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S10 Ultra will be discontinued soon. For new projects, we recommend evaluating the upgraded S20 RGB-D camera first. For supply, spare-parts, and replacement planning for existing projects, contact MRDVS for confirmation.
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Product overview

The S10 Ultra is an industrial dToF RGB-D camera for medium- and long-range 3D perception indoors and outdoors. It synchronizes RGB and depth data and integrates an IMU with a data output rate of up to 200 Hz. The camera works with SLAM algorithms such as FastLio and FastLio2, supports software triggering, and is available as a MIPI module.
S10 Ultra camera

Features and applications

  • Medium- and long-range dToF perception: A 0.2–42 m measurement range supports environmental perception, localization, and navigation for mobile devices.
  • Synchronized data output: Outputs depth, RGB, and IR amplitude data with RGB-D alignment.
  • Compact solid-state design: Contains no moving parts and measures 106 × 69 × 43 mm.
  • IMU and SLAM development: Provides 200 Hz IMU data for visual-inertial localization and mapping.
Typical applications include robotic lawn mowers, industrial quadruped robots, and multirotor drones.
S10 Ultra on a quadruped robot
S10 Ultra on a robotic lawn mower
S10 Ultra on a multirotor drone

Specifications

Mechanical design and integration

Dimensions and detection range

S10 Ultra dimensions
S10 Ultra detection range

Environment requirements

SDK

Configure and develop with the MRDVS host application and SDK. For SLAM applications, synchronize the camera, IMU, and host clocks according to the selected algorithm.

Installation requirements

Keep the illustrated clearance area free of obstructions. Components that enter this area can interfere with point clouds and cause noise, false detections, or incorrect stops.
S10 Ultra recommended installation and clearance area

Avoid these conditions

  • Clipped field of view: Frames, ribs, openings, or off-center mounting can create blind spots and false near-field targets.
  • Near-field reflections and multipath: Confined spaces, polished metal, and mirrors can distort distance or saturate local areas.
  • Optical interference from windows: Ordinary glass, acrylic, dust, and condensation can cause artifacts, signal attenuation, or a lower signal-to-noise ratio. Validate the installation before adding a protective window.
  • Mounting stress or poor heat dissipation: Over-tightening can affect the optical axis; provide a heat path in enclosed spaces to maintain ranging stability.

First connection

1

Connect the device

Power the camera with a 12–27 VDC / 3 A supply and connect it to the computer with a Cat 6 or better Ethernet cable. A slowly flashing blue indicator indicates normal power.
2

Configure the network

The camera’s factory-default IP address is 192.168.100.82. Set the computer to the same subnet and make sure the firewall does not block device communication.
3

Verify the stream

Open the camera in the host application and confirm that the image is clear and the stream is stable. Configure image, algorithm, and other device parameters as needed.

LxCameraViewer interface

LxCameraViewer displays depth, IR amplitude, point-cloud, and RGB images and configures basic camera and algorithm parameters.
LxCameraViewer before opening the camera
LxCameraViewer with the camera open
  • Select a camera in the device list and click Open or Close.
  • Use Capture to start or stop streaming and Save frame to save active streams.
  • Select Depth, Intensity, RGB, or Point cloud to choose the displayed data.
  • Configure device functions in Basic tools, Application algorithms, and Other.

Safety and troubleshooting

Laser safety

S10 Ultra laser safety label
Keep the safety label complete and legible, and follow the safety requirements in the label and product materials.

Troubleshooting

IROS 2025

The S10 Ultra was presented as a representative product at IROS 2025.
S10 Ultra presented at IROS 2025

Autonomous forklift case

See a 3D perception application for autonomous forklifts.

Under-ride AMR case

See an application for avoiding low obstacles.

Wheeled humanoid robot case

See a 3D obstacle-avoidance application for wheeled humanoid robots.