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HomeTechnologiesJungheinrich

Automated Compact Warehouse System with Stacker Crane & Pallet Shuttle

by Jungheinrich Semi-Automated
Shuttle SystemsUnit Load AS/RS
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Quick Facts

Vendor
Jungheinrich
Automation Level
Semi-Automated
Key Features
5 Features
Applications
3 Use Cases

Technology Performance Metrics

Efficiency85%Flexibility80%Scalability75%Cost Effect.75%Ease of Impl.65%

Key Features

1Combines a stacker crane with a two-way pallet shuttle
2Designed as an automated compact warehouse system
3Makes optimum use of warehouse capacity
4Increases operational flexibility
5Boosts system throughput

Benefits

Optimizes warehouse storage capacity
Enhances operational flexibility
Increases overall throughput

🎯Applications

1Warehouses needing to maximize storage density and throughput
2Operations looking to automate pallet storage in a compact footprint
3Facilities seeking to improve space utilization and material flow efficiency

📝Detailed Information

Technology Overview

This automated compact warehouse system represents an integrated approach to high-density pallet storage, combining two established automation technologies: a stacker crane and a two-way pallet shuttle. It is designed for operations seeking to overcome the limitations of traditional storage by maximizing the use of their existing cubic space. The system addresses the core challenges of modern warehousing: the need to store more in less space (capacity optimization), adapt to changing inventory and order patterns (flexibility), and move goods in and out faster (throughput). By integrating a vertical stacker crane with horizontal shuttle-based deep-lane storage, it creates a dense, automated storage block that is both space-efficient and capable of high-speed operation, making it an ideal solution for facilities with constrained footprints but demanding performance requirements.

How It Works

Core Principles

The system operates on the principle of vertical-horizontal automation synergy. A central stacker crane provides high-speed vertical and horizontal travel to service multiple aisles or a storage block. Within each deep storage lane, a two-way pallet shuttle operates, automating the placement and retrieval of pallets from deep within the rack, which the stacker crane cannot access directly. The crane handles the interface between the shuttle lanes and the external conveyors or workstations.

Key Features & Capabilities

Integrated Stacker Crane and Shuttle Technology is the defining feature. This combination leverages the stacker crane's speed and reach across a wide area with the shuttle's efficiency in deep-lane storage, creating a system that is both fast and extremely dense.

Two-Way Pallet Shuttle for Deep-Lane Storage enables high-density storage. Unlike a traditional drive-in setup, the shuttle automates the placement and retrieval of pallets within lanes that can be many pallets deep, maximizing storage capacity per square meter of floor space.

Automated Compact Design focuses on space optimization. The entire system is engineered to fit into a minimal footprint, utilizing height and depth to store a maximum number of pallets, which is ideal for retrofitting into existing buildings or constructing new, cost-effective facilities.

Advantages & Benefits

The primary advantage is exceptional storage density and capacity optimization. By utilizing deep-lane storage managed by shuttles and vertical space accessed by the crane, the system can often double or triple the storage capacity of a given area compared to selective pallet racking.

It delivers increased throughput and operational flexibility. The stacker crane can service multiple lanes quickly, and the shuttles automate the slowest part of deep-lane handling. This setup allows for faster stock rotation than manual deep-lane systems and can handle a mix of SKUs more effectively.

The system boosts overall warehouse productivity and efficiency. Automation reduces reliance on manual forklift operations for storage and retrieval, leading to fewer errors, less product damage, improved safety, and the ability to operate in tighter spaces or colder environments.

Implementation Considerations

The system's performance is highly dependent on the coordination between the stacker crane and the shuttles. Sophisticated WCS software is required to manage task sequencing, avoid bottlenecks, and optimize the crane's travel path to service multiple shuttle lanes efficiently.

It is ideally suited for LIFO or batch storage patterns within each lane. While more flexible than a pure drive-in, strict FIFO access across an entire deep lane can be challenging without dedicating lanes to single SKUs or implementing complex shuttle and crane sequencing.

While compact, the system requires a significant upfront investment in automation hardware (crane, shuttles, controls) and software. The return on investment must be justified by gains in space savings, labor efficiency, and throughput.

Use Cases & Applications

Ideal For

This system is ideal for manufacturing plants needing high-density raw material or finished goods storage, distribution centers with homogeneous palletized products, and cold storage facilities where maximizing cubic space and minimizing energy loss are critical.

Performance Metrics

The content emphasizes qualitative performance gains: optimum use of capacity, increased flexibility, and boosted throughput. Key inferred metrics include a high storage density (pallets per m²), improved pallet moves per hour compared to manual systems, and enhanced space utilization.

Conclusion

The automated compact warehouse system combining a stacker crane with a two-way pallet shuttle offers a powerful and efficient solution for maximizing pallet storage in space-constrained facilities. It successfully bridges the gap between high-density storage and automated access speed. For businesses looking to significantly increase storage capacity without expanding their building footprint, automate labor-intensive pallet handling, and improve overall material flow efficiency, this integrated system presents a compelling option. Careful analysis of inventory flow patterns (favoring deep-lane storage) and throughput requirements is essential to ensure it is the right fit. When implemented correctly, it can transform warehouse operations by creating a dense, fast, and reliable automated storage core.