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Arable farming and agronomy teams · Regular plot-level imagery

AI System for Routing Field Images to Site Inspection

We design a system that places unusual colour, coverage and growth signals from images into a review queue without deciding whether crops are affected or what action to take. The workflow checks time- and plot-referenced field images, the crop cycle, weather records and field notes against their sources, then prepares a plot inspection map. No physical or operational change is made until an agricultural engineer or agronomist has completed the review.

Representative field observation panel with a work queue, checks and an audit trail: field imagery review queue
Field imagery review queue Representative interface — contains no real data. The map shows the observation area. The panel does not start field work or determine crop condition.

The problem

In day-to-day operations, areas requiring inspection across large plots may be identified late. When time- and plot-referenced field images, crop-cycle details, weather records and field notes are scattered across sensors, documents, field records or team systems, issues do not become visible in time.

This fragmented data delays preparation of the plot inspection map and forces teams to search for supporting evidence again by hand. Before making a decision, the agricultural engineer or agronomist must complete missing records and verify each conflict individually.

A common exception is that shadows, irrigation marks or the camera angle can create a similar appearance. Without this context check, incomplete or incorrect automation could flag a healthy area as problematic or miss a genuine issue, so no physical or operational action can be applied directly.

What we set out to improve

  • Proportion of flags that the specialist confirms require a site inspection
  • Proportion of outputs corrected or rejected by the agricultural engineer or agronomist
  • Time between the source event and the inspection output

How the system works

  1. 01 Define the review scope and the authorised agricultural engineer or agronomist role
  2. 02 Retrieve inputs: time- and plot-referenced field images, crop-cycle details, weather records and field notes
  3. 03 Check source identity, date, calibration or version, and data recency
  4. 04 Match each image to its plot and date
  5. 05 Compare visual differences with neighbouring areas and historical images
  6. 06 Check for an exception: shadows, irrigation marks or the camera angle can create a similar appearance
  7. 07 Route low-confidence or conflicting records to a separate specialist queue
  8. 08 Write the source identity, rule, output and timestamp to the audit trail
  9. 09 Have the agricultural engineer or agronomist approve, correct, defer or reject the output

Methods we used

  • Preclassification of image differences without suggesting crop conditions or chemical applications
  • Source, format, timing and required-field checks for time- and plot-referenced field images, crop-cycle details, weather records and field notes
  • A missing-data warning instead of an estimate when inputs are incomplete or conflicting
  • Separate evaluation of exceptions and the main rule
  • Combined retention of the source, rule result, plot inspection map and human decision

Where people stay involved

The system stops after preparing the plot inspection map. The agricultural engineer or agronomist reviews the sources and exception, then approves, corrects or rejects the output. Direct system action is disabled because it could flag a healthy area as problematic or miss a genuine issue; the final specialist and operational decisions remain with people.

Data and security

Access to time- and plot-referenced field images, crop-cycle details, weather records and field notes is limited to the minimum permissions required for the task. Commercial, location and employee information is masked where possible, and only the necessary subset of the raw dataset is passed to the model. Access, outputs and the agricultural engineer's or agronomist's decisions are logged; the system is not released to production until the organisation approves the retention period and data location.

Who this suits

A good fit

  • Farming operations with regular field imagery

Not a good fit

  • Operations that leave agricultural application decisions to the model

Frequently asked questions

What inputs are used?

Time- and plot-referenced field images, crop-cycle details, weather records and field notes are used. If a required field is missing, the system does not produce a definitive result and shows the missing source to the agricultural engineer or agronomist for review.

At what point does a person make the decision?

The workflow stops when the plot inspection map is ready and waits for approval from the agricultural engineer or agronomist. The specialist can correct, defer or reject the output with a recorded reason.

Can the output be audited?

The system is designed to retain the source identity, rule, exception, output and human decision together. This makes it possible to review later how each data point contributed to a suggestion.

Project led by:DijitalPi

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