AI for the Family Orchard.

Your Equipment + Our Brain

Leverage Every Investment You’ve Already Made

The reason humanoid robots are revolutionary for small orchards isn’t the robots themselves — it’s that they fit into your world. Unlike specialized ag-bots that need custom infrastructure, humanoid robots use the same equipment your human crew uses today.

How Humanoids Use Your Existing Equipment

• Pickup Trucks & EVs. Robots ride in the bed of your GM Sierra EV, Ford F-150 Lightning, or any standard pickup. They climb in, ride to the block, and hop out — no specialized autonomous vehicle needed. EV trucks with Pro Power Onboard outlets double as mobile charging stations, giving robots 240V recharge capability right at the row end.
• Side-by-Sides & ATVs. A Unitree G1 at 35 kg fits easily on a Polaris Ranger or John Deere Gator. Robots ride between blocks, carrying drone cases and harvest bins, using the same trails your crew uses today.
• Orchard Ladders. The H1 stands 180 cm tall and can reach mid-canopy without a ladder. The G1 at 127 cm uses standard 8–12 foot orchard tripod ladders exactly the way your pickers do — climbing rungs, stabilizing with one hand, picking with the other.
• Hand Tools & Picking Equipment. Harvest bags, picking poles, pruning shears, loppers — humanoid hands can grasp and operate the same tools your crew trains on. No custom end-effectors or proprietary attachments.
• Electric Outlets & Farm Power. Your existing barn outlets, generator hookups, and EV truck power ports all work. The Unitree G1 charges from any standard outlet in under 2 hours. No charging infrastructure buildout.

Humanoid Harvesting

Robots That Pick Like Humans — But Don’t Get Tired

The core advantage of humanoid form factor is simple: orchards were designed for humans. Every row width, ladder angle, and bin placement was engineered around a human body. Humanoid robots slot into that world natively.

How the Harvest Works

• Dawn Deployment. Your EV truck rolls to the block. Robots step out of the bed, pull ladders from the rack, and grab harvest bags. OrchardBrain AI™ assigns each robot a row based on yield predictions from the latest drone survey.
• Ladder Work. Robots position tripod ladders, climb to picking height, and work the canopy systematically. The H1’s 180 cm height reaches 2.5 meters without a ladder; on an 8-foot ladder, it reaches the full canopy of standard semi-dwarf rootstock.
• Selective Picking. Each robot follows OrchardBrain AI™’s harvest spec — minimum color, size, and ripeness thresholds configured per variety. Under-ripe fruit is tagged in the Digital Twin for the next pass in 3–5 days.
• Continuous Operation. No lunch breaks, no heat exhaustion, no overtime. Robots work dawn-to-dusk on a single charge, swap batteries in 2 minutes at the truck, and resume. In cool weather, they work overnight with LED headlamps.
• Human Crew Augmentation. OrchardBrain AI™ doesn’t replace your crew — it augments them. Robots handle the repetitive ladder picks in outer rows while your experienced team focuses on premium interior fruit that requires judgment calls.

Self-Sufficient Swarm

Robots That Repair Each Other — Miles from Anyone

Small orchards are often remote. Cell signal is weak or nonexistent. The nearest technician is an hour away. OrchardBrain AI™ solves this with self-sufficient robot teams that maintain themselves, maintain the drones, and build their own communications network.

Field Self-Repair

• Robot-to-Robot Maintenance. If a robot detects an actuator fault, joint misalignment, or sensor calibration drift, a teammate robot performs the repair. The Unitree G1’s modular magnetic interfaces allow tool-free module swaps in under 2 minutes — one robot holds the component while the other clicks in the replacement.
• Drone Repair. Bent propellers, loose camera gimbals, firmware glitches — humanoid robots carry spare parts and repair drones in the field. OrchardBrain AI™ diagnoses the issue remotely and guides the robot through the repair sequence step by step.
• Mutual Assistance. Robot stuck in soft soil? Tangled in a thorny branch? A teammate walks over and pulls it free. The H1’s 360 N·m knee torque can extract itself and assist others from situations that would strand a wheeled robot.
• Spare Parts Cache. A lockbox mounted on the EV truck bed holds replacement fingers, propellers, batteries, and sensor modules. Robots access the cache autonomously, logging every part used so you get a restocking alert on your phone.

Self-Healing Mesh WiFi Network

• Every Robot is a Network Node. Each humanoid carries WiFi 6 (802.11ax) hardware. In the field, robots form an ad-hoc mesh network, relaying data between each other and back to the Orchard Node at the equipment shed. Range extends dynamically as robots spread across the orchard.
• Starlink Satellite Backhaul. A compact Starlink dish mounted on the EV truck or a field post provides internet uplink. The mesh network bridges every robot to the cloud — even 2 miles from the nearest cell tower.
• Widebeam Point-to-Point. For orchards spanning multiple hills or valleys, directional widebeam WiFi links between robot clusters maintain high-bandwidth connections over 1–2 km, creating a multi-hop backbone that follows the terrain.
• Graceful Degradation. If satellite goes down, the mesh continues operating on local intelligence. The Orchard Node caches all AI models and the Digital Twin locally, so robots keep picking, scouting, and repairing using edge AI until connectivity returns.
• DDS Real-Time Protocol. Under the mesh, robots communicate via CycloneDDS — the same microsecond-latency protocol used in autonomous vehicles — sharing obstacle maps, task assignments, and quality data across the swarm in real time.