a pharmaceutical manufacturer's warehouse in New Zealand
Robotic Cube Storage Adds 30% Capacity in 10% of Space
See how a New Zealand pharmaceutical warehouse used robotic cube storage to add 30% capacity in 10% of its former space, without relocating.
- 30%
- more storage capacity
- 10%
- warehouse footprint used
- 4x
- faster picking rate
- 99.9%
- reported pick accuracy
Based on a documented real-world deployment. Figures are from public reporting; the organization is not named.
Growth Had Outrun the Available Footprint
A pharmaceutical manufacturer's warehouse in New Zealand was approaching its storage limits as retail, wholesale, and direct-to-consumer demand grew. Manual picking also constrained throughput, while rising inventory volumes intensified pressure on the existing building.
Relocation, warehouse expansion, and a separate storage facility were considered. Each path carried cost and operational complexity, so the operation sought denser storage and faster fulfillment inside the facility already in use.
- Increase storage density without constructing or acquiring another warehouse
- Raise picking performance beyond the limits of manual travel
- Improve inventory visibility, traceability, and operational control
- Create room for future growth within a constrained physical footprint
Dense Storage Brought Inventory to the Picker
The selected robotic cube-storage system placed inventory bins inside a compact vertical grid. A fleet of 13 robots retrieved the required bins and delivered them to 4 goods-to-person workstations, comprising 3 carousel-style stations and 1 conveyor-style station.
Operational data and growth forecasts shaped the configuration. The published account does not specify a formal phased rollout, training curriculum, or post-launch service schedule, although it reports minimal operational disruption during implementation.
- Compare in-building automation with expansion and off-site storage
- Model current demand, inventory behavior, and anticipated growth
- Configure the grid, robot fleet, workstations, and fulfillment workflows
- Retain expansion paths through additional robots, ports, or storage bins
More Capacity, Faster Picking, Less Space
The source reports a 30% increase in total storage capacity while the cube-storage installation occupied 10% of the warehouse footprint. Picking rose from 50 to 200 order lines per hour, a 4x increase, while end-to-end throughput from order receipt to dispatch improved 68%.
The system handled 1,200 of the facility's 1,400 SKUs and approximately 92% of 3,000 daily order lines. Reported order-cycle improvement reached 25%, and picking accuracy reached 99.9%, although the source provides no measurement window or independent audit methodology.
What This Example Means for US Operators
This documented deployment was not run by Service Robot Co. It is a real-world example we analyze because it shows how careful robot selection can relieve a genuine capacity constraint without turning automation into a construction project.
Service Robot Co. is a full-service, OEM-neutral commercial robot integrator for US businesses. As a vendor neutral robot integrator, we select equipment across manufacturers, arrange robot leasing for business and monthly payment programs, manage robot deployment and integration, train operating teams, and service every unit through a nationwide US engineer network. Clients get a single lifecycle vendor instead of coordinating equipment, financing, integration, training, and support separately.
For teams evaluating warehouse robot rental, material handling robot rental, or robot as a service, the lesson is practical. Begin with site assessment mapping and workload data, prove the operating case through a commercial robot demo or robot pilot program, and define service responsibilities before deployment.