High Bay Warehouse Systems

High-bay warehouse systems are used in the industries for which Langzauner also supplies press and automation technology: aviation, automotive, caravan, sports, and aerospace industries, as well as metal, defense, and wood industries. Heavy or large-format tools and components often have to be moved there and must be stored reliably and in a space-saving way. In combination with storage and retrieval machines, mold tool shuttle systems, and preheating stations, integrated logistics and setup concepts are created along complete production lines.

High-bay warehouse systems can be realized both for new systems and as part of modernization projects. Existing production halls are analyzed in order to make optimal use of height, available floor space, and material flows. Interfaces to existing presses, transport systems, or ERP/MES structures are planned on a project-specific basis. If requirements increase, additional rack bays, levels, or connections can be added. This keeps the system scalable and supports companies over the long term as they grow and as product portfolios change.

High-bay warehouse systems are part of hard automation around presses and production lines. They are combined with storage and retrieval machines, tool storage systems, mold tool shuttles, sliding tables, and material transfer solutions. A higher-level control system coordinates storage and retrieval, tool changeover, and buffering. This creates a continuous material and tool flow from the high-bay warehouse to the press. This integration reduces interfaces, simplifies planning, and ensures that warehouse logistics and production function as one coordinated overall system.

By using vertical space, a high-bay warehouse concentrates inventory in a defined location. In combination with automated storage and retrieval stations, clear interfaces to production are created. Internal transports no longer spread uncontrollably across hall areas, but follow defined routes between the warehouse and production cells. This reduces forklift traffic, lowers collision and safety risks, and creates free space for value-adding processes, such as additional processing stations or buffer zones.

The proximity of relevant storage locations to storage and retrieval stations plays a decisive key role. Frequently used tools or components are positioned so that transport routes remain minimal. At the same time, the warehouse logic can be adapted to process sequences and setup strategies. Efficiency is not defined by the travel speed of the storage and retrieval machine alone, but by the interaction of layout, storage strategy, and automation, an approach that reduces unnecessary movements and increases throughput.