Beijing Technology Development Co.,Ltd

12/02/2026

https://www.linkedin.com/pulse/custom-returnable-racks-automotive-parts-built-protection-li-q2jyc
Custom Returnable Racks for Automotive Parts | Built for Protection & Flow
Move sensitive automotive components with confidence. Our dedicated returnable racks and trolleys are engineered for stamped parts, gearboxes, brake discs, battery packs, engines, fuel tanks, and lighting assemblies. Each unit is built with welded steel frames, powder coating, and tailored locating fixtures to prevent scratches, deformation, and mix-ups. Stackable designs and forklift/tow/AGV compatibility improve line feeding speed and warehouse space utilization. If you need a durable, reusable packaging solution that supports lean manufacturing, let’s discuss your part drawings and handling process.

Move sensitive automotive components with confidence. Our dedicated returnable racks and trolleys are engineered for stamped parts, gearboxes, brake discs, battery packs, engines, fuel tanks, and lighting assemblies.

05/02/2026

Beverage Pallet AS/RS: Putting “High Density + High Throughput” Into One Warehouse
This beverage pallet AS/RS is built around high-bay racking with double-deep storage, turning traditional floor stacking into true vertical capacity. With a double-deep layout and narrow-aisle structure, it dramatically increases cube utilization—delivering 4–5× the storage density of a conventional flat warehouse on the same footprint. It’s a perfect match for the beverage industry, where SKUs are relatively concentrated, turnover is high, and full-pallet handling dominates: enough capacity for peak-season buffering, and enough speed for daily shipping pressure.
Operations are driven by a coordinated system of conveyors, lifts/transfer units, buffer stations, and stacker cranes. Full pallets enter via the inbound interface, then move through automatic identification/scanning, optional dimension/weight checks (project-dependent), buffering, and pace balancing. Stacker cranes place and retrieve pallets precisely within the high-bay aisles. The double-deep design balances density and performance: fast movers can be positioned for quicker access, while bulk inventory is consolidated deeper in the rack—so slotting reflects real order patterns, not just theoretical capacity.
Outbound flow follows the “reverse path” of inbound: WMS releases shipping tasks → the control system schedules moves → stacker cranes retrieve pallets → conveyors merge/divert → pallets are staged at shipping lanes. The recurring message “execute according to WMS shipping orders” highlights the real value here: order-driven ex*****on, controlled routing, and stable takt time. For beverage operations—often characterized by full-pallet dispatch and wave-based shipping—the system supports multi-lane parallel output and continuous flow, reducing waiting, congestion, and manual intervention. Shipping becomes predictable, almost like a production line.
One of the most visible results is that you barely see operators on the floor. People shift from “moving and searching” to light supervision, inspection, and exception handling. Safety fencing and segregated aisles keep heavy pallets moving inside a protected automated zone. Even under demanding conditions, this kind of setup can support thousands of tons of inbound/outbound volume per day, forming a closed-loop automation chain from storage to dispatch—high density, fast rhythm, low labor, and full traceability. That’s what a real automated three-dimensional warehouse looks like for the beverage industry.

05/02/2026

This beverage pallet AS/RS is built around high-bay racking with double-deep storage, turning traditional floor stacking into true vertical capacity. With a double-deep layout and narrow-aisle structure, it dramatically increases cube utilization—delivering 4–5× the storage density of a convent...

09/01/2026

How a 5-Million-Yuan Automated Warehouse Really Operates
A 5-million-yuan automated warehouse is not simply about stacking shelves and installing machines—it is about building an efficient, closed-loop logistics system. The operation starts at the warehouse front, where cartons are automatically palletized by a robotic arm, forming stable full pallets. These pallets are then transferred via conveyor lines to a handover station, where AGVs take over and transport them along predefined routes into the automated storage area.
Before entering storage, each pallet passes through shape and stability inspection to ensure it meets system standards. Qualified pallets are lifted by vertical elevators to designated levels of the racking system. Inside the dense storage area, four-way shuttle vehicles move freely in multiple directions, accurately delivering full pallets to assigned storage locations. This design maximizes space utilization while maintaining high throughput.
During outbound operations, the process runs in reverse. Full pallets are retrieved by the four-way shuttles, lowered by elevators, and transferred out by AGVs. At the same time, empty pallets are automatically returned to storage. Forklifts are only involved at the final interface, keeping human labor focused on low-frequency, flexible tasks. This is how a five-million-yuan automated warehouse achieves efficiency, density, and reliability in real-world operations.

17/12/2025

Intelligent Merging of Multi-Size Cartons for More Efficient and Orderly Logistics
This section shows the operation of a merging area under real working conditions. The system can simultaneously support the automatic merging and stable conveying of cartons with different sizes and weights. Through precise takt control and logical decision-making, it ensures that materials remain smoothly connected and operate with zero congestion even under high-throughput conditions.
The complete line solution adopts a highly modular design, flexibly combining standard units such as roller conveyors, curved conveyors, inclined belt conveyors, lift-and-transfer units, and wheel diverter sorters. It can be quickly configured and expanded according to on-site space, capacity requirements, and process flows.
During operation, the system can automatically identify carton status and dynamically adjust conveying speed and merging sequence, significantly reducing the need for manual intervention while improving overall operational stability and safety. This solution is widely applicable to scenarios such as e-commerce warehousing and distribution, manufacturing intralogistics, distribution centers, and smart factories, helping customers upgrade from “able to run” to “running accurately and running long-term.”
This is a practical application that deeply integrates equipment, algorithms, and on-site experience, and it is also an important step in the large-scale implementation of smart logistics.


https://www.linkedin.com/pulse/intelligent-merging-multi-size-cartons-more-efficient-jefferson-gong-fiyme

08/12/2025

From Storage to Cutting: Foxconn’s Fully Automated Sheet Metal Journey
This is not just automation — this is true end-to-end intelligent manufacturing.
At Foxconn’s advanced sheet metal workshop, every single metal sheet follows a completely automated journey — from high-density storage to laser cutting, with almost zero manual intervention. What you see here represents the real industrial standard of Industry 4.0 material flow.
The process begins as raw sheet metal is placed at the storage entrance and immediately taken over by the automated warehouse system. Through rail-guided transport and intelligent stacker cranes, each sheet is stored in a high-density vertical shelving system, maximizing space utilization and ensuring precise inventory control.
When production orders are released, the system automatically retrieves the required sheet metal, transfers it via overhead picking frames and conveyor systems, and accurately places each sheet onto the laser cutting table. From that moment on, cutting and blanking operations proceed seamlessly, driven entirely by automated scheduling and equipment synchronization.
This fully integrated system achieves:
• High-density intelligent warehousing
• High-speed automated retrieval
• Fully automatic feeding to laser cutting
• Complete unmanned blanking workflow
For Foxconn, this is more than efficiency—it is a transformation of the entire manufacturing logic. Labor dependence is dramatically reduced. Safety is significantly improved. Production rhythm becomes stable and predictable. Equipment utilization and overall OEE rise to a new level.
Most importantly, this system lays the core foundation for flexible manufacturing, digital factories, and smart industrial ecosystems. What we are witnessing here is not the future—it is already running on the shop floor today.

This is not just automation — this is true end-to-end intelligent manufacturing. At Foxconn’s advanced sheet metal workshop, every single metal sheet follows a completely automated journey — from high-density storage to laser cutting, with almost zero manual intervention.

08/12/2025

From Storage to Cutting: Foxconn’s Fully Automated Sheet Metal Journey
This is not just automation — this is true end-to-end intelligent manufacturing.
At Foxconn’s advanced sheet metal workshop, every single metal sheet follows a completely automated journey — from high-density storage to laser cutting, with almost zero manual intervention. What you see here represents the real industrial standard of Industry 4.0 material flow.
The process begins as raw sheet metal is placed at the storage entrance and immediately taken over by the automated warehouse system. Through rail-guided transport and intelligent stacker cranes, each sheet is stored in a high-density vertical shelving system, maximizing space utilization and ensuring precise inventory control.
When production orders are released, the system automatically retrieves the required sheet metal, transfers it via overhead picking frames and conveyor systems, and accurately places each sheet onto the laser cutting table. From that moment on, cutting and blanking operations proceed seamlessly, driven entirely by automated scheduling and equipment synchronization.
This fully integrated system achieves:
• High-density intelligent warehousing
• High-speed automated retrieval
• Fully automatic feeding to laser cutting
• Complete unmanned blanking workflow
For Foxconn, this is more than efficiency—it is a transformation of the entire manufacturing logic. Labor dependence is dramatically reduced. Safety is significantly improved. Production rhythm becomes stable and predictable. Equipment utilization and overall OEE rise to a new level.
Most importantly, this system lays the core foundation for flexible manufacturing, digital factories, and smart industrial ecosystems. What we are witnessing here is not the future—it is already running on the shop floor today.