Primary navigation architecture
Current models by navigation class
| Brand / model | Primary class | Manufacturer description | Coverage | Slope | Source |
|---|---|---|---|---|---|
| ANTHBOT M5 LiDAR | LiDAR-led | 360° LiDAR + dual vision | 0.124 ac | — | Official source ↗ |
| Dreame Roboticmower A1 | LiDAR-led | OmniSense 3D LiDAR | 0.5 ac | 45% | Official source ↗ |
| Dreame Roboticmower A1 Pro | LiDAR-led | OmniSense 3D LiDAR | 0.494 ac | 45% | Official source ↗ |
| Dreame Roboticmower A2 | LiDAR-led | OmniSense 2.0 LiDAR + HDR camera | 0.741 ac | — | Official source ↗ |
| ECOVACS GOAT A3000 LiDAR PRO | LiDAR-led | HoloScope 360 Dual-LiDAR + AI camera | 0.75 ac | 50% | Official source ↗ |
| ECOVACS GOAT A2000 LiDAR PRO | LiDAR-led | HoloScope 360 Dual-LiDAR + AI camera | 0.5 ac | 50% | Official source ↗ |
| ECOVACS GOAT O1000 LiDAR PRO | LiDAR-led | Multi-line LiDAR + 3D ToF + AI camera | 0.25 ac | 45% | Official source ↗ |
| Hookii Neomow X2 | LiDAR-led | 3D LiDAR + AI camera | 1 ac | 45% | Official source ↗ |
| Mammotion LUBA 3 AWD 1500 | LiDAR-led | 360° LiDAR + NetRTK + dual-camera AI vision | 0.37 ac | 80% | Official source ↗ |
| Mammotion LUBA 3 AWD 3000 | LiDAR-led | 360° LiDAR + NetRTK + dual-camera AI vision | 0.75 ac | 80% | Official source ↗ |
| Mammotion LUBA 3 AWD 5000 | LiDAR-led | 360° LiDAR + NetRTK + dual-camera AI vision | 1.25 ac | 80% | Official source ↗ |
| Mammotion LUBA mini 2 AWD 1500 | LiDAR-led | 360° LiDAR + dual-camera AI vision | 0.37 ac | 80% | Official source ↗ |
| Mammotion YUKA mini 2 1000H | LiDAR-led | 360° LiDAR + AI vision | 0.25 ac | — | Official source ↗ |
| Segway Navimow Navimow i215 LiDAR | LiDAR-led | LiDAR + vision | 0.37 ac | 45% | Official source ↗ |
| ANTHBOT N8 | Other / hybrid | Multi-sensor autonomous mowing | 0.371 ac | — | Official source ↗ |
| Husqvarna Automower 410 iQ | Physical-boundary | Physical or virtual boundary | 0.5 ac | — | Official source ↗ |
| Husqvarna Automower 420 iQ | Physical-boundary | Physical or virtual boundary | 1 ac | — | Official source ↗ |
| Husqvarna Automower 440 iQ | Physical-boundary | Physical or virtual boundary | 2 ac | — | Official source ↗ |
| Husqvarna Automower 435 iQ AWD | Physical-boundary | Physical or virtual boundary | 1.3 ac | 70% | Official source ↗ |
| Husqvarna Automower 435X AWD | Physical-boundary | Physical boundary | 0.9 ac | — | Official source ↗ |
| ANTHBOT M5 | Satellite / RTK-led | Full-band RTK + dual vision | 0.124 ac | — | Official source ↗ |
| ANTHBOT M9 | Satellite / RTK-led | Full-band RTK + dual vision | 0.247 ac | — | Official source ↗ |
| ANTHBOT Genie 600 | Satellite / RTK-led | Full-band RTK + multi-camera vision | 0.22 ac | 45% | Official source ↗ |
| ANTHBOT Genie 600e | Satellite / RTK-led | Full-band RTK + multi-camera vision | 0.22 ac | 45% | Official source ↗ |
| ANTHBOT Genie 1000 | Satellite / RTK-led | Full-band RTK + multi-camera vision | 0.49 ac | 45% | Official source ↗ |
| ANTHBOT Genie 3000 | Satellite / RTK-led | Full-band RTK + multi-camera vision | 0.89 ac | 45% | Official source ↗ |
| GOKO M6 | Satellite / RTK-led | RTK + VSLAM + AI QuadVision | 2 ac | — | Official source ↗ |
| Kress KR286 EyePilot 4x4 RTKn | Satellite / RTK-led | EyePilot 4×4 RTKn | 1.5 ac | 84% | Official source ↗ |
| Kress KR284 EyePilot 4x4 RTKn | Satellite / RTK-led | EyePilot 4×4 RTKn | 1 ac | 84% | Official source ↗ |
| Kress KR282 EyePilot 4x4 RTKn | Satellite / RTK-led | EyePilot 4×4 RTKn | 0.5 ac | 84% | Official source ↗ |
| Kress KR161 RTKn | Satellite / RTK-led | RTKn | 0.25 ac | 40% | Official source ↗ |
| Kress KR172 RTKn | Satellite / RTK-led | RTKn | 0.5 ac | 40% | Official source ↗ |
| Kress KR173 RTKn OAS | Satellite / RTK-led | RTKn + OAS | 0.75 ac | 40% | Official source ↗ |
| Kress KR174 RTKn OAS | Satellite / RTK-led | RTKn + OAS | 1.25 ac | 40% | Official source ↗ |
| Segway Navimow Navimow X315 | Satellite / RTK-led | EFLS 3.0 RTK + vision | 0.5 ac | 50% | Official source ↗ |
| Segway Navimow Navimow X330 | Satellite / RTK-led | EFLS 3.0 RTK + vision | 1 ac | 50% | Official source ↗ |
| Segway Navimow Navimow X350 | Satellite / RTK-led | EFLS 3.0 RTK + vision | 1.5 ac | 50% | Official source ↗ |
| Segway Navimow Navimow X390 | Satellite / RTK-led | EFLS 3.0 RTK + vision | 2.5 ac | 50% | Official source ↗ |
| Segway Navimow Navimow i206 AWD | Satellite / RTK-led | Network RTK + vision | 0.15 ac | 45% | Official source ↗ |
| Segway Navimow Navimow i210 AWD | Satellite / RTK-led | Network RTK + vision | 0.25 ac | 45% | Official source ↗ |
| Segway Navimow Navimow i105 | Satellite / RTK-led | RTK + vision | 0.125 ac | 30% | Official source ↗ |
| Segway Navimow Navimow i110 | Satellite / RTK-led | RTK + vision | 0.25 ac | 30% | Official source ↗ |
| Segway Navimow Navimow H800-VF | Satellite / RTK-led | EFLS RTK + VisionFence | 0.2 ac | — | Official source ↗ |
| Segway Navimow Navimow H1500-VF | Satellite / RTK-led | EFLS RTK + VisionFence | 0.37 ac | — | Official source ↗ |
| Segway Navimow Navimow H3000-VF | Satellite / RTK-led | EFLS RTK + VisionFence | 0.74 ac | — | Official source ↗ |
| Sunseeker X7 | Satellite / RTK-led | RTK-GNSS + VSLAM | 3 ac | 70% | Official source ↗ |
| Worx Landroid Vision Cloud 1/4 Acre | Satellite / RTK-led | RTK Cloud + stereo camera + V-SLAM | 0.25 ac | 30% | Official source ↗ |
| Worx Landroid Vision Cloud 1/2 Acre | Satellite / RTK-led | RTK Cloud + vision/V-SLAM | 0.5 ac | — | Official source ↗ |
RTK is dominant, but increasingly hybrid
Satellite positioning appears across a large share of current models, usually as RTK, network RTK, GNSS, EPOS, or a branded derivative. Many of those machines also add cameras or VSLAM for obstacle handling and local positioning, so “RTK mower” increasingly describes the global positioning layer rather than the entire navigation stack.
Where LiDAR changes the tradeoff
LiDAR can reduce dependence on an external satellite reference environment and can be attractive around buildings, tree cover, and complex geometry. It does not eliminate every navigation constraint: line-of-sight, reflective surfaces, object recognition, map quality, and the manufacturer’s software implementation still matter.
Vision is usually a second layer, not a simple replacement
Camera and VSLAM systems can support obstacle recognition, local localization, edge understanding, and recovery when another positioning source is imperfect. The dataset shows why “RTK vs vision” can be a false binary: many products deliberately combine the two.
Physical boundary systems are not automatically obsolete
Boundary-wire systems trade installation effort for a very explicit operating perimeter. For some simple lawns, that predictability can remain useful. Wire-free systems are more flexible when zones or boundaries change, but they shift more responsibility to positioning hardware and software.
Methodology and classification
This study uses navigation descriptions captured in the YardVerdicts Robot Mower Database. For the exclusive “primary architecture” chart, rows mentioning LiDAR are classified as LiDAR-led first; otherwise RTK/GNSS/EPOS/RTKn systems are grouped as satellite-led, followed by vision-led, physical-boundary, and other/hybrid. The headline technology counts are non-exclusive, because one mower can legitimately contain both RTK and vision.