automated stereoscopic warehouse

Automated Stereoscopic Warehouse Technical and Design Principles

With the vigorous development of the modern logistics industry, automated stereoscopic warehouses are gradually becoming the preferred solution for enterprise warehousing management due to their outstanding advantages. The planning and design methods and processes of the warehouses are provided for reference.

Core principles of planning and design

When planning and designing an automated warehouse, the following key principles should be followed:

1. Holistic thinking:

Considering the stereoscopic warehouse as a complete system, comprehensively consider all aspects such as layout, process, and equipment selection, and ensure its seamless connection with the entire supply chain.

2. Forward-looking layout:

Considering that the stereoscopic warehouse is a large fixed asset investment, it should be forward-looking and use advanced equipment to meet future development needs.

3. Prioritize economic benefits:

On the premise of meeting functional requirements, we are committed to optimizing investment costs and improving equipment utilization.

4. Process optimization:

Reduce unnecessary logistics links as much as possible to improve operating efficiency.

5. Equipment coordination:

Focus on the compatibility and standard unification between various types of equipment to improve the overall performance of the system.

6. Maximize space utilization:

Make full use of vertical space to increase storage density.

7. Improve the degree of automation:

Reduce manual operations and reduce error rates.

8. Safety assurance:

Ensure the safety of personnel, goods, and equipment, including fire prevention, collision prevention, and other measures.

9. Environmental protection and energy saving:

Consider the energy consumption control and environmental friendliness of the system.

Key performance indicators

During the planning and design process, the following performance indicators need to be focused on:

1. Storage capacity:

The overall storage capacity of the warehouse.

2. In-and-out warehouse efficiency:

The cargo handling capacity of the system.

3. Information processing capacity:

Including data collection, analysis, and management.

4. Peripheral logistics coordination:

The connection with loading and unloading, sorting, and other links.

5. Human-computer interaction:

The friendliness and ease of use of the operation interface.

System planning and design process

A complete automated warehouse planning and design process usually includes the following steps:

1. Demand analysis:

In-depth understanding of customer needs and determination of design goals and standards.

2. Cargo unit planning:

Based on the characteristics of the goods, determine the appropriate storage unit form and specifications.

3. Warehouse form and equipment selection:

Select the appropriate warehouse type and corresponding equipment according to the needs.

4. Layout design:

Develop a warehouse internal layout plan to determine the location and operating range of each equipment.

5. Process optimization:

Design efficient access mode and operation process.

6. Performance simulation:

Verify system performance through software simulation and make necessary adjustments.

7. Control system design:

Select appropriate control methods and warehouse management systems.

8. Technical parameter determination:

Clearly define the specific technical indicators of each device and system.

9. Interface definition:

Clearly define the responsibilities and scope of work of each party.

10. Auxiliary engineering planning:

Consider the needs of supporting facilities such as electricity, lighting, and temperature control.

11. Solution optimization:

Comprehensively consider various factors to form the final technical solution.

Procurement Recommendations

When purchasing automated high-bay warehouses, companies should pay attention to the following points:

1. Clarify functional requirements:

Including basic storage functions and special requirements.

2. Determine the degree of automation:

Choose the appropriate level of automation based on actual needs.

3. Consider auxiliary systems:

Such as monitoring, environmental control, etc.

4. Define the scope of procurement:

Clarify the supplier’s scope of supply and services.

5. Evaluate site conditions:

Ensure that the site is suitable for installing a high-bay warehouse system.

6. Develop a reasonable construction period:

Give sufficient time for implementation, taking into account the complexity of the system.

7. Pay attention to after-sales service:

Pay attention to the supplier’s service capabilities and response speed.

As a professional stacker crane rails supplier, Glory Rail has established cooperation with a number of logistics and storage solution providers and is committed to the integrated supply of raw materials for automated storage rail systems, including various conventional types of lifting rails, H-beam rails, and customized special shapes. track.

H-beam rail is one of the common forms of stacker crane rails. The European standard H-beam is mostly used. The rail can be fixed on the ground and the top through the connecting plate. The stacker runs smoothly. We reserve various types of H-beam rails all year round. The factory has a laser cutting and welding production line, which can provide H-beam rail and connecting plate welding processing, which can reduce the workload and processing time of the project site, improve the efficiency of on-site operations, and reduce engineering costs.

Implementation considerations

1. Focus on the overall performance of the system and avoid excessive pursuit of the ultimate performance of a single device.

2. Set reasonable performance requirements and balance costs and benefits.

3. Reserve sufficient implementation time to ensure system quality.

4. Pay attention to daily maintenance to extend the service life of the system.

5. Cultivate professional talents and improve system operation efficiency.

In short, the planning and design of automated warehouses is complex system engineering. Enterprises need to consider various factors comprehensively and formulate scientific and reasonable plans to maximize storage efficiency and minimize operating costs.

By strictly adhering to design principles and carefully planning each link, enterprises will be able to create an efficient, reliable and modern warehousing system, laying a solid foundation for future business development.