Business area digitalisation analysis

Crop production: digitalisation opportunities

How to connect fields, soil, crop condition, machinery, inputs, yield and field economics into one managed season.

Digital maturity

Typical digital maturity

Shows the level of technological and process digitalisation at which companies in the sector or business area typically operate today.

A typical market situation is assessed, not the most advanced companies.

The assessment consists of five equally weighted dimensions:

Core system usage
Whether ERP, CRM, WMS, MES, customer portals or other operationally important systems are widespread in companies.
Process digitalisation
How many core processes run in systems and how many are still managed manually.
Systems integration
Whether core systems exchange data between themselves or whether employees transfer information manually.
Data quality and readiness
Whether core data is structured, up-to-date, consistent and suitable for automation and analytics.
Advanced data use
Whether real-time analytics, forecasting, automated alerts, optimisation models or AI are used.

The final score is the average of the five dimensions.

1–5 scale

  • 1 very low maturity
  • 2 low maturity
  • 3 medium maturity
  • 4 high maturity
  • 5 very high maturity

A low maturity score does not necessarily indicate low potential. On the contrary, low maturity and a high level of manual work may indicate significant untapped digitalisation value.

average
Skaitmenizacijos potencialas

Digitalisation potential

Shows how much significant business value a typical sector or business area company can create by systematically digitalising core processes.

The rating is calculated on a 100-point scale across five dimensions:

Process frequency and scale 20 %
An assessment of how frequently the digitalised processes recur and what proportion of operations they represent.
Manual work intensity 20 %
An assessment of the extent to which processes depend on email, telephone, Excel, paper documents and repeated data entry.
Impact on revenue and costs 25 %
An assessment of the potential effect on sales, margin, customer retention, administrative costs, errors, downtime or inventory.
Growth and scale potential 20 %
An assessment of whether digitalisation would enable operational capacity to be increased without expanding headcount and costs at the same rate.
Impact on decisions and risk 15 %
An assessment of the potential effect on data reliability, decision-making speed, customer experience, and the reduction of errors and operational risk.

The final score is calculated according to the assessments and weights of all dimensions.

100-point scale

  • 0–20 very low potential
  • 21–40 low potential
  • 41–60 moderate potential
  • 61–80 high potential
  • 81–100 very high potential

A high score does not mean the solution will be easy to implement. It indicates the size of the potential value, not the implementation complexity.

89/100
Biggest challenge
Field, crop rotation and work history is fragmented
Biggest opportunity
Unified field and season decision platform

The value of crop production digitalisation emerges when every agronomic decision can be linked to actual work and measured field results.

Crop Production Operating Model

The business area encompasses commercial crop production in open fields and controlled environments – from soil and crop rotation planning to harvesting, storage and sales.

Short and Irreversible Operational Windows

Delayed sowing, spraying or harvesting cannot be fully compensated for later.

Large Geographical Data Context

Solutions must be linked to the specific field, zone, soil and actual location.

The result is determined by biology and weather

Technology can improve decision-making, but cannot eliminate all climatic and biological uncertainty.

Equipment is both a working tool and a source of data

The most valuable data emerges during actual work and must automatically flow back into the farm system.

Market and technology context

EU agricultural digitalisation priorities emphasise precision farming, better resource use, soil condition and the expansion of farm economic, environmental and social data through FSDN. The value of technologies is increasingly judged not by the number of sensors but by real change in costs, resilience and productivity.

  • Expensive and volatile production inputsFertiliser, seed, fuel and crop protection costs increase the need to apply inputs precisely and measure results.
  • Climate and soil resilienceMore frequent droughts, heavy rainfall and extreme seasons encourage the use of more local data, scenarios and soil condition monitoring.
  • EU farm sustainability data expansionFSDN, soil monitoring and support processes increase the need to reliably collect economic, environmental and social farm data.

Main business process

01

Field and crop rotation planning

Field boundaries, tenancy, soil, previous crops, market demand and agronomic constraints are evaluated.

02

Seasonal technological and financial plan

Varieties, seeds, fertilisation, plant protection, irrigation, work and budget standards are selected.

03

Sowing and maintenance operations

Machinery, operators, work windows, zonal tasks and actual execution are planned.

04

Crop monitoring and adjustments

Weather, satellite data, field inspections, diseases, weeds, moisture and growth risks are analysed.

05

Harvesting and storage

Maturity, quality, harvester and transport capacity, drying, warehouses and batches are assessed.

06

Sales and season analysis

Contracts and prices are compared with actual yield, quality, costs and field margin.

Digital maturity pathway

0

Paper-based and individual experience-driven management

Field plans, operations and input use are recorded in notes or separate spreadsheets, and seasonal results are assessed mainly at farm level.

1

Separate digital tools

Declaration, accounting, machinery and meteorological systems are used, but they do not provide a single view of the field and season.

2

Core operations digitalised

Fields and core activities are recorded digitally, but tasks, actual performance, warehouse data and corrections are often still entered manually.

3

Key field and season processes are integrated Typical current situation

For selected crops, the agronomic plan, machinery tasks, actual performance, input consumption, yield and costs are integrated at field and season level, but coverage is not yet consistent across the entire farm.

4

Production is forecast and optimised Siektina

Decisions are based on analysis of crop condition, weather, soil and previous seasons, with their value verified against yield, quality and margin.

5

Adaptive and ecosystem-open operations

Approved recommendations automatically convert into machinery tasks, and the farm securely shares necessary data with contractors, laboratories, buyers and cooperatives.

Key conclusion

In crop production, there are already many data sources: machinery, satellites, meteorology, soil analyses, warehouses and accounting. The main challenge is that they rarely form a single decision-making and learning cycle.

The first priority should not be autonomous machinery or complex AI, but one seasonal process in which the field plan is transmitted to the operator, actual performance is automatically recorded, and the outcome is evaluated by yield, quality and margin.

Related digitalisation topics

Farm management platformPrecision farming solutionsAgricultural machinery telematicsYield and field economics analytics
Next step

Link field plan, machinery performance and yield outcome

Assess which gap in field, agronomy, machinery, yield or economic data is currently creating the greatest cost and uncertainty.