ROBOTIC HARVEST

Commercial-scale 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 robotic solution 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.

WHY ROBOTIC HARVEST

A sustainable harvest flow against the labor shortage

Labor scarcity and seasonal losses make robotic harvesting a strategic investment. Robots that harvest delicate crops like strawberries while protecting quality standards help standardize production.

  • AI vision that selects ripe fruit.
  • Gentle, fast picking with a dual-arm mechanism.
  • Night harvesting reduces heat stress.
Operator observing the strawberry harvest robot
Field operation and quality control
SMART HARVEST

Precision harvesting with AI

With the imaging and sensor layer, the robot selects strawberries at the target ripeness level; calibration and quality criteria are applied consistently in the field.

Precision Imaging

Ripe fruit is selected precisely with cameras and algorithms.

Dual-Arm Harvest

Dual-arm design enables high-speed harvesting with minimal damage.

Night Harvest

High-quality harvest during cooler night hours in the greenhouse.

Pruning Mode

Hanging branches can be pruned by switching three attachments.

Strawberry harvest robot quality control screen
Quality grading across 16 parameters
QUALITY & TRACEABILITY

Standardized harvest, measurable quality

The robot images each fruit from multiple angles, grades it with criteria such as white shoulder ratio, and protects the target quality band.

Quality Criteria 20%-30% White Shoulder
Imaging Multi-angle analysis
Selection Standard Target ripeness band
PERFORMANCE & ENERGY

Operational capacity plan

Robotic harvest planning scales with shift, battery, and daily capacity criteria. The values below summarize field reference ranges.

Single shift 8 hours / 100 kg
Daily capacity 300 kg / day
Battery set 2 + 2 backup
Charging time 5 hours
GREENHOUSE COMPATIBILITY

Fast integration with existing infrastructure

The robot is designed to work with standard heating rail infrastructure and table-top growing systems. It operates safely in glass or tunnel greenhouses.

Minimum 55 cm dual rail spacing
110 cm gutter (plant channel) width
Compatible with glass, tunnel, and table-top greenhouses
Safe operation with CE certification
SOLUTION SUMMARY

Challenge → Solution → Benefits

Robotic harvesting turns labor and quality variability into an operational standard.

Challenge

Seasonal labor volatility, night harvesting challenges, and quality losses.

Solution

The Dogtooth-powered robot selects ripe fruit and runs harvesting 24/7.

Benefits

  • Predictable capacity and shift planning
  • Stable quality band and measurable outcomes
  • Operational reporting and traceability
TECHNICAL DATA

Technical Specifications

Core technical parameters measured under field conditions.

Parameter Value
Daily capacity300 kg/day (under suitable conditions)
Operating time24/7, 3 shifts
Quality control16-parameter evaluation
Harvest mechanismDual-arm + precise cutting
CompatibilityMin. 55 cm rail spacing, 110 cm gutter
ApplicationGlass/tunnel greenhouses, table-top
INSTALLATION / COMPATIBILITY

Installation & Greenhouse Compatibility Requirements

Basic requirements for efficient field operation of the robotic harvest system.

  • Compatibility of rail and channel measurements
  • Field layout plan and route
  • Energy/charging infrastructure
  • Operator training and shift plan
Greenhouse compatibility check
Field compatibility and installation plan