an aerospace components plant in North Carolina
Mobile Manipulation AMRs Save $1.3M at an Aerospace Plant
See how an aerospace components plant in North Carolina used mobile manipulation AMRs to save $1.3 million within one year and refocus skilled labor.
- $1.3M
- savings within one year
- 20%
- less direct labor in part
- 1 year
- documented savings period
- 2019
- reported savings year
Based on a documented real-world deployment. Figures are from public reporting; the organization is not named.
Production pressure met scarce skilled time
An aerospace components plant in North Carolina needed dramatic rate increases to meet customer demand. Yet highly skilled operators were spending substantial time moving material around the facility instead of applying their expertise to production work.
This was more than a cart traffic problem. The plant needed repetitive transport automation that could move parts through the facility and manipulate them at machines, while fitting a lean manufacturing environment and supporting future scale.
- Release skilled operators from routine material movement
- Support demanding production rate increases
- Move and manipulate small aerospace parts at machines
- Create a deployment pattern capable of fleet expansion
A mobile platform paired transport with manipulation
The deployment team evaluated multiple AMR platforms and even considered building its own. It selected a compact autonomous mobile base, then integrated a manipulator and custom cart suited to small parts used inside aircraft engines.
The account describes a prove, learn and expand sequence. After the mobile manipulation AMR demonstrated value in the plant, the fleet expanded quickly, although the published sources do not disclose the fleet count or exact rollout schedule.
The source does not describe a formal training program. It does record a useful service lesson: a docking problem was traced to a dirty LiDAR, and cleaning the sensors once per shift was added to the operating manual.
- Evaluate platforms against the actual material flow and machine interface
- Match payload handling to the plant's smaller aerospace components
- Integrate the mobile base, manipulator and custom cart
- Convert field discoveries into repeatable operating practices
- Expand after the initial application proves its value
The financial return arrived within one year
The documented result was $1.3 million in savings within one year, reported for 2019. A later first-party account also states that direct labor going into the part fell 20% while skilled operators remained focused on the work they were trained to perform.
The gain came from changing who, or what, handled routine movement. Mobile machine tending absorbed transport and manipulation work, allowing scarce technical labor to spend more of its time on value-producing activity. The source reports no fleet count, uptime percentage or throughput increase, so none is inferred here.
A practical model for aerospace automation
This documented deployment was not run by Service Robot Co. It shows the kind of operational case the company can help another manufacturer assess: find the transport burden, define the machine interaction, choose the robot that fits the floor and build a credible business case before scaling.
Service Robot Co. is a full-service, OEM-neutral commercial robot integrator for US businesses. It handles robot selection, financing, robot deployment and integration, operator training and robot maintenance service plans through a nationwide US engineer network, giving customers one vendor for the whole lifecycle.
That model can support an autonomous mobile robot rental, AMR rental, material handling robot rental or purchase program according to the site's operating and capital requirements. Site assessment mapping, a commercial robot demo, a robot pilot program and go-live support keep the decision anchored to the workflow rather than a preferred manufacturer.