Jacob Haight
All work

Strawberry Robotics

Co-founder & CTO, 2025–present

Public highlight reel. Select a chapter to jump to it. Everything shown is my simulation work or my perception model running on test scans.

The company

California strawberry growers lose crops because there aren't enough workers to harvest them, and conventional robot arms are too slow to pick profitably. Strawberry Robotics is building SHARP, a gantry-mounted, two-armed harvesting robot for strawberries and other canopy crops, with low-inertia hydrostatic arms designed for fast picks.

We were a two-person founding team. My co-founder Walt White led strategy and product; I owned the AI side end to end: simulation, perception, and robot learning.

Simulation

All of our robot learning ran through simulation. I built the strawberry environment in NVIDIA Isaac Sim with SHARP's custom arms, plant beds, and robot cameras, and used it to record teleoperated picks as training data. I also built a separate kinematics simulator of the full gantry and both arms.

SHARP robot model over a simulated strawberry bed in Isaac Sim
The SHARP arms over a simulated strawberry bed in Isaac Sim.
SHARP kinematics simulator showing the gantry robot driving along strawberry beds
The SHARP kinematics simulator.

Perception

To pick a strawberry cleanly, the robot needs to know where the stem attaches and which way it points. I trained a point-transformer model that segments depth scans of strawberry plants into leaves and berries and predicts each berry's stem attachment point and direction. I paired it with a YOLO detector in a single pose-estimation pipeline.

Segmented point cloud of a strawberry plant with leaves and berries separated and stem vectors drawn
The perception model on a test scan, separating leaves from berries and drawing each predicted stem vector.

Robot learning

We pursued three approaches to the picking policy in parallel, sharing one data format and one benchmark so progress on any of them helped the others. My work across them:

  • Imitation learning: recorded teleoperated demonstrations and trained a policy on a multistep picking task.
  • Foundation models: fine-tuned a large vision-language-action model on our own dataset.
  • Reinforcement learning: built an automated reward-shaping tool for training a novel dexterous robot, running across multiple machines.