COLLABORATIVE AGRICULTURE / GREENHOUSE HARVESTING
People and robots.
One harvest.
A person handles the difficult fruit. A robot repeats the routine picks. An autonomous carrier keeps the crates moving.
Collaborative Harvest StudioTomato glasshouse
INTERACTIVE ENGINEERING DEMONSTRATORTHE WORK ORDER60 ripe tomatoes10 plants · one worker in every workflow
WORKSPACE CLEARSimulated separation response
Preparing the greenhouse…
BRIEFING 01 / 06
Drag to orbit · Scroll to zoom
Ready to harvest00:00 simulated time
HUMAN EXPERTReady
PICKING ARMReady
AUTONOMOUS CARRIERAt collection
01
FRUIT PICKED
Human 0 · Robot 00/ 60
02
FRUIT DELIVERED
At the dispatch point0/ 60
03
WORKER WALKING
Travel measured in this model0.0m
04
LOGISTICS DELAY
Buffer or collection delays0s
THE QUESTION BEHIND THE MACHINES
Where does collaboration
make a difference?
Compare the complete batch, including its final delivery. Faster picking alone does not guarantee a faster harvest.
Same crop. Same worker.Identical 60-fruit batch and configured cycle times. Equipment changes between workflows. Reference runs exclude live interventions. These are simulated outcomes, not field-trial results.
Controlled batch comparison
SIMULATED TO COMPLETIONWORKFLOWTOTAL BATCH TIMEWORKER WALKING
Evaluating the three workflows…
Human harvestingHuman + armConnected team
FROM DEMONSTRATOR TO DEPLOYMENT
Invest in the whole workflow.
01
Test crop compatibility
Validate reachability, detachment and product quality in the actual crop—not just arm speed.
02
Design the human role
Train operators for exceptions, shared-space access, recovery and clear transfer of control.
03
Measure delivered output
Include transport, downtime, capital costs and seasonal use before making an investment case.
Engineering collaboration that earns its place on the farm.
Adaptive AgroTech · Agricultural robotics, automation and system integration
