Skip to content

a Midwestern US industrial battery manufacturer

Battery Handling Robot Cuts Direct Staffing 29% Across Six Stations

See how a Midwestern battery plant used one industrial handling robot across six cast-on-strap stations, cutting direct staffing from seven to five.

29%
lower direct staffing
7 to 5
workers on process
6
stations tended
2
workers reassigned

Based on a documented real-world deployment. Figures are from public reporting; the organization is not named.

A Laborious Process With Hazardous Touchpoints

A Midwestern US industrial battery manufacturer relied on an aging cast-on-strap process that placed substantial demands on labor, uptime and operator safety. Frequent breakdowns were costing the plant four to five production hours each week, while manual plate stacking and loading generated airborne lead dust and required heavier lifting.

The work also demanded unusual mechanical versatility. Battery plates weighing 300 pounds had to be aligned as many as 500 times per day, then carried through brushing, flux application, tin dipping, molten lead dipping and casing. Accuracy mattered at every handoff.

Management wanted a machine tending robot that could unite those operations, reduce direct staffing and produce more consistent assemblies. The equipment also had to reach machinery at different heights without compromising precise plate alignment.

  • Reduce exposure to airborne lead dust and heavy lifting
  • Replace breakdown-prone equipment that was more than 25 years old
  • Coordinate six distinct operations within one handling cell
  • Reassign labor to higher-value battery assembly work

One Handling Path Through Six Operations

The plant introduced one high-payload industrial handling robot at the center of the cast-on-strap cell. Selection hinged on payload, reach and repeatability, not novelty. The machine had to manipulate heavy plate groups accurately and serve equipment arranged at different heights.

Once operators fed the aligned plates onto a conveyor, the robot carried them through plate alignment, brushing, flux processing, tin dipping, molten lead dipping and final placement into a plastic case. Its tooling remained in place during a production run and was changed manually when the battery type changed.

Two employees completed a four-day operations and programming course, then trained plant operators on the functions required for daily use. Remote access was also built into the equipment for troubleshooting. The published account does not describe a phased rollout, so none should be inferred.

  • Match payload, reach and repeatability to the plate-handling task
  • Connect all six stations into a coordinated robot deployment and integration plan
  • Train internal personnel to operate the cell and pass practical knowledge to coworkers
  • Provide remote troubleshooting access for production support

Fewer Direct Roles and More Consistent Assemblies

Direct staffing on the process fell 29%, from seven workers to five. One worker moved plates from a pallet to a conveyor, two stacked and aligned the plates, one loaded plastic cases and one supervised the cell while changing tools and specifications when battery types changed.

The two workers no longer required on the process were reassigned to battery assembly. That shifted labor toward the final stages of production instead of removing those employees from the plant, while the robot absorbed the repetitive transport automation between process stations.

The manufacturer reported a visible improvement in product quality and significantly greater consistency. Operators also stopped lifting plates from the ground, and exposure air monitoring showed significant declines after airborne lead dust concentrations were reduced.

Capacity growth was presented as a target, not a completed result. After integration was finished, the plant expected production to rise from 400 to 1,000 battery cells per day, a 150% increase. The verified operational result at the time of reporting was the staffing change from seven workers to five, together with better consistency and safer material movement.

What This Example Means for Manufacturers

This documented deployment was not performed by Service Robot Co. and the manufacturer is not presented as a Service Robot Co. client. Its value lies in the operating pattern: a well-specified industrial robot can consolidate several hazardous, repetitive steps while preserving skilled employees for work that still benefits from human judgment.

Service Robot Co. applies that lesson as a full-service, OEM-neutral commercial robot integrator for US businesses. We select equipment across manufacturers, arrange financing, deploy and integrate each unit, train plant teams and service the equipment through a nationwide US engineer network. The manufacturer gets a single accountable vendor across the lifecycle.

For plants evaluating a machine tending robot, pallet transport robot or manufacturing plant robot rental, that lifecycle matters as much as the arm itself. Service Robot Co. can assess the task, compare hardware without brand bias and structure robot leasing for business or monthly payment programs alongside purchase options. Deployment planning, go-live support, remote triage and commercial robot repair service remain connected instead of being scattered across vendors.

Frequently asked questions

The robot aligned the plate groups, brushed debris from the connectors, completed flux processing, dipped the connectors into tin and molten lead, and placed the finished group into a plastic case. Together, those activities formed a six-station handling sequence.

More case studies

Find the robot that fits your site.

Free site assessment. We tell you what actually works before you spend a dollar.