A dual-arm robotic platform that sees, reaches, and picks ripe strawberries at commercial speed — fully autonomous, row by row, all day long. Built from the ground up for protected-environment agriculture.
A differential-drive mobile base, dual precision manipulators, and an NVIDIA-first perception stack — engineered to navigate greenhouse rows and harvest at the pace growers need.
Two independent robotic arms work in coordinated tandem, each equipped with a Da Vinci-inspired cable-driven end effector. A precision jaw grasps the fruit while an integrated blade makes a clean calyx cut — gentle enough to preserve shelf life, fast enough to hit commercial throughput.
YOLO-based real-time detection identifies ripe berries by color, size, and occlusion state. OAK 4D stereo depth cameras deliver millimeter-accurate 3D localization for each target — enabling precise reach planning even in dense canopy conditions.
ROS 2-native navigation stack with differential-drive kinematics. EVE-01 travels at 0.1 m/s during active harvesting, autonomously transitioning between rows and returning to collection points. RadioMaster ELRS RC provides field-ready manual override.
Every inference cycle runs on-board. No cloud dependency, no latency penalty, no connectivity risk — designed for the reality of greenhouse operations where Wi-Fi drops and uplinks fail.
NVIDIA Jetson-powered compute delivers real-time inference for detection, depth mapping, and motion planning — all at the edge with zero cloud dependency.
OAK 4D stereo cameras combine RGB and depth in a single pipeline, feeding fruit coordinates directly to the arm motion planner at high frame rates.
Dual servo DC drive wheels with 1:50 traction gearing deliver the torque and control needed for smooth greenhouse-floor navigation at harvesting speeds.
Inspired by the Da Vinci surgical system. Cable-driven jaw provides compliant fruit grasping while an integrated blade achieves clean, consistent calyx cuts.
A dedicated 400W servo motor with 1:70 gear ratio enables tight-radius maneuvering through narrow greenhouse aisles with encoder-precise positioning.
RadioMaster TX16S Mark II with ELRS provides long-range manual override directly publishing to ROS 2 cmd_vel — ready for any field scenario.
A tightly integrated pipeline where every stage runs locally on EVE-01 — no round trips, no cloud queues, no single points of failure.
OAK 4D cameras capture RGB + depth at high frame rate, fused into a unified point cloud.
~4 msYOLO model classifies ripeness, estimates berry pose, and ranks pick priority in real time.
~16 msMotion planner generates collision-free arm trajectories coordinated with base movement.
~22 msCable-driven gripper grasps and blade cuts in a single fluid motion, depositing into tray.
~3.4 s
A purpose-built operations console ships with every fleet. Live telemetry, ROS-grade debug, agronomy logs, mission planning, and consumer transparency — all in one editorial-clean interface designed for greenhouse managers, not data engineers.
EVE-01 doesn't just pick — it scouts. Every pass through a row generates a per-plant health record, with disease and pest detection running on the same vision pipeline. The console surfaces only what needs your attention.
Each tray of strawberries leaving an EVE-01-managed greenhouse carries a QR code linked to its origin record — the exact row, the exact pick day, the exact agronomy decisions behind it. A first in the category.
The numbers behind every claim. Validated through 200+ hours of supervised greenhouse trials in Block A, Marneuli.
We're partnering with a small group of forward-thinking growers across the Caucasus. Every trial pairs hardware with full operator training and a NeuraPick engineer on-call.
Marneuli · 24 rows · 8,400 m²
Camarillo, California · 18 rows · 5,200 m²
Telavi · 64 rows · 28,400 m²
We didn't set out to build the cleverest robot. We set out to build the one that shows up tomorrow morning — and the morning after that. That's harder than it sounds, and it's the only thing that matters in a working greenhouse.
Greenhouses lose Wi-Fi. We never assume the cloud is reachable. Every inference, every plan, every fail-safe runs on-board.
Cable-driven actuators inspired by surgical robotics. The fruit barely knows it was picked — and the shelf life proves it.
A real e-stop, a real ELRS override, a real way to take control. Robots that earn trust, not demand it.
We're partnering with growers for 2026 commercial pilots. Tell us about your operation — we'll respond within 48 hours with a tailored deployment plan.