What is the difference between AGV and AMR?

AGVs (Automated Guided Vehicles) travel along fixed tracks or markings and are less flexible. AMRs (Autonomous Mobile Robots) navigate independently through the warehouse using sensors and maps and can avoid obstacles. AMRs are considered more adaptable, but are often more expensive to purchase.

Which processes are especially well-suited for automation?

Particularly well-suited are repetitive, volume-stable workflows such as putaway, retrieval, sorting, and straightforward picking. Processes with a high degree of variety, irregular formats, or frequent exceptions are more difficult to automate and often require hybrid approaches.

How long does a typical warehouse automation project take?

This depends heavily on the scope. Smaller partial automations, such as an automatic sorter system, can be implemented within a few months. Fully automated high-bay warehouses or complex system integrations often take one to several years from planning to commissioning.

What does it cost if an automated system fails?

Failures in fully automated systems immediately impact throughput, as there are almost no manual fallback options. Maintenance contracts, spare parts availability, and redundant system design are therefore central considerations when selecting a vendor. The cost of a failure must be factored into the business case.

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Automatisierung

Also: Lagerautomatisierung, Intralogistik-Automatisierung, automatisierter Lagerbetrieb, Warehouse Automation, Automatisierung Lager

AI-generated

In brief

Automation refers to the use of technologies and systems to execute processes fully or partially without human intervention. In intralogistics, the spectrum ranges from simple conveyor systems to fully automated high-bay warehouses with autonomous vehicles.

Key facts

Automation in intralogistics ranges from assistive conveyor technology to fully autonomous systems operating without operator intervention.
A prerequisite for economically viable automation is stable, repetitive processes with sufficient volume.
Integration with existing WMS and ERP systems is a critical success factor in every automation project.
The flexibility and maintainability of a system must be evaluated with equal weight to the level of investment.

What is automation in intralogistics?

Automation describes the systematic use of machinery, control software, and sensor technology to replace or support manual activities. There is no black-and-white distinction here: between purely manual work and fully automated operation without staff, there exists a broad gray zone of partially automated solutions. Typical examples include conveyor technology, automated small-parts warehouses (AS/RS), automated guided vehicles (AGV/AMR), automated high-bay warehouses, and robot-assisted picking.

An important distinction exists between mechanical automation, which handles physical movements, and informational automation, in which software independently makes decisions such as slotting, order assignment, or replenishment triggering. In modern systems, both levels are closely intertwined.

How does automation work in practice?

An automation project typically begins with a process analysis: which workflows are stable, repetitive, and available in sufficient volume to justify automation economically? System components are then selected, integrated, and connected via interfaces — often through APIs or EDI — to WMS, ERP, and higher-level control systems.

Partial automation: Individual steps such as labeling, sorting, or storage are supported by machinery, with humans and machines working together.
Full automation: Complete process flows run without operator intervention, for example in an automated high-bay warehouse with connected conveyor technology and automatic picking.
Autonomous systems: AMRs and AI-supported robots respond flexibly to changes in their environment and do not require fixed travel paths.

Control is handled via warehouse control systems (WCS) or directly within the WMS, which coordinates storage location management, order control, and machine communication.

What matters when making a selection?

The decision in favor of an automation solution depends on several factors that must be evaluated individually. Blanket recommendations are difficult here, because volume, product structure, seasonality, and available floor space vary considerably.

Process stability: Automation works best with standardized, highly predictable workflows. A high degree of variety or frequent assortment changes significantly increase complexity.
Flexibility and scalability: Some systems can be expanded modularly, while others are difficult to adapt after commissioning. This should be clearly addressed in the requirements specification.
Integration capability: Existing IT landscapes must be compatible. Missing or poor interfaces are a common stumbling block in practice.
Maintenance and availability: Automated systems require professional technical service. Downtime directly impacts throughput performance.
Economic viability: ROI depends on capital costs, labor costs, error rates, and throughput improvements. A robust business case calculation is essential before any decision is made.

Frequently asked questions

There is no universal threshold, as automation depends on product structure, available space, and labor costs. As a guideline: the higher the volume of similar picks and the more stable the processes, the more likely an investment will pay off. A carefully prepared business case is essential in every situation.

Related terms

AGV
AGV (Automated Guided Vehicle) refers to driverless transport vehicles that automatically move goods in warehouses and production environments. They follow predefined or sensor-controlled routes without a human driver.
AMR
AMR (Autonomous Mobile Robot) is a driverless, self-navigating transport robot that moves goods within a warehouse without any fixed installed infrastructure. It orientates itself independently using sensors and digital maps, and dynamically avoids obstacles.
API
An API (Application Programming Interface) is a defined interface through which two software systems can exchange data in an automated and standardized way. In intralogistics, it connects systems such as WMS, ERP, or TMS with one another and with external services.
Aktuator
An actuator is a technical component that converts electrical, pneumatic, or hydraulic control signals into mechanical movement or force. In intralogistics, actuators control conveyor belts, diverters, grippers, and lifting elements in automated systems.
Automatiklager
An automated warehouse is a fully or partially automated storage system in which the receipt, retrieval, transport and management of storage units are carried out without manual intervention, using conveyor technology, storage and retrieval machines, and a higher-level control software.
Automatisches Kleinteilelager (AKL)
The Automated Small Parts Warehouse (AKL) is a fully automated storage system for totes, trays and small parts, in which storage and retrieval operations are performed without manual intervention by stacker cranes or shuttle systems.
Hochregallager
A high-bay warehouse is an automated storage facility with racking from approximately twelve meters in height, where stacker cranes automatically store and retrieve pallets.
Kommissionierung
Order picking is the process of assembling individual items from warehouse stock to fulfill a specific customer order — the most labor-intensive step in the warehouse.

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Reduce error rate Automate warehousing Connect ERP, WMS & TMS Developing automation concepts Accompanying tendering & implementation Simulate scenarios & secure decisions