OpenMower: Open-Source Robotic Lawn Mower With RTK GPS

OpenMower is an open-source robotic mower conversion platform, not a finished retail appliance. It replaces the closed electronics in a compatible donor mower with custom hardware, ROS-based navigation, low-level firmware, an app, and RTK-GPS positioning. The best-supported first build is based on the YardForce Classic 500(B), with a typical project estimate of about €700 excluding the donor mower and any local RTK base station.

OpenMower is not a finished robotic mower you buy and install. It is an open-source conversion platform that replaces the closed control electronics in a compatible robotic mower with open software, custom hardware, low-level motor-control firmware, a web/mobile interface, and RTK-GPS navigation.

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For most builders, the sensible starting point is a documented YardForce Classic 500(B) conversion. Other YardForce, SABO, John Deere, Husqvarna, Gardena, Fuxtec, and Redback models may be candidates, but compatibility depends on the exact chassis, production year, regional version, and available carrier board. This is a serious electronics, Linux, mechanical, and lithium-battery project—not a plug-and-play consumer appliance.

What OpenMower does

Conventional robotic lawn mowers often navigate by randomly changing direction when they encounter a perimeter wire or an obstacle. OpenMower is intended to replace that approach with map-aware navigation. The mower can be configured to work with mapped mowing areas, navigation areas, exclusion areas, docking positions, and app-based control.

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Its central feature is RTK-GPS. With a suitable correction source, RTK can provide the precise positioning needed to record and follow mowing paths without a conventional perimeter wire. The system is designed around a GPS receiver on the mower, known as the rover, and corrections supplied either by a local stationary base station or by an external NTRIP service.

The project also describes obstacle detection and rain detection among its goals. Those should be treated as project capabilities under development or build-dependent features, not as guarantees that every OpenMower conversion will detect every obstacle or safely handle every weather condition.

OpenMower’s architecture

The system is divided into layers. That separation is important because navigation software, motor control, sensor processing, and emergency behavior do not all run in the same place.

Hardware version 2 uses a modular design. The universal core board contains a Raspberry Pi Compute Module 4 or compatible compute module, an STM32 microcontroller, Ethernet switching, an onboard IMU, configuration storage, and a SODIMM connector. The carrier board is specific to the mower or chassis family and handles the parts that cannot be standardized easily.

That modular approach is useful when the complete electronics assembly will not fit inside a donor mower. The universal-board documentation also describes configurable motor connections, screw-terminal or XT30 power connections, several GPS-module options, and the possibility of separating modules physically.

How the safety architecture is separated

The ROS computer makes high-level decisions, but it is not the only layer capable of stopping the machine. The firmware handles low-level safety states, and the emergency service can cut power independently of ROS. The project also describes emergency-stop behavior if the mower is lifted or crashes.

This separation is a good engineering feature, but it does not make an untested conversion safe. A software emergency stop is not a substitute for supervised testing, keeping people and animals away from the operating area, checking the blade and drive system, and complying with applicable local requirements.

Compatibility: choose the donor mower before buying electronics

Compatibility is the first major design decision. Do not buy a promising-looking mower and assume that an OpenMower board will fit it. The carrier board, mounting points, wiring, motor arrangement, battery and charging system, physical clearances, and chassis geometry all matter.

Best-supported donor: YardForce Classic 500(B)

The YardForce Classic 500 robotic lawn mower, specifically the Classic 500(B) reference platform, is the project’s best-supported donor. It is the mower associated with the original project work and the model named in the official shopping list.

That makes it the most defensible choice for a first build. It does not mean that every regional listing, suffix, production revision, or used example is identical. Confirm the exact model and physical configuration before purchase, and compare it with the current compatibility documentation.

Other YardForce models

In theory, YardForce models using the Core + Outer Frame Chassis and produced from 2019 onward may have compatible electronics that can be replaced with an OpenMower board. The documentation identifies the SA, SC, LUV, N, and NX lines as relevant families.

This is a compatibility lead, not a blanket guarantee. Regional versions and physical revisions can differ. Treat the year and family information as a starting point for verification rather than permission to order parts without checking.

YardForce families currently listed as incompatible

The documentation currently identifies the following YardForce families as not yet compatible because the OpenMower board does not fit their chassis:

• Amiro
• Compact
• EasyMow
• MowBest
• XPower
• MB

SABO and John Deere platforms

A dedicated SABO carrier board supports the SABO MOWit 500F Series I and II and the John Deere Tango E5 Series I and II. The documented conversion requires the carrier board, xCore, Compute Module 4, GPS equipment, and three ESCs.

The dedicated modification guide shows that this is a genuine mechanical conversion. It includes removing the housing, blade, display and charging connections, and original mainboard before installing the prepared GPS, compute module, carrier board, and mower wiring.

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Universal-board candidates

The universal board is intended to support more platforms, and the documentation lists many Husqvarna and Gardena mowers along with Fuxtec and Redback models as known or likely candidates. These should not be read as guaranteed plug-and-play compatibility. Ask the project community about the exact mower, inspect the chassis, and verify that the required carrier-board or modular arrangement exists before committing to the build.

Parts required for a typical OpenMower build

The project estimates approximately €700 for a typical build, excluding the donor mower and an RTK base station. That is an estimate, not a fixed delivered price: electronics availability, shipping, regional taxes, donor condition, and whether you assemble or source the boards will change the total.

The project describes a typical YardForce-class build as achievable in a weekend, while a custom chassis can take considerably longer. The stated skill level is intermediate electronics, Linux, and mechanical work.

Robot-side components

For builders assembling around a Raspberry Pi Compute Module 4 with Wi-Fi, check the RAM, storage method, Wi-Fi configuration, and current availability before ordering. A CM4 Lite and an eMMC-equipped module are not interchangeable in every installation step because the Lite version uses removable storage.

A 32GB microSD card for Raspberry Pi is the more practical choice for a CM4 Lite build than the documented 16 GB minimum, provided the card is suitable for the operating system and the installation instructions for the selected software version.

Hardware kit or self-sourced electronics?

The project publishes PCB designs and bills of materials, so experienced builders can source and solder many components themselves. The documentation also points users toward community hardware availability for those who would rather obtain assembled hardware.

An OpenMower V2 hardware kit should therefore be treated as a community-sourced or availability-dependent option, not as a universally stocked retail product. Confirm what is included—mainboard, carrier board, xCore, ESCs, connectors, and any preassembled parts—before comparing kit pricing with self-sourcing.

Do you need an RTK base station?

No—not always. OpenMower can use an external NTRIP correction service instead of a base station that you build yourself. Whether that is practical depends on the country, local coverage, network connection, service availability, and any subscription or access requirements.

If no suitable NTRIP service is available, the project documents a local base-station arrangement using:

• Another RTK GPS receiver and antenna
• A Raspberry Pi computer
• Storage
• A power supply
• A reliable network or data connection
• RTKBase software

A Raspberry Pi RTK base station is therefore optional equipment for builders who lack an external correction service. It is not part of the basic €700 robot-side estimate. The local base must be stationary and external to the mower; the mower’s rover receiver cannot serve as its own fixed reference while it moves around the property.

For the rover or base receiver, the parts list names the ArduSimple RTK2B GPS and antenna as a reference option. It also mentions a UM9XX GPS module, including modules sourced from WitMotion, as an alternative for builders who are comfortable checking receiver compatibility and configuration. Neither option should be assumed to work merely because it is marketed as an RTK-capable GPS module; verify the supported hardware and software path for the selected OpenMower version.

How RTK-GPS enables wire-free mowing

A normal standalone GPS receiver estimates position from satellite signals. RTK improves that estimate by comparing the rover’s observations with corrections from a known reference. Under suitable conditions, this can produce centimeter-level positioning, which is why RTK is central to OpenMower’s mapping and path-following approach.

RTK is not a magic accuracy switch. The result depends on:

• Clear satellite visibility at the mower and base or correction source
• The quality and stability of the correction link
• The antenna installation and configured offsets
• Nearby trees, walls, buildings, vehicles, and other obstructions
• The configuration of the receiver and OpenMower software

The documented operating procedure calls for the mower to be outdoors with an unobstructed view of the sky while establishing the RTK solution. The procedure says that acquiring an RTK Fixed solution can take up to approximately 30 minutes. A yard that is open in one section and heavily obstructed beside a wall or under trees may not deliver the same positioning quality everywhere.

Build and setup sequence

The exact wiring, firmware, operating-system image, and mechanical steps depend on the donor and hardware revision. The following is the practical order in which the project should be approached.

1. Verify the donor and hardware revision

Start with the exact mower model, suffix, production year, chassis, and regional version. Then identify the matching carrier board and current OpenMower software, operating-system, and hardware combination. Do this before buying a mower or ordering a kit.

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The documentation exposes versioned archives including:

• ROS v1.2.0 with Hardware v2 and OS v2
• ROS v1.1.1 with Hardware v2 and OSv2RC3
• ROS v1.0.2 with Hardware v1 and OS v1

These version references are useful when identifying an existing build, but archived documentation is no longer actively maintained. Use the current documentation as the authority for a new conversion rather than copying an old guide because its parts, firmware, and wiring may not match the latest hardware.

2. Read the architecture, safety, and legal information

Before opening the mower, understand which board controls the motors, where battery power enters, how charging is handled, how the emergency service works, and what the selected carrier board expects. Read the project’s safety and legal material as part of the build plan, not as an afterthought.

3. Obtain the complete parts set

Collect the donor mower, carrier board or hardware kit, xCore, three ESCs, Compute Module 4, GPS receiver and antenna, storage, and any Wi-Fi or base-station equipment. Account for connectors, mounting hardware, wiring, and enclosure clearances specific to the donor. A parts list that looks complete on paper can still fail mechanically if the board or antenna cannot be mounted without interfering with the blade, battery, charger, or housing.

4. Prepare the electronics

Assemble or inspect the mainboard, xCore, Compute Module, GPS module, and ESC hardware. If you are self-sourcing, compare the published bill of materials and PCB information with the current hardware revision. If you obtain community-supplied hardware, confirm whether it is assembled, tested, and supplied with the required connectors and firmware.

5. Remove the OEM control hardware

Open the donor mower and remove the original mainboard and any components that the OpenMower design replaces. Preserve the wiring and fasteners until the new installation is understood. Photographing connectors before disassembly is a sensible workshop practice, but do not rely on photographs instead of the model-specific wiring documentation.

The SABO and John Deere guide illustrates the level of mechanical work involved: housing screws must be removed, the blade is removed with a 5 mm Allen key, display and charging cables are disconnected, and the OEM mainboard is removed with Torx tools before the new GPS, compute module, and carrier board are installed.

6. Install the carrier board and compute system

Mount the appropriate carrier board, connect the xCore and ESCs, install the Compute Module, and fit the GPS antenna where it has the best practical view of the sky. Reconnect the mower wiring according to the donor-specific guide. Check clearances around moving parts, high-current wiring, the battery, charger, and housing before closing the mower.

7. Install the supported operating system and firmware

Use the current supported operating-system image and firmware combination for the hardware revision. Configure the Compute Module, Wi-Fi, mower parameters, GPS, antenna offsets, and motor-controller settings as directed by the current documentation. Avoid mixing an archived ROS release with a newer board or firmware unless the project specifically documents that combination.

8. Establish corrections and an RTK Fixed solution

Set up the local stationary base or configure the external NTRIP correction service. Take the mower outdoors with an unobstructed sky view and wait for the required solution state. The documented procedure allows up to approximately 30 minutes for an RTK Fixed solution, so failure to obtain it immediately is not automatically a hardware fault.

9. Initialize orientation

Once positioning is established, initialize the mower’s orientation by moving it as required by the operating procedure. Position alone does not tell the system which direction the mower is facing; the orientation step gives navigation a usable starting state.

10. Record the working areas

Use the app to record the mowing areas, navigation areas, exclusions, and docking position. Start with a manageable test area and verify that the recorded boundaries correspond to the physical yard. A map is only as good as the position solution and the person recording it.

11. Test controlled operation before autonomous mowing

Test communication, motor response, stopping behavior, GPS quality, and docking behavior under supervision. Keep people, pets, and bystanders away from the test area. Do not move directly from a successful software installation to unattended mowing: verify the complete machine, including the blade system, charging behavior, emergency behavior, and loss-of-connection response.

Common failure points and what they mean

Safety and legal issues

OpenMower combines a moving blade, high-current motor electronics, autonomous behavior, outdoor operation, and a lithium battery. The official project warns that builders create their own charger and must understand lithium-battery risks. It also makes clear that the project is continuously evolving and that builders are responsible for understanding their modifications, troubleshooting the result, and applying updates when needed.

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• Supervise initial operation. Keep people and animals out of the operating area while testing and mapping.
• Verify emergency behavior. The independent emergency service is valuable, but confirm the actual behavior of your assembled machine before relying on it.
• Treat the blade as dangerous whenever the mower is energized. Disconnect power and follow the donor and project procedures before mechanical work.
• Do not assume weather safety. Rain detection is listed among project goals, but weather behavior depends on the build and implementation. Do not assume the mower is weatherproof or safe to leave unattended in changing conditions.
• Protect the battery and charger. Stop if charging, heat, wiring, swelling, odor, or battery behavior is abnormal. Lithium-battery work requires appropriate knowledge and precautions.
• Check local rules and intellectual-property restrictions. The project’s legal information tells users to check patents and local laws in their region.

The project disclaims warranties and liability for damage, safety, legality, and performance. Its legal page identifies the published work as Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International and states that selling the design or products based on it requires consent. That matters if a contractor, maker space, or business intends to build and sell conversions rather than modify one for private use.

Is OpenMower worth building?

OpenMower makes sense when the goal is to learn, modify, and control a robotic machine—not simply to obtain a reliable lawn-care appliance. It offers a compelling combination of open software, modular hardware, map-based navigation, local app control, and RTK positioning. It can also extend the usefulness of a compatible donor mower that would otherwise remain tied to its original control system.

The trade-off is responsibility. You must identify a compatible chassis, source or assemble electronics, install Linux-based software, configure GPS corrections, understand motor control, solve mechanical fitment, test safety functions, and maintain the system as the project changes. A consumer mower’s warranty, polished weather behavior, and guaranteed compatibility are replaced by flexibility and hands-on control.

Best recommendation: begin with a YardForce Classic 500(B), use the current documentation rather than an archived guide, confirm hardware availability, and verify the exact regional mower before spending money. Consider another donor only after the carrier-board fit, wiring, motor arrangement, and community support have been confirmed.

OpenMower buying checklist

Confirm before ordering

• Exact donor mower model, suffix, production year, and regional version
• Matching OpenMower carrier board or a documented universal-board arrangement
• Current ROS, operating-system, hardware, and firmware combination
• Compute Module 4 memory, Wi-Fi, and storage configuration
• Whether the CM4 requires a 16 GB or preferably 32 GB microSD card
• RTK rover receiver, antenna, and antenna-offset requirements
• Local NTRIP availability or the need for a stationary base
• Three ESCs and all donor-specific cables, connectors, and mounting hardware
• Battery, charging, and enclosure clearances
• Ability to perform supervised testing and ongoing troubleshooting

Optional items

• Raspberry Pi, storage, power supply, and RTK receiver for a local base station
• Linux-compatible USB Wi-Fi dongle
• Left-angle USB adapter for internal clearance
• Alternative UM9XX GPS module, after confirming compatibility

Final verdict

OpenMower is one of the more interesting open-source lawn-robot projects because it addresses the part closed consumer mowers usually hide: navigation, motor control, mapping, and hardware integration. RTK-GPS can make wire-free, map-aware mowing possible, but only when the rover, correction source, antenna installation, software, and yard environment all cooperate.

For a technically capable builder, the project is a credible robotics conversion platform. For someone seeking a guaranteed appliance, it is the wrong product category. Choose the donor first, budget beyond the headline electronics estimate, plan for testing and maintenance, and treat safety and legal checks as part of the construction—not paperwork after it.

Frequently Asked Questions

Is OpenMower a complete robotic lawn mower?

No. OpenMower is an open-source conversion platform that replaces the electronics and software in a compatible donor mower. It requires mechanical work, electronics, Linux configuration, GPS setup, and supervised testing.

Which mowers are compatible with OpenMower?

The YardForce Classic 500(B) is the best-supported starting point. Some YardForce Core + Outer Frame Chassis models from 2019 onward may work, while Amiro, Compact, EasyMow, MowBest, XPower, and MB are currently listed as incompatible. SABO MOWit 500F and John Deere Tango E5 Series I and II have dedicated support. Other models need verification.

Does OpenMower require an RTK base station?

Not necessarily. OpenMower can use an external NTRIP correction service. A local stationary RTK base is needed when a suitable external correction service is unavailable or unsuitable in the builder’s region.

How much does an OpenMower conversion cost?

The project estimates approximately €700 for a typical build, excluding the donor mower and RTK base station. Actual costs vary with the mower, hardware availability, shipping, regional taxes, and whether boards are self-sourced or community-supplied.

Does RTK-GPS guarantee centimeter accuracy everywhere?

The documented procedure says to establish an RTK Fixed solution outdoors with an unobstructed sky view. It can take up to approximately 30 minutes, and performance can degrade near trees, walls, buildings, or other obstructions.

Who should build an OpenMower?

It is best suited to builders comfortable with electronics, Linux, mechanical disassembly, robotics, and iterative troubleshooting. It is a poor fit for anyone seeking a manufacturer warranty, guaranteed weather behavior, or turnkey compatibility.

The Bottom Line

Bottom line: OpenMower is best approached as a serious DIY robotics conversion, with the YardForce Classic 500(B) as the safest documented starting point. It can provide RTK-based, wire-free mapped mowing, but compatibility, correction coverage, battery safety, software maintenance, and supervised testing remain the builder’s responsibility.

Quick Recap

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SaleBestseller No. 2

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Product prices and availability are accurate as of the date/time indicated and are subject to change. Any price and availability information displayed on Amazon at the time of purchase will apply.