developed with Deutsche Telekom and Ericsson through the PROCON-5G project, it connects vehicles, sensors, mobile devices, and operational IT systems independently of the public mobile network.
Ericsson’s private 5G architecture supplies stable, high-capacity communications across the terminal, while locally allocated spectrum gives HHLA greater control over coverage, network load, access, and performance. The system can be expanded across additional areas and applications as operating requirements change.
Container Terminal Altenwerder already uses extensive automation for horizontal transport, container stacking, and related handling processes. Communications therefore sit inside the production chain, carrying instructions, equipment status, safety data, and maintenance information between machinery, software, and terminal staff.
Outdoor port environments are difficult radio locations because steel containers, cranes, buildings, vehicles, and constantly changing stack configurations can obstruct or reflect signals. Equipment also moves over large areas, leaving conventional fixed connections unsuitable and placing pressure on wireless systems to maintain service during peak activity.
Private 5G offers greater mobility and traffic control than many general-purpose Wi-Fi deployments, particularly where high device density, video, remote control, or time-sensitive machine data compete for bandwidth. HHLA can assign network resources around operational priorities rather than relying on public demand conditions beyond the terminal boundary.
Low latency becomes critical when communications influence equipment movement. A delayed administrative record may be inconvenient, whereas a delayed control message, safety alert, or machine-status update can interrupt automated work or require equipment to fall back into a slower operating mode.
The immediate applications include real-time asset visibility, mobile maintenance, condition monitoring, video analysis, and further automation trials. Over time, the same infrastructure could support remote operation, automated inspections, autonomous vehicles, and more detailed coordination between terminal equipment and the terminal operating system.
Maritime connectivity is extending beyond the quayside as vessels and containers generate more live operational data. Ericsson and Net Feasa are combining onboard cellular networks, satellite links, and cargo-monitoring systems for use at sea, a development examined in the expansion of 5G towards the maritime edge. Altenwerder addresses the shore-based side of that connected chain.
Faster communications will not correct weak integration between machines and software. Vehicle-control systems, cameras, sensors, maintenance tools, and terminal applications still require common data models, reliable interfaces, and consistent timing if live information is to improve decisions rather than create additional streams of disconnected alerts.
Cybersecurity carries particular weight because the network links digital systems with physical machinery. Device authentication, segmentation, software updates, supplier access, monitoring, and incident response must be maintained across equipment that may remain in service for much longer than a conventional IT device.
Legacy machinery can complicate that process. Automated terminals rarely replace every crane, vehicle, sensor, and control system at once, leaving new communications platforms to accommodate assets built around different protocols, maintenance cycles, and cybersecurity assumptions.
The PROCON-5G programme also establishes Altenwerder as a test environment for port technology under live operating conditions. Trials can be measured against real vessel calls, equipment utilisation, terminal congestion, weather, and safety requirements rather than confined to a laboratory or isolated demonstration zone.
Commercial returns are likely to appear through fewer stoppages, quicker maintenance, better equipment allocation, improved safety, and lower installation costs for new applications. Avoiding extensive cabling can accelerate deployment, although private spectrum, radios, core infrastructure, systems integration, and ongoing support still require substantial investment.
Altenwerder provides a mature baseline against which those gains can be assessed. HHLA can compare equipment availability, task completion, fault response, data performance, and operating stability before and after applications are moved onto the campus network.
The network is consequently an enabling asset rather than a finished automation project. Its value will grow as more equipment depends on live data and as remote or autonomous processes move from trials into routine shifts, turning industrial communications into a measurable part of terminal capacity.
