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Archive explained · farm automation

From open fields to orchards: the work behind farm autonomy

Revisit John Deere’s CES 2025 announcement through tillage and orchard work, connecting perception, implements and remote supervision.

A John Deere tractor pulling a tillage implement across a large field
A field-work photograph accompanying John Deere’s CES 2025 autonomy announcement, showing the tractor and its tillage implement.John Deere (new tab)

Different autonomous work in open fields and orchards

In its 6 January 2025 CES announcement, John Deere described an expansion of agricultural autonomy, including the 9RX for large-field tillage and the 5ML for orchard spraying. Both travel through a farm, but their spaces and implements differ. As an editorial comparison, open fields invite questions about working width and long routes, while orchards add passages between trees and nearby branches. This archive examines the relationship between autonomous travel and farm work. An announced plan identifies a target task; it does not establish deployment results on every farm.

Talos perspective · following a route and completing the work

Completing a route does not by itself establish the quality of the farm work. A weeding task must protect the crop, and a tillage implement must cover the intended area. Separating travel records from work outcomes clarifies what an evaluation should measure. It also reveals preparation when field shapes or row spacing change. Our editorial question extends beyond whether a driver occupies the cab: who sets the task, notices interruptions and assesses what is needed before work resumes?

Sensing the surroundings and supervising the work

The announcement describes camera-based perception for the 9RX and added LiDAR on the 5ML for dense orchard canopies. It also presents mobile access to video and work information, with notifications about machine or job-quality issues. These examples connect sensing to the intended setting and supervision. In reading such a system, distinguish automated tasks from decisions still made by a person. Beyond a sensor list, useful questions concern the obstacles observed, the reasons for a stop and the information sent to the operator.

The same field can present different conditions

Imagine working the same section on a clear day and after rain. The route can stay fixed while the soil under the wheels and the observed surface change. As crops grow, leaves may obscure previously visible space. This is an illustrative scenario, not an additional experiment with the featured machines. Weather, growth stage, implement configuration and human intervention help explain what a reported result actually covers. Records across different conditions are therefore more informative than one demonstration.

Why read large tractors alongside smaller weeding robots?

Farm automation does not follow a single machine design. FarmDroid FD20 uses positions recorded at seeding for subsequent mechanical weeding. Automating the route of a large machine and refining work around individual plants address different tasks. Compare the beginning and end of those tasks before comparing size: does information from seeding support later work, which records explain the outcome, and who decides when exceptions arise? Progress can be understood through the connections between jobs as well as the speed of travel.

THE QUESTION THAT REMAINS

What to look for next

Can the records distinguish completing the route from completing the farm work well?

SOURCE & CONTEXT

Sources and context

Talos adds interpretation and questions to source-based reporting. Illustrative scenarios are labeled separately from experimental results. Consult these resources for conditions and the scope of the work.

TALOS / ROBOTICS, IN PERSPECTIVENews collection