Comparison Dreame D10 Plus Gen 2 vs Dreame D10s Plus
Add to comparison | ![]() | ![]() |
|---|---|---|
| Dreame D10 Plus Gen 2 | Dreame D10s Plus | |
from $239.99 | from $369.99 | |
| TOP sellers | ||
| Type | robot vacuum cleaner | robot vacuum cleaner |
| Cleaning | dry and wet side brush turbo brush wiping with a cloth | dry and wet side brush turbo brush wiping with a cloth |
| Water supply adjustment | ||
Robot vacuum cleaner | ||
| Suction power | 6000 Pa | 5000 Pa |
| Dust container capacity | 400 ml | 570 ml |
| Water tank capacity | 150 ml | 240 ml |
| Power auto-adjustment | ||
| Fine filter | HEPA | HEPA |
| Building a room map | rangefinder (laser) | rangefinder + camera |
| Cleaning area limitation | via the app | via the app |
Features | ||
| Control via smartphone | ||
| Voice assistant | Google Assistant, Amazon Alexa, Apple Siri | Google Assistant, Amazon Alexa, Apple Siri |
| Scheduled cleaning | ||
| Object recognition | ||
| Memory of several maps (floors) | ||
| Surveillance camera | ||
Self-cleaning station | ||
| Dust collector station | disposable bag | disposable bag |
| Dust container volume | 4 L | |
Battery | ||
| Battery capacity | 5.2 Ah | 5.2 Ah |
| Operating time | 285 min | 280 min |
| Charging time | 4 h | 5 h |
General | ||
| Cleaning area | 220 m² | |
| Threshold clearance | 20 mm | |
| Noise level | 65 dB | 63 dB |
| Dimensions (HxWxD) | 9.63x35x35 cm | 9.68x35x35 cm |
| Weight | 3.24 kg | |
| Color | ||
| Added to E-Catalog | november 2024 | april 2023 |
Compare Dreame D10 Plus Gen 2 and D10s Plus
Robot vacuums Dreame D10 Plus Gen 2 and Dreame D10s Plus have similar features but differ in some key aspects. The D10 Plus Gen 2 has a suction power of 6000 Pa, providing more efficient cleaning compared to the 5000 Pa of the D10s Plus. The dustbin capacity of the D10s Plus is larger — 0.57 L compared to 0.4 L of the D10 Plus Gen 2, allowing for more debris collection in one go. Both devices support smartphone control and have a HEPA filter, but the D10s Plus is additionally equipped with a camera for object recognition and room mapping. The operating time is similar for both models, but the D10 Plus Gen 2 charges faster — in 4 hours versus 5 hours for the D10s Plus. The noise level of the D10s Plus is slightly lower — 63 dB compared to 65 dB for the D10 Plus Gen 2. The choice between them depends on preferences: if suction power is important, it is better to choose the D10 Plus Gen 2, and if a larger dustbin capacity and additional features are needed, then the D10s Plus would be a more suitable option.
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Glossary
Suction power
Measured in Pa, this indicator describes the robot vacuum cleaner's suction pressure: the higher it is, the easier it is for the device to pick up heavy debris and clean carpet pile. Values around 2,000–4,000 Pa are usually sufficient for regular cleaning of smooth floors, while 6,000–10,000 Pa and above are better suited for collecting hair, sand, and dirt from carpets or floor joints.
Dust container capacity
The dustbin capacity indicates how much dry debris fits in the robot vacuum’s built-in container before it needs to be emptied. Models with a 200–300 ml capacity are suitable for a small apartment and frequent cleaning cycles, while a 400–600 ml capacity is more convenient for larger areas, pets, or lots of hair. For robots with a self-emptying station, the size of the internal container is less important, as debris is automatically transferred to the docking station’s collection bin.
Water tank capacity
The tank capacity determines the water supply for moistening the pad, rotating mops, or cleaning roller. Compact tanks of around 200 ml are suitable for regular wiping of small areas, while 300–500 ml tanks allow fewer interruptions for refilling during cleaning.
Building a room map
Map building allows the robot vacuum to remember the layout of the room, track covered areas, and plan a consistent cleaning route. The method used to create the map affects its accuracy, orientation speed, and the device’s ability to detect obstacles.
— With sensors. The robot creates an approximate map based on data from the gyroscope, motion sensors, wheels, and collisions with obstacles. This system is more affordable, but determines the exact position of walls and furniture less accurately, and accumulated errors may lead to repeated passes or missed areas.
— With a rangefinder. A laser rangefinder, or LiDAR, measures the distance to surrounding objects and creates an accurate map of the room before completing a full pass around it. It works reliably in low light, confidently detects walls and furniture, and supports room division and no-go zones.
— With a camera. The camera analyzes the surroundings and navigates using visual objects, helping refine the robot’s position and the room layout. Its advantage is the ability to distinguish individual objects, although performance depends more heavily on lighting.
— With a rangefinder and camera. The combined system uses LiDAR for accurate distance measurement and map building, and a camera to detect small objects on the floor. Such a robot not only navigates rooms confidently in any lighting, but also avoids cable...s, shoes, toys, and pet bowls more effectively.
— With sensors. The robot creates an approximate map based on data from the gyroscope, motion sensors, wheels, and collisions with obstacles. This system is more affordable, but determines the exact position of walls and furniture less accurately, and accumulated errors may lead to repeated passes or missed areas.
— With a rangefinder. A laser rangefinder, or LiDAR, measures the distance to surrounding objects and creates an accurate map of the room before completing a full pass around it. It works reliably in low light, confidently detects walls and furniture, and supports room division and no-go zones.
— With a camera. The camera analyzes the surroundings and navigates using visual objects, helping refine the robot’s position and the room layout. Its advantage is the ability to distinguish individual objects, although performance depends more heavily on lighting.
— With a rangefinder and camera. The combined system uses LiDAR for accurate distance measurement and map building, and a camera to detect small objects on the floor. Such a robot not only navigates rooms confidently in any lighting, but also avoids cable...s, shoes, toys, and pet bowls more effectively.
Object recognition
A function in which the robot vacuum uses a camera and analysis algorithms to determine exactly what is on the floor. The device can distinguish cables, shoes, toys, pet bowls, and other small obstacles, then chooses a safe route around them. Compared to conventional sensors, object recognition does not simply detect an obstacle but identifies its type, reducing the risk of getting stuck, collisions, and cables wrapping around the brush.
Surveillance camera
Built-in camera with remote access turns a robot vacuum cleaner into a mobile video surveillance device that can be controlled from a smartphone. It is convenient for checking your apartment while away, monitoring pets, or inspecting a hard-to-reach area, while some models allow voice transmission through the built-in speaker. Unlike an obstacle detection camera, this camera displays images to the user in real time or saves them in the app. Recording, night mode, and privacy features depend on the specific model.
Dust container volume
The dock station dustbin capacity indicates how much debris the bag or reusable container can hold before it needs to be emptied. A 2–3 L capacity is usually enough for several weeks of regular cleaning, while models from 4 L are more convenient for large apartments and homes with pets. The actual maintenance interval depends on the area, cleaning frequency, number of carpets, pet hair, and other debris.
Operating time
Battery life determines how much area the robot vacuum can clean before returning to the docking station. Actual performance depends on the selected mode, suction power, floor type, operation of the mops or roller, and layout complexity. Therefore, the stated maximum time is usually achieved in a gentle mode and will be noticeably shorter during intensive cleaning.
Charging time
Full charging cycle of the robot vacuum to restore the battery from the minimum level to 100%. The process usually takes several hours and depends on the battery capacity and charging system power. However, with regular returns to the base, this parameter rarely affects cleaning convenience.










