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ADVERTORIAL FEATURE


DESIGNING THE T


AUTOMATION-READY CRANE


How automation-ready architectures, digital twins and intelligent crane systems can transform cranes into connected assets within industrial production and logistics.


he crane being specified today may still be operating decades from now. Yet the production environment around it will almost certainly change.


The real question is no longer only what the crane must do on day one, but what it may need to become tomorrow. This creates an important decision for crane owners and crane manufacturers. Beyond lifting capacity, span, speed and duty classification, how should a crane be designed today so that its electrical and automation architecture can support tomorrow’s operating model? The principle is to make the crane automation-ready from the outset. This does not mean that every crane needs to be automated immediately. It means establishing the electrical, control, safety, sensing and communication architecture that allows the equipment to evolve progressively, from conventional manual operation to operator assistance, remote operation, semi-automation and, where the application justifies it, autonomous operation.


Example of an autonomous slab yard exceeding 98% availability in automatic mode.


Designing for evolution rather than a single operating mode Historically, crane specifications have understandably focused on mechanical and operational fundamentals: hoisting capacity, travel and trolley speeds, weight, structural requirements and duty classification. These remain essential. However, because a crane may remain in service for decades, its specifications should also consider how the electrical and automation architecture can evolve as operational requirements change. The crane must also increasingly interact with the wider production environment. In a steel plant, this may include warehouse management systems (WMS), manufacturing execution systems (MES), production equipment and


other material-handling resources. An automation-ready design therefore considers not only how the crane will operate when it is commissioned, but also how its architecture could support future operating requirements.


What makes a crane automation-ready? A future-oriented design should consider: ■ Functional safety appropriate to the required SIL/PL ■ Variable-speed drive architecture designed for advanced motion control


■ Robust and maintainable electrical control architecture capable of supporting future technologies


■ Closed-loop anti-sway when required ■ Advanced sensors for safety, positioning, load and environmental measurement


■ Scalable control system from manual through assisted and autonomous operation


■ Industrial ethernet communication architecture supporting integration with plant-level systems


■ Historian, diagnostics and structured operational data


Reducing risk before steel is even moved Digital twin technology can play an important role in this design process. By virtually representing relevant aspects of the mechanical system, electrical architecture, automation logic, operating environment and material flow, engineers can evaluate the operational concept before implementation on the physical equipment. Before commissioning, a digital twin can be used to model incoming and outgoing coil movements, storage allocation and crane trajectories. Different operating scenarios can then be evaluated virtually to identify potential bottlenecks or conflicting movements and to refine the operating concept before deployment. For installations where cranes interact with storage locations and other material-handling systems, understanding these interactions before site implementation can reduce project uncertainty and support more predictable commissioning.


Beyond automation: The rise of autonomous operations While automation delivers substantial benefits, true value emerges when cranes become integrated into plant- wide operational processes. With more than 20 years of experience in crane automation, Schneider Electric’s Integrated Autonomous Crane System (IACS) was specifically developed to address this challenge. IACS transforms cranes from isolated assets into intelligent logistics resources connected directly to


38 | November/December 2026 | www.hoistmagazine.com


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