HARVEST COLLECTION SYSTEM

Commercial-scale system for autonomous strawberry harvesting

Dogtooth Technologies' AI-powered harvest robot identifies ripe fruit in the field, performs precise stem cutting, and keeps quality standards stable throughout production.

Fertima brings this system to growers in Turkey; it reduces labor dependency, enables 24/7 continuous harvesting, and delivers measurable operational efficiency.

Daily Capacity 300 kg / day

With 3 shifts under suitable conditions.

Operating Time 24/7 operation

Night harvesting increases yield.

Quality Standard 16 parameters

Target ripeness band.

Strawberry harvest robot
Commercial-scale autonomous harvest application
TECHNOLOGY ECOSYSTEM

Harvest systems powered by Dogtooth infrastructure

Dogtooth Technologies' robotic harvesting infrastructure turns the imaging and decision layer into a field standard. The Fertima team supports this technology with local commissioning and operational processes.

Dogtooth Technologies
Dogtooth icon
HOW IT WORKS

4 steps from data to field execution

Imaging, decision, execution, and quality control run in a single loop.

01

Imaging

Ripe fruit is selected precisely with cameras and algorithms.

02

Precision picking

Dual-arm design enables fast harvesting with minimal damage.

03

Quality control

16-parameter grading maintains the target ripeness band.

04

Performance plan

Shift, battery, and capacity planning turns into operations.

Robotic harvest results
Operational results
RESULTS

Sustainable harvest flow against labor shortages

Labor scarcity and seasonal losses make robotic harvesting a strategic investment. It standardizes production while protecting quality for delicate crops like strawberries.

Stable quality band

AI vision selects ripe fruit and keeps the quality standard consistent.

Labor efficiency

Autonomous harvesting enables predictable, continuous labor flow.

Operational visibility

Harvest rhythm, quality criteria, and capacity become measurable.

Field inspection and quality control
Field inspection and quality control
FIELD SCENARIOS

Where robotic harvesting makes the difference

We make the harvest standard sustainable across different production models.

Greenhouses facing labor volatility

Predictable shift planning keeps harvest continuity stable.

Night harvest operations

24/7 harvesting reduces heat stress and improves quality.

Quality-critical crops

Ripeness and grading standards stay consistent across seasons.

Robotic harvest field
Field applications
ROI / EFFICIENCY

Turn investment into measurable performance

Harvest robotics delivers measurable impact on labor cost, quality loss, and daily capacity planning.

Lower labor cost

Seasonal labor volatility is reduced and shift planning becomes clear.

Reduced quality loss

Picking at the right ripeness lowers loss rates.

Operational efficiency

Capacity, route, and harvest rhythm align with a single standard.

Assumptions vary by greenhouse size, shift plan, crop type, and seasonal intensity.

Efficiency and performance visibility
Efficiency outputs
MAINTENANCE & SERVICE

Operational assurance after commissioning

System performance is maintained not only through installation but also through field follow-up and operational training.

  • Commissioning and go-live plan.
  • Operator training and shift scenarios.
  • Periodic maintenance and remote support.
WHO IT'S FOR

Operations that need a sustainable harvest standard

Robotic harvesting makes performance measurable where labor is scarce and quality standards are critical.

  • Growers seeking consistent quality for delicate crops like strawberries.
  • Producers aiming to reduce seasonal labor volatility.
  • Greenhouses targeting cooler night harvesting to reduce heat stress.
Quality control screen
Quality control and traceability