If you have a lawn that is awkward, enclosed, or full of obstacles, you already know robotic mowing can be hit or miss. The YUKA Mini 2 aims to fix that with high-end navigation tech in a compact mower.
In this review, I test the YUKA Mini 2 1000, which uses LiDAR guidance (not RTK). I also walk through what is in the box, how easy setup really is, how the mapping works, how obstacle avoidance performs, and how the new Drop and Mow feature behaves. Finally, I cover the key differences between the YUKA Mini 2 1000, 800, and the cheaper 500 model so you can choose the right version for your yard.
YUKA mini 2 Video Review
What’s in the box (and what that means for setup)
When I unboxed the YUKA Mini 2, the first thing I checked was how “complete” the kit is. You do not just get the mower and hope for the best.
Here is what comes supplied in the LiDAR (1000) model kit:
- The mower itself (the 1000 is white). The 800 uses RTK and is gray.
- Charge station with a small amount of assembly required.
- Four screws and a hex screwdriver to attach the charging head.
- Spare blades (and more on blade swapping later).
- A spare key because the mower has a safety key. If that key is removed, it cannot start.
- Lubricant (for the front wheel).
- Pegs for cable routing, plus ground screws for fixing the charge base on grass (in my case I place it on hard ground).
- Power supply.
- User manual and a quick start guide.
A detail I like: the included tools match the job. It is not “find your own screwdriver,” which is common with some systems.
One thing you do not get with the 1000: there is no RTK station. This model is designed around LiDAR and camera navigation instead.
Assembly: essentially just attach the charging station
For “assembly,” this mower is refreshingly simple.
The only real work is:
- Clip the charging head onto the base.
- Flip the base over.
- Use the provided screws to secure it.
Once the charger is assembled, you are ready to set everything up on your lawn.
The YUKA Mini 2 1000 uses LiDAR navigation with dual vision cameras. The LiDAR unit fires lasers out and builds a 3D “picture” of your lawn and the environment, including obstacles and the edges of your mowing area.
That LiDAR picture is used together with the dual vision camera at the front to guide the mower around your property.
So why not RTK? Because RTK needs a workable GPS signal and a clear view of the sky. If your lawn has lots of trees, tall fences, or you live in an area with weak GPS reception, RTK can struggle.
I have seen this firsthand with RTK and camera-only guided mowers too. In areas with heavy tree cover, the RTK (GPS) signal drops and the camera takes over. It is then the camera that can become the weakest link particularly if the loss of RTK is prolonged . This is where LiDAR guidance excels staying consistent in those conditions.
Mammotion also sells larger models, the Luba 3 AWD that combine all 3 technologies. But the YUKA Mini 2 1000 is intentionally focused on LiDAR so it can handle difficult environments without relying on RTK.
Key specifications I used to judge real-world performance
Specifications matter most when they match your lawn size, your cutting preferences, and your terrain. Here are the numbers I worked with on the 1000 model.
- Coverage: designed for 1,000 square meters (about 0.25 acres).
- Cutting deck: 19 cm (7.5 inches).
- Cutting height: manual adjustment, from 60 mm down to 20 mm.
- Drive: two-wheel drive (caster wheels at the front).
- Slope handling: up to 45% (24 degrees).
- Blades: five blades, and each blade can be used in two positions (two holes), effectively giving you two “sides” of wear.
- Night mowing: an LED light for mowing at night.
- Rain sensor: if it rains, it returns to the garage (charge station).
- Battery access: battery is in a rear compartment and can be removed by undoing four screws.
Battery and runtime
The 1000 model includes a 6.1 Ah battery, and the manufacturer specifies around 135 minutes of run time.
In practical terms, that should let it mow a large part of a lawn on one charge, then return to finish the remaining area.
Why battery access matters
Some robotic mowers hide the battery deep inside the chassis, meaning replacement requires sending it back to the manufacturer. With this design, I can undo four screws and take the battery out myself. That is a genuine long-term convenience.
Choosing the right YUKA Mini 2 model (1000 vs 800 vs 500)
This is the part I always slow down on, because picking the wrong model can ruin the experience. It is not just lawn size. It is also how your mower navigates.
The three UK models (and how they differ)
- YUKA Mini 2 1000 (my LiDAR unit): LiDAR guidance + dual camera. No RTK station included.
- YUKA Mini 2 800: RTK guidance + Tri Vision camera (different camera stack than the 1000). RTK is included.
- YUKA Mini 2 500 (Amazon exclusive): camera-guided only. It does not have RTK and does not have LiDAR.
My advice on the 500 model
I would not go for the 500 if you can stretch your budget. Camera-only navigation tends to be a mixed bag, especially when moving between zones or navigating complex layouts where LiDAR or RTK helps bridge the “gaps.”
How to decide between 1000 and 800
Start with lawn size:
- 1000: 1,000 square meters
- 800: 800 square meters
But then consider your environment:
- If you have lots of trees, high fences, or poor GPS conditions, LiDAR guidance (1000) is often the safer bet.
- If you have clear sky and good GPS signal, RTK (800) can be excellent.
- If your lawn is bumpy or steep enough that traction matters, you may need a four-wheel-drive option in the wider range (the reviewer notes the Luba Mini as an example of that direction).
Zones and mapping capacity
Even if two mowers can mow the same overall area, the number of zones changes how flexible your lawn plan is.
- 1000: 10 zones
- 800: 5 zones
If you have multiple lawns and paths that require separate mowing schedules, that zone count matters.
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4G module: included or optional
The 1000 model does not include a 4G module because it does not use RTK. The 800 model includes 4G plus net RTK data for three years.
If your Wi-Fi does not reach everywhere, the 1000 can be ordered with or upgraded by adding a 4G module. Installation is simple: remove the lid, swap the module in, screw it back down, then enable it in the app.
Setup in the real world: where my charging station goes
Before I mapped anything, I decided the location for the charging station.
I did not want the charge station sitting in the grass because the blades would eventually grow around it. So I put it on a hard surface where my older Luba Mini station had been.
Then I pegged it down for testing, with the intention of securing it more permanently later.
One important installation rule I used: I leave around one meter clearance around the charging station. That applies regardless of whether you are using RTK or LiDAR guidance.
Docking and the infrared sensors
Docking is not just “roll back and hope.” The charger uses infrared sensors to guide the final approach. On the charge base, there are small protective stickers over the sensors.
When I set up mine, I removed those stickers and wiped the docking area if needed. Keeping those surfaces clean reduces docking issues.
Connecting to the app, updating firmware, and creating your first map
Once the charger and mower were powered, I connected the mower using the app. The app prompted for Wi-Fi details, then guided me through placement instructions and the 1 meter clearance check.
After the initial setup, I strongly recommend updating firmware before you map your lawn. The mower is continually improved, and this one had new updates available immediately.
Firmware updates over Wi-Fi
In my setup, the updates were easy and automatic over Wi-Fi. It even announces upgrades on the mower itself, and when the firmware update finishes, the mower reboots, so you briefly lose connection until it reconnects.
Mapping: auto mapping vs manual mapping
The app offered two options:
- Auto mapping
- Manual mapping
I used manual mapping for the main test strip because I prefer full control over boundaries. It also matters around edges where you do not want the blades to hit stones.
During mapping, I used the on-screen joystick controls. I moved the mower slowly and I walked behind it to make turning easier. Mapping speed is adjustable. Some mowers I have tested move too quickly during mapping, but here the mapping movement can be controlled so you can stay accurate.
Creating channels between zones
For the second zone, the app creates the channel between areas while I drive the mower from one area to the next.
I also noted an important behavior difference: with LiDAR guidance, the reviewer did not see a clear “auto map” option for additional areas. In other words, manual mapping was the method used to define the second zone and channel properly.
Mapping results that mattered to me
I did not just map a flat rectangle. I mapped based on how real mowing routes work on my yard.
- I wanted straight, parallel mowing lines (the stripe effect) similar to RTK systems.
- I tested how close the mower would cut to a curved edge.
- I created a route across a bridge area with stones and checked whether LiDAR guidance could honor the mapped path.
- I tested into a small corner with longer grass, where other robot mowers had previously missed areas.
The goal: prove the LiDAR guidance plus camera fusion could handle between-zone navigation as well as edge work and corner precision.
Other map settings you can use (no-go zones, virtual fence, obstacle-free zones, patterns)
Once your lawn is mapped, you can control mowing behavior in the app.
No-go zones
If you have a fixed object you never want the mower to cut through, you can define a no-go zone. The mower will avoid mowing that section and will do an edge cutting routine around it. You can also set how many laps it performs around the no-go zone.
Virtual fence
A virtual fence is helpful when you want a boundary behavior that is not tied to physical wiring like a traditional perimeter wire solution.
The app also supports virtual fence detection using the camera, but you can explicitly define it when you want strict control.
Obstacle-free zones
This is a clever feature if you have plants or overhanging greenery that the mower keeps treating as obstacles.
In an obstacle-free zone, the mower can effectively reduce obstacle-avoidance behavior and push through that region instead.
A practical example mentioned: ramps can be detected as obstacles, causing the mower to stop before the ramp. If you mark the ramp area as obstacle-free, it can continue up and into the next zone.
Pattern mowing
You can choose mowing patterns. Options include striped-like custom paths, zigzag, checkerboard-style coverage, and perimeter-only approaches. Pattern control is part of what makes robotic mowing look “designed” instead of random.
Mowing performance: stripes, edge cutting, and how straight it stays
After mapping, I set the mower to mow and paid attention to three things:
- How straight the lines are in the main zone.
- How well it follows the mapped route to reach the second zone.
- How closely it cuts to edges near stones.
Cut quality and height adjustment
The mower height is manual, adjusted between 60 mm and 20 mm. In my test, lowering it too far on damp grass made it cut aggressively. I paused and raised it again to avoid scalping.
My practical approach for getting to your ideal height is gradual: start a little higher, then reduce over time until you reach the look you want. Once it is set, it mows daily at that same height.
Edge cutting close to stones
On the edges where I expected trimming work, I found the mower could cut very close, including up to the stone boundary where blades would otherwise be at risk of blunt damage.
The mower also does edge trimming routines automatically. In my setup, the remaining trimming I had to do was minimal.
Obstacle avoidance test: how the mower reacts to a football and a glove
This is where navigation quality becomes obvious. I tested obstacle avoidance by placing items in front of the mower.
Football
When I placed a football in the mower’s path, it slowed down, then adjusted behavior and avoided contact. It did not cut that strip right away, but it returned later to complete it, which is what I want to see. Most importantly, it avoided actually hitting the obstacle.
Glove
I then tested a glove, a smaller object than a football. Even when the glove was not placed directly in the mower’s most obvious line, it picked it up and reacted. The surprising part was the object size: in many other mower tests, small items like that simply are not detected.
Small ball test
I also tried a smaller ball and tested “late entry” placement. It made slight contact in one attempt, but it still did not climb over or bulldoze past it. When placed earlier, it avoided it more cleanly.
My overall impression: obstacle avoidance worked very confidently, and it felt like the vision plus LiDAR fusion was doing the heavy lifting.
After completing the smaller mapped lawn, the mower needed to navigate back down the path to reach the charge station.
In my observations, it stuck to the middle of the path almost exactly as I mapped it. Some other mowers I have tested would “snake,” correct repeatedly, and drift toward edges. With this one, the return route felt stable.
It also crossed the small bridge line over stones with no hesitation, which was the main fear point for LiDAR navigation in this layout.
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Drop and Mow feature (beta): mowing a temporary zone without mapping
The Drop and Mow feature is a big deal if you want flexibility, because you can take the mower to a different lawn and mow it without creating a permanent map.
This feature was described as a beta feature, and in my setup it needed to be enabled in the app under beta features.
How to start Drop and Mow (two methods)
There are two ways to begin:
- From the app: enable Drop and Mow in settings, then start the drop mode.
- From the mower buttons: press and hold the grass cut button for 5 seconds, then press the start button.
When Drop and Mow starts, it creates a temporary map in real time, using LiDAR to build the 3D picture and the cameras to help understand the boundary.
It mows in straight, systematic lines rather than bouncing around randomly. That is the big difference versus some camera-based Drop and Mow approaches that can be inefficient and incomplete.
What makes Drop and Mow useful
Because the map is temporary, it is designed for scenarios like:
- mowing your own front lawn when it is separated by building work
- cutting a neighbor’s lawn
- taking the mower in the boot of a car to another property
When it finishes the temporary mowing area, it stops. You then pick it up and return it to the charging station.
App settings that control how the mower behaves
After mapping, you schedule and tune mowing behavior in the app.
Scheduling and why it matters
Robotic mowers are designed for frequent light mowing. That is the part people miss. They mulch the cuttings and keep the lawn healthy by removing fine grass regularly.
If you mow too aggressively or too infrequently, you get uneven results and more stress on the grass. Scheduling helps keep it on track.
Task speed
There is a task speed control (in the app it is shown in meters per second). Higher speed can reduce cut accuracy, so a mid-range setting tends to work better. In my test I set a comfortable value to keep the mower stable and accurate.
Cutting path angle and stripe direction
This is one of my favorite controls. You can customize which direction the mower’s zigzag stripes move, including aligning the stripes away from the house or property edge.
You can zoom in to fine tune stripe direction.
Perimeter laps and obstacle detection mode
You can set how many times it does perimeter mowing laps and control obstacle detection behavior (standard worked well in my tests).
Path order
You can choose whether it does perimeter work first or zigzag work first. If you want to see edge performance clearly, perimeter-first makes sense.
Smart charging, no-work periods, and other useful features
Beyond mowing, the app includes additional controls that make life easier.
- No-work period: schedule times when mowing will not happen.
- Battery charging management: it can choose optimal charging rather than always charging when it hits zero percent.
- Off-peak charging: a newer charging feature mentioned for the Mini 2 range.
- Auto lighting: it can turn on the front LED spotlight as needed.
- Night mowing support: side lights and reliable LiDAR performance in low light.
- Rain protection: on/off options in the settings.
- Manual operation: you can mow manually using the controls if needed.
- Alexa and Google Home integration: built-in support so you can ask devices to start mowing.
Pros and cons (the honest trade-offs)
Every mower has trade-offs. Here are the main points I would weigh when deciding on the YUKA Mini 2 1000.
So should you choose LiDAR or RTK?
If I boil it down into a decision framework:
- Choose LiDAR (1000) if you have tree cover, high fences, poor GPS conditions, enclosed areas, or you just want the mower to be less dependent on satellite reception.
- Choose RTK (800) if you have clear sky and good GPS signals, and you want the RTK-guided approach.
- Upgrade traction needs (bumpy terrain) and consider a four-wheel-drive option if required.
For a complex yard like mine, the YUKA Mini 2 1000 delivered the stability I was hoping for. It handled straight-line mowing patterns, edge trimming close to stones, reliable between-zone routing, and strong obstacle avoidance. And the Drop and Mow beta feature adds real flexibility without forcing permanent mapping.
YUKA mini 2: 800 vs. 1000 Comparison
| Feature | YUKA mini 2 1000 | YUKA mini 2 800 |
|---|---|---|
| Primary Navigation | 360° LiDAR + AI Vision | NetRTK + Tri-Camera AI |
| Navigation Strength | Best for GPS “Dead Zones” (Trees/Walls) | Best for open yards with clear sky view |
| Max Mowing Area | 1,000㎡ (0.25 Acres) | 800㎡ (0.20 Acres) |
| Battery Capacity | 6.1 Ah | 4.5 Ah |
| Mow Area per Charge | ~250㎡ (2,690 sq. ft.) | ~200㎡ (2,150 sq. ft.) |
| 4G Connectivity | Optional (Module sold separately) | Included (3 Years Free Data) |
| Safety System | Visual Fence (Anti-Fall) | Visual Fence (Anti-Fall) |
| Obstacle Avoidance | AI Vision (300+ Objects) | AI Vision (300+ Objects) |
| Max Slope | 45% (24°) | 45% (24°) |
| Cutting Width | 190mm (7.5 in) | 190mm (7.5 in) |
| Waterproof Rating | IPX6 (Hose Washable) | IPX6 (Hose Washable) |
The YUKA Mini 2 1000 is a genuine game-changer for anyone who has struggled with the limitations of GPS-based robotic mowers. While most of the industry is focused on RTK (satellite) technology, Mammotion has proven with this model that LiDAR is the superior solution for complex, real-world environments.
The Standout Winner: LiDAR Guidance I was thoroughly impressed by how the LiDAR and camera fusion handled the “impossible” parts of a yard. Where RTK mowers often “snake,” lose signal under trees, or hesitate near tall fences, the YUKA Mini 2 1000 remained rock-solid. Its ability to navigate narrow paths and maintain perfectly straight lines without a clear view of the sky is nothing short of exceptional. It effectively removes the “GPS anxiety” that usually comes with high-end robotic mowing.
Unmatched Versatility Beyond its standard navigation, the Drop and Mow feature is a standout innovation. Being able to set the mower down in an unmapped area and watch it intelligently map and mow in systematic lines—rather than bouncing around randomly—adds a level of flexibility I haven’t seen in this category before.
Precision and Reliability From its “pro-level” obstacle avoidance (detecting objects as small as a glove) to the user-replaceable battery design, it’s clear this mower was built with the end-user in mind. While the manual height adjustment is a small trade-off, the trade-off is more than worth it for the sheer reliability of the navigation.
The Bottom Line: If you have a “difficult” lawn with trees, shadows, or tight corners, this is the mower to beat. The YUKA Mini 2 1000 doesn’t just mow; it navigates with a level of confidence that sets a new benchmark for what a compact robotic mower can do. Highly recommended for anyone who wants flagship-level tech that actually works in the real world.
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FAQ
What makes the YUKA Mini 2 1000 different from the 800?
Does the YUKA Mini 2 handle steep slopes?
Is blade height adjustable from the app?
How does the Drop and Mow feature work?
Do I need 4G on the 1000 model?
Can the YUKA Mini 2 1000 replace the battery by myself?
As a seasoned expert in the field of garden power tools, I have dedicated over a decade to working with and reviewing a wide variety of lawn mowers. My extensive experience has allowed me to gain a deep understanding of the benefits and limitations of different types of mowers and garden tools.
Over the years, I have honed my skills in writing informative articles and creating helpful videos for various blogs and publications. This has given me the ability to not only recognise what makes a good lawn mower, but also to help you choose the perfect garden tool for your specific needs and requirements.
With my wealth of knowledge and expertise, I am confident that I can provide you with valuable insights and recommendations when it comes to selecting the right lawn mower for your lawn. So, whether you're looking for a battery cordless, electric, petrol, or robotic mower, you can trust in my expertise to guide you towards the best option for your garden.
Hello Mark, an excellent review of the new Yuma mini 2 1000. I already have a Yuka mini 800 from last year, bought after your review, that I use for my garden lawn and I am delighted with it. But because of steps i need another one to mow grass out front by a track. I need to keep it under shelter for security reasons and there is a 15 meter path from the docking station area to the grass. Will the 1000 model with Lidar be able to handle this? I understand the 800 model docking station must be less than 5 meters from the grass area otherwise it will stop after 5 meters and not reach the grass. Thanks, Les