Skip to main content

Envisioning is an emerging technology research institute and advisory.

LinkedInInstagramGitHub

2011 — 2026

research
  • Reports
  • Newsletter
  • Methodology
  • Origins
  • Vocab
services
  • Research Sessions
  • Signals Workspace
  • Bespoke Projects
  • Use Cases
  • Signal Scanfree
  • Readinessfree
impact
  • ANBIMAFuture of Brazilian Capital Markets
  • IEEECharting the Energy Transition
  • Horizon 2045Future of Human and Planetary Security
  • WKOTechnology Scanning for Austria
audiences
  • Innovation
  • Strategy
  • Consultants
  • Foresight
  • Associations
  • Governments
resources
  • Pricing
  • Partners
  • How We Work
  • Data Visualization
  • Multi-Model Method
  • FAQ
  • Security & Privacy
about
  • Manifesto
  • Community
  • Events
  • Support
  • Contact
  • Login
ResearchServicesPricingPartnersAbout
ResearchServicesPricingPartnersAbout
  1. Home
  2. Research
  3. Spore
  4. Robotic Strawberry Harvesters

Robotic Strawberry Harvesters

Autonomous robots that pick ripe strawberries in greenhouses without bruising the fruit
Back to SporeView interactive version

Robotic strawberry harvesters combine SLAM navigation, hyperspectral imaging, and deep learning classifiers to detect ripeness, predict occluded fruit, and maneuver end-effectors through dense greenhouse foliage. Soft, compliant grippers or suction cups pluck berries without bruising and place them into punnet trays while simultaneously logging size, color, and quality data for packhouse analytics.

Indoor vertical farms and protected-culture growers deploy these robots to buffer chronic labor shortages, extend picking windows to night shifts, and maintain consistent quality for export markets. Systems from firms like Fieldwork Robotics and Traptic already achieve human-comparable pick rates while reducing repetitive strain injuries and enabling real-time yield forecasting.

Future harvesters will integrate swarm coordination, autonomous cart handling, and on-robot pollination modules, but challenges such as reducing capex, handling cultivar variability, and complying with sanitary design standards remain. Partnerships with breeders to create robot-friendly plant architecture and subscription pricing models will accelerate adoption across specialty crop regions.

TRL
6/9Demonstrated
Impact
4/5
Investment
4/5
Category
Hardware

Related Organizations

Advanced.Farm logo
Advanced.Farm

United States · Startup

95%

Develops robotic harvesting solutions for strawberries and apples using soft grippers and computer vision.

Developer
Agrobot logo
Agrobot

Spain · Company

95%

Spanish robotics company known for the E-Series strawberry harvester designed for raised beds.

Developer
Tortuga AgTech logo
Tortuga AgTech

United States · Startup

95%

Builds autonomous harvesting robots for table-top strawberry production in controlled environments.

Developer
Dogtooth Technologies logo
Dogtooth Technologies

United Kingdom · Startup

90%

Develops autonomous robots for harvesting soft fruits like strawberries, focusing on grading and packaging in-field.

Developer
Driscoll's logo
Driscoll's

United States · Company

90%

The world's largest berry company, actively investing in and piloting robotic harvesters (e.g., with abundant robotics/others).

Investor
Octinion logo

Octinion

Belgium · Company

90%

Engineering company that developed 'Rubion', a fully autonomous strawberry picking robot for greenhouses.

Developer
Organifarms logo
Organifarms

Germany · Startup

85%

German startup developing 'BERRY', a harvesting robot for strawberries in vertical farms and greenhouses.

Developer
Wageningen University & Research logo
Wageningen University & Research

Netherlands · University

85%

A top-tier university for agricultural research, specifically in greenhouse and vertical farming innovation.

Researcher
Ridder logo
Ridder

Netherlands · Company

80%

Dutch greenhouse technology firm offering the GRoW tomato harvesting robot, expanding capabilities into other crops.

Developer
Shibuya Seiki logo
Shibuya Seiki

Japan · Company

80%

Japanese machinery manufacturer that developed a strawberry harvesting robot in collaboration with NARO.

Developer

Supporting Evidence

Evidence data is not available for this technology yet.

Connections

Hardware
Hardware
Autonomous Field Robotics

Fleets of lightweight robots that weed, fertilize, pollinate, and harvest crops autonomously

TRL
7/9
Impact
5/5
Investment
5/5
Applications
Applications
Autonomous Agroecological Farms

Robot-managed polyculture farms that mimic natural ecosystems while recovering nutrients in closed loops

TRL
5/9
Impact
4/5
Investment
3/5
Hardware
Hardware
Next-Gen Indoor Farming Rigs

Modular vertical farms with tuned LED spectra and automated climate control for soil-free crop production

TRL
8/9
Impact
4/5
Investment
4/5
Hardware
Hardware
Swarm-Based Pollinator Drones

Autonomous micro-drones that transfer pollen across crops using swarm coordination and computer vision

TRL
4/9
Impact
5/5
Investment
3/5
Software
Software
Autonomous Farm OS

AI-driven platform coordinating sensors, machinery, and inputs across entire farm operations

TRL
7/9
Impact
5/5
Investment
5/5
Hardware
Hardware
Drone-Based Crop Spraying

Autonomous drones applying pesticides and nutrients with precision over difficult terrain

TRL
7/9
Impact
4/5
Investment
4/5

Book a research session

Bring this signal into a focused decision sprint with analyst-led framing and synthesis.
Research Sessions