Nearly 1,147 Autonomous Hours Across More Than 9,900 Acres

Fieldwork Could Not Wait for Labor to Catch Up

Sod production rewards repetition and timing. Mowing, rolling, seed drilling, rotovating, and teravating must follow the crop and field conditions, yet persistent farm labor constraints made that cadence difficult to sustain.

Inconsistent passes carry an agronomic cost. Delayed mowing can disturb uniformity, while excessive overlap wastes time in fields that must be covered again and again. The farm needed dependable execution without assigning a separate operator to every tractor.

• Maintain a more consistent mowing schedule
• Reduce avoidable overlap between field passes
• Extend productive field hours under active supervision
• Use the same autonomy platform for several recurring jobs

Autonomy Entered Through Practical Field Work

The farm introduced two autonomous tractor systems and applied them to mowing, seed drilling, rotovating, teravating, and rolling. Rather than confining autonomy to a demonstration route, the operation used it across the repetitive jobs that shape day-to-day sod production.

The source does not describe a formal phased rollout, but it documents a practical progression from learning the controls to broad field use and extended daily operation. The manager reported that the technology was easy to learn and could be operated or checked remotely from a phone.

Service remained part of the operating picture. When nighttime camera visibility became a constraint, the supporting field team added custom lighting beneath the cameras, improving the manager’s view during overnight work. That adjustment illustrates why robot deployment and integration must continue after commissioning.

• Choose repeatable field tasks with clear routes and quality expectations
• Train the responsible manager on dispatch, monitoring, and intervention
• Expand into additional compatible jobs after reliable operation is established
• Tune hardware and support procedures around real field conditions

Two Systems Accumulated Field Scale Experience

The two systems worked autonomously across more than 9,900 acres and accumulated nearly 1,147 operating hours. The source equates that runtime to more than 47 days of fully autonomous work.

One manager monitored both systems and consistently ran the pair for at least 15 hours daily. Remote access allowed him to check and operate the equipment away from the immediate field while retaining human oversight.

The operational gain was not framed as headcount elimination. It appeared in steadier mowing, less overlap, more frequent field coverage, and one manager supervising two autonomous systems across a varied workload.

The Integrator’s Job Begins Before the First Pass

This is a documented industry example that Service Robot Co. analyzes. The farm is not presented as a Service Robot Co. client, and Service Robot Co. did not claim responsibility for this deployment.

The lesson is directly relevant to our work as a full-service, OEM neutral commercial robot integrator for US businesses. Service Robot Co. assesses the application, selects suitable equipment across manufacturers, arranges financing, manages deployment, trains operators, integrates the working system, and services each unit through a nationwide US engineer network.

That lifecycle model matters in agriculture, where dust, darkness, changing field conditions, and long operating windows expose gaps that a specification sheet cannot predict. A robot pilot program should therefore test the task, supervision model, communications, visibility, and service path before broader adoption.

Customers can evaluate purchase financing or robot as a service structures, including programs with maintenance included. After deployment, remote triage and on-site dispatch remain with one accountable vendor, giving the operation one partner and one number for the working fleet.