Autonome Maschinen für Ernte, geprüft

Dutch selective white-asparagus harvesting robot from AvL Motion (Westerbeek, NL) — a diesel-electric, self-propelled platform that uses optical RGB/AI plus underground spear detection across 12 rotating harvest modules to locate and cut ripe stalks in the row. Vendor marketing repeatedly calls it "autonomous", but the manufacturer's own spec table and FAQ both confirm one operator must be present in the field to direct the robot via remote control and collect the harvested spears — so it is classified here as assisted, not autonomous. Second- generation model, in commercial development since 2017 and launched 2021; the manufacturer's own product page is live and actively soliciting demo requests as of July 2026.

Larger "pallet-scale" sibling of the base Burro cart — carries up to 680 kg (1,500 lb) and tows up to roughly 2,270 kg (5,000 lb) on flat terrain, versus the base Burro's ~227 kg (500 lb) capacity, aimed at nursery and orchard/vineyard operations moving pallets or loaded trailers through rows and corridors without a driver. Distinct from Burro's newer, higher-power "Grande 44" (44 hp, pre-order, deliveries H2 2026), which supersedes Grande at the top of the range.

US (Tampa/Plant City, FL) autonomous strawberry harvester — 16 independently working picking robots on a wide self-propelled chassis span six beds (picking the middle four), using stereo/AI vision to identify ripe fruit and soft clamp-and-cut end effectors to pick without hand contact. Harvest CROO offers it as a harvesting service (lease + operations), not equipment for sale. In April 2025 the company announced field trials at commercial-scale operations (grower-investor Wish Farms) reached performance "on par with human harvesting," but there is no public evidence yet of general commercial availability beyond its investor-grower partner farms.

UK-built selective-harvesting robot for green asparagus — self-navigates rows, uses computer vision to identify and measure ripe spears, then cuts and conveys them into onboard trays, letting one supervisor oversee up to ten units at once. Field-trialled since 2021 (Cobrey Farms, Herefordshire) and deployed on a small number of UK asparagus farms through 2024–25. Muddy Machines Ltd announced it was winding down in May 2025 after failing to close a further funding round, and Companies House lists the company as in liquidation as of mid-2026 — the machine is no longer sold, manufactured, or supported.

Spanish robotic strawberry harvester from Huelva with up to 24 independent picking arms that grip and cut the stem so fruit is never touched, guided by colour/infrared depth sensors and LiDAR. A long-running pioneer (field work in Huelva and California, early Driscoll's trials) — but Agrobot itself still labels the E-Series pre-commercial and 'not for sale, project on development' as of 2026, with thin recent public evidence of commercial deployments.

Cambridge/Plymouth-rooted raspberry harvesting robot with four soft picking arms and AI-enhanced 3D vision — spectral-frequency ripeness sensing removes human bias from pick decisions. Running a two-year harvesting-as-a-service programme with Place UK (Norfolk) and Littywood Farm (Stafford), backed by £3m funding; international trials planned in Portugal and Australia, commercial multi-robot fleets targeted from 2027.

Pittsburgh-built autonomous greenhouse tomato harvester running the first operational robot fleets in Dutch greenhouses — snack, plum and cherry tomatoes picked by suction with stereo vision at up to 43 kg/h and 98% ripe-detection precision. Fits existing commercial greenhouses with minimal modification; used by grower Westburg and at Syngenta's TomatoVision research facility.

Israeli dual-arm greenhouse robot that harvests vine tomatoes on pipe-rail systems using an AI 3D vision system, developed with Dutch greenhouse-tech partner Ridder. Running in Dutch greenhouses — validated at grower Lans in the 2025 NPPL-R trial by Wageningen UR (up to ~90% of eligible vines harvested, operator supervision still required) and picking ToBRFV-resistant varieties at Axia Vegetable Seeds' demo greenhouse.

German greenhouse strawberry harvesting robot from Konstanz-based Organifarms — detects ripeness with image recognition, cuts fruit at the stem without touching it, and packs directly into store-ready punnets with onboard weighing. Navigates greenhouse pipe rails autonomously and swaps crates itself, running 24/7 on batteries.

Israeli tethered flying robots that pick tree fruit — apples, peaches, nectarines, apricots, plums and pears — with AI vision selecting only ripe fruit and logging weight, colour and geolocation per fruit. Commercially harvesting with Rivoira Group in Italy, HMC Farms in California/Washington and Unifrutti in Chile, primarily as picking-as-a-service paid per harvested tonne; machine purchase offered since late 2023. Raised an $18M Series C in March 2026 with Kubota among investors.

American autonomous collaborative carrier — follows pickers or runs fixed A-to-B routes hauling harvest totes and materials; 550+ robots sold and ~300,000 autonomous hours across the US, Australia, New Zealand, the UK, Israel and Latin America.

Cambridge-built autonomous strawberry picker running commercially as picking-as-a-service — 50+ robots deployed in the UK and internationally, picking tabletop strawberries by night and day. Raised £14m in July 2026 to scale the fleet.

Strawberry-picking robot for tabletop systems; little public evidence of commercial rollout since ~2021, with Octinion's picking activities continuing under picking.technology — commercial status uncertain.