The 5 Most Common Planning Mistakes
in Heavy-Duty Intralogistics
in Heavy-Duty Intralogistics
Heavy-duty projects have different rules
Heavy-duty intralogistics projects are complex engineering challenges. Heavy loads, customized material flows, stringent safety requirements, and tight integration with production processes make planning significantly more demanding than with traditional warehouse or conveyor systems. At the same time, many problems arise not just during commissioning, but as early as the initial project phases.
The biggest problems in heavy-duty intralogistics projects rarely stem from individual components—but rather from a lack of holistic consideration in the early planning phases. Material flow, building structure, safety, flexibility, and automation must be considered together from the very beginning. The same applies to which machines and systems are to be connected by the heavy-duty intralogistics system. Today, modern heavy-duty warehouses can also perform functions beyond “mere storage.”
5 Common Planning Mistakes
Avoiding common planning mistakes early on not only results in a high-performance system but also ensures long-term investment security. In heavy-duty intralogistics in particular, the quality of planning is therefore a decisive factor in determining the cost-effectiveness, availability, and future-proofing of the entire solution.
Below are the five most common mistakes that occur in heavy-duty intralogistics projects—and why they are so critical.
Material flow and production processes are not viewed holistically Material flow and production processes are not viewed holistically
A common mistake is to plan the storage or conveyor system in isolation, without fully taking actual production processes into account.
In practice, heavy-duty storage systems are almost always linked to manufacturing, processing, shipping, and loading. If material flows, cycle times, or process interfaces are not analyzed early on, this can later result in unnecessary transport routes, bottlenecks, and wait times, inefficient material provision, or additional manual intervention.
This becomes particularly problematic with growing production capacities or changes in manufacturing processes.
Common mistake: The warehouse is optimized for maximum capacity—not for the actual production flow.
Better: Analyze and simulate all material movements, interfaces, and future production scenarios right from the start—and do so before procuring other production machines that are to be connected later.
Soil, structural engineering, and foundation work are often underestimated Soil, structural engineering, and foundation work are often underestimated
In heavy-duty projects, the building structure is one of the most important factors. Nevertheless, the load-bearing capacity of floors and foundations is often assessed too late.
High point loads from heavy-duty trucks, stacker cranes, or crane systems place enormous stress on the warehouse floor and steel structure. If these are not taken into account early on, there is a risk of costly retrofitting, restrictions on travel speeds, reduced load-bearing capacities, vibration problems, and project delays. Existing buildings in particular often reach their limits in this regard.
Common mistake: Storage systems are planned before reliable floor data or structural analyses are available.
Better: Conduct a detailed analysis of structural engineering, floor conditions, and foundation design as early as the conceptual phase.
Many systems are designed solely to meet current demand. However, production volumes, workpiece sizes, and material flows often change more quickly than expected. Without the necessary scalability, systems reach their limits after just a few years. Expansions then become costly or technically challenging.
Typical consequences include insufficient storage capacity and inadequate throughput, limited expansion options, the need for additional external storage space, or costly retrofits during ongoing operations.
Common mistake: The system is sized exactly for today’s situation.
Better: Take potential growth scenarios, additional product variants, and future expansions into account during the planning phase; if necessary, plan for additional logistics space.
In some projects, the initial focus is exclusively on capacity and automation. Issues such as maintenance accessibility, safety zones, or service concepts are not addressed until later.
This can cause significant problems, particularly in heavy-duty intralogistics, such as difficult maintenance access, long downtimes, and high service costs, as well as compromised workplace safety and complicated rescue and safety concepts.
Since heavy loads entail enormous risks, safety and maintenance aspects must be an integral part of the planning process.
Common mistake: Safety is treated as an “add-on.”
Better: Develop safety, maintenance, and service concepts from the very beginning in conjunction with mechanical and automation engineering.
Not every application requires maximum automation. Conversely, some processes are handled manually for too long, even though automation would offer significant benefits.
A common mistake is:
automating processes in a way that is too complex
failing to account for manual exceptions
misjudging the actual material throughput
or evaluating automation solely based on cost considerations
This results in either unnecessarily complicated systems or inefficient processes with high labor costs.
Common mistake: Automation is either over-engineered or planned too conservatively.
Better: Define the optimal level of automation based on material flow, cycle times, safety requirements, process stability, and cost-effectiveness.
Discuss the right intralogistics architecture now
Whether you’re looking for initial guidance, planning a specific brownfield project, or wondering about the right system architecture, an early discussion helps you realistically assess the technical possibilities, risks, and priorities. That’s exactly what this page is for—not just as an overview, but as a starting point for making the next informed project decision.