CHCNAV RS10 User Manual

SLAM Solution | Apr. 2024

Make your work more efficient

1 Reading Tips

1.1 Symbol Description

1.2 Recommendations

CHCNAV provides the following documents for users:

It is recommended to read these documents before first use. For questions, contact CHCNAV at +86 21 542 60 273 for professional consultation and assistance.

1.3 Service & Support

CHCNAV website: www.chcnav.com

Email: sales@chcnav.com | support@chcnav.com

Tel: +86 21 542 60 273 | Fax: +86 21 649 50 963

CHCNAV reserves the right to modify product status and user manuals without prior notice. For the latest product information, please visit CHCNAV's official website (www.chcnav.com).

1.4 Disclaimer

2 Using Requirements

2.1 Using Environment

2.2 Tips Before Using

2.3 Tips During Using

2.4 Tips After Using

3 Product Description

The CHCNAV RS10 integrates GNSS RTK, laser scanning, and visual SLAM technologies into a single platform designed to improve the efficiency and accuracy of indoor and outdoor 3D scanning and surveying tasks. The RS10 is a versatile solution for surveying, civil engineering, and BIM professionals, as well as for applications such as agricultural and forestry surveying, power line inspection, material pile volume calculation, and data collection in underground spaces. With the RS10, surveyors can overcome the challenges of surveying in areas with poor or no GNSS signals, bringing a new level of flexibility and accuracy to their work. By supporting both traditional GNSS RTK surveying and innovative 3D reality capture, the RS10 simplifies fieldwork and improves data reliability.

3.1 Check List

Note: Please refer to the actual delivery list.

NDescriptionModelPcs
1RS10 unitRS101
2RS10 handle1
3Load-bearing pad1
4RS10 transport container1
5USB3.0 to TYPE-C adapter cable1
6Lens cleaning wipes10
732 GB USB flash disk1
8SmartGo software1
9RS10 Factory Test Certificate1
10Notice Card1
11RS10 SLAM permanent license1
12LT800 accessories (include tablet & tablet clamp&LS license)1
13Chest support bracket1
14RS10 Battery (3300mAh)3300mAh3
15Battery charger (C300)C3001
16CoPre Standard version package1

3.2 Delivery of Equipment and Materials

Note: Please refer to the actual delivery list.

3.3 Physical Characteristics

3.3.1 Weight and Size

3.3.2 Interface Definition

[Diagram description: An exploded view of the RS10 unit showing numbered interface points.]

  1. Turn on/off button
  2. Type-C port for data copy
  3. Battery compartment
  4. Handle/ Range pole hole
LED indicatorDevice status
Red and green lights flash alternately at 1Hz frequencyFW Upgrading...
Device automatically restarts after green light is steady onFW Upgraded successfully
Green light flashing rapidly at 2HzDevice diagnostics
Green light is steady onDevice ready
Green light blinks at 0.5HzCollecting...
Red light is steady onError
Red light blinks every 5 secondsLow battery

3.4 Power Supply and Physical Characteristics

ParameterValue
Input voltage9-20V DC
Power consumption< 30W
Operating temperature-20 °C to +50 °C
Storage temperature-20 °C to +60 °C

4 Product Workflow

The RS10 offers two data collection methods: SmartGo APP Control and One-Key Control.

4.1 Advance Preparation

4.2 SmartGo APP Control

4.2.1 WiFi connection

To connect, tap "WiFi name" to find the device's Wi-Fi (e.g., SLAM-XXXXX, where XXXXX matches the device SN). Then, tap "Connect to device" to establish a Wi-Fi connection with the tablet.

[Image description: Screenshot of the SmartGo APP showing the WiFi connection interface with fields for WiFi name and password.]

Note: Ensure your tablet is connected to the device's Wi-Fi and no other apps are using the connection.

4.2.2 RTK settings

Real-time point cloud data with absolute coordinates can be output by logging into a CORS account in RTK settings or via PPK.

[Image description: Screenshot of the RTK settings interface in the SmartGo APP, showing fields for CORS account details like server address, port, username, and password.]

Note: When logging into CORS, ensure port settings match coordinate system outcomes. If not logging into CORS, absolute coordinate clouds can still be obtained via PPK post-processing or trajectory control point optimization in CoPre. Avoid simultaneous logins on multiple devices to prevent account issues.

4.2.3 Start project

Tap the orange circular button on the left side of the screen to start a new project. Project names must consist of letters or numbers only.

[Image description: Screenshot of the SmartGo APP showing the project creation dialog with a field for "Project name".]

4.2.4 Select capture scene

After creating a project, select the appropriate capture scene based on the environment (e.g., Indoor for offices/parking lots, Outdoor for streets/open spaces) to proceed with data collection.

[Image description: Screenshot of the SmartGo APP showing scene selection options: "Indoor" and "Outdoor".]

4.2.5 Device initialization

Initialization begins automatically after selecting a capture scene. Keep the device stable and ensure no obstructions are within a few meters.

[Image description: Screenshot of the SmartGo APP showing the device initializing, with a message "The device is initializing. Please keep the device stable horizontally and ensure no blocking within a few meters." and a countdown timer.]

Note: Aim the device at scenes with many features (buildings, rocks). Avoid moving objects or obstacles. Minimize scanning reflective surfaces like glass or car windows to reduce data noise.

4.2.6 Start data acquisition

Once initialization is successful, the device enters the capture interface, displaying real-time point cloud and live images, indicating data collection has started.

[Image description: Screenshot of the SmartGo APP showing the data acquisition interface with real-time point cloud data and captured images.]

4.2.7 Add control point

Control points can be added during data collection. Align the metal tip of the device's handle with the desired control point. Tap "Add control Points", select the operation mode, enter the control point number, and tap "OK".

[Image description: Close-up image showing the metal tip of the RS10 handle being aligned with a control point on the ground.]

Note: If using range pole mode, input the pole height. For handheld or chest support modes, this is not required. Keep control point names consistent. At least four control points are needed for coordinate conversions.

4.2.8 Stop data acquisition

Tap the orange circular button on the left side of the screen to stop data acquisition.

[Image description: Screenshot of the SmartGo APP showing the data acquisition interface with an "End capture" dialog box.]

4.3 One-Key Control

The RS10 features one-key acquisition software, allowing data collection control via a single button with an LED indicator.

Note: In One-Key control mode, capture scene selection is not available (defaults to indoor), and CORS account login is not possible.

4.4 Hot-swapping battery

The RS10 battery compartment holds one battery but is equipped with super capacitors for hot-swappable battery replacement. During replacement, a 60-second reminder will appear on the tablet after removing the battery.

Note: Complete battery replacement within 60 seconds, ensuring the device's position and orientation remain consistent.

5 Data Preprocessing

5.1 Data Copy

Connect the RS10 to a PC using a TYPE-C adapter cable and copy the required data.

[Image description: Screenshot of a file explorer window showing files and folders on a connected device, likely the RS10.]

Note: Turn off the device before copying data to ensure the computer recognizes the disk. If disk memory is less than 10% or insufficient, empty it beforehand.

5.2 Create Task

Navigate to Home -> Create to open the task creation dialog box.

[Image description: Screenshot of the CoPre software interface, highlighting the "Create" button under the "Home" tab.]

Notes: Project and output data paths should not contain non-English letters or spaces; save data under English paths. Configure task name, project data path, output data path, units, and task description (optional), then click "Create".

5.3 Coordinate System Setting

After clicking "Create", a coordinate settings window appears, allowing selection between relative and projected coordinate systems.

[Image description: Screenshot of the "Coordinate Settings" dialog, with options for "Relative Coordinate System" and "Projected Coordinate System".]

Tip: All projects within a task must use the same coordinate system. For a new system, create a new task.

Click "OK" to finalize the task. The management bar will then display the task name.

[Image description: Screenshot of the CoPre software showing the management bar with the newly created task listed.]

5.4 Real-time Point Cloud

Real-time point cloud data is loaded and generated as 'codata' in CoPre software after task creation and can be exported in LAS format.

5.4.1 Load real-time point cloud

In CoPre's SLAM processing module, click 'Load Real-Time Data' to generate and display real-time point cloud results. Data is stored in the 'SLAM_DATA/RealTime_Codata' folder within the project directory in 'codata' format.

[Image description: Screenshot of the CoPre software interface, highlighting the "Load Real-Time Data" button.]

5.4.2 Export real-time point cloud

To export in LAS format, click 'Export Real-Time Data', configure LAS version, segmentation settings, and output path, then click 'OK'. By default, LAS results are stored in 'SLAM_DATA/RealTime_Las'.

[Image description: Screenshot of the CoPre software interface, highlighting the "Export Real-Time Data" button.]

5.5 SLAM Secondary Accuracy Optimization

Click "Auto Accuracy Optimization" to open a dialog box for selecting projects requiring processing.

[Image description: Screenshot of the CoPre software interface, highlighting the "Auto Accuracy Optimization" button.]

Click "next" to configure PPK trajectory optimization parameters.

[Image description: Screenshot of the "Auto Accuracy Optimization" dialog, showing the "PPK Trajectory Optimization" tab and options for base station settings.]

Click "next" to configure TGCP trajectory optimization parameters. Use trajectory control points to correct SLAM accuracy and transform point clouds from relative to projected coordinate systems. Import control points in .txt or .csv format; they will be matched by name.

[Image description: Screenshot of the "Auto Accuracy Optimization" dialog, showing the "TGCP Trajectory Optimization" tab and options for importing control points.]

Click "next" to set result parameters.

[Image description: Screenshot of the "Auto Accuracy Optimization" dialog, showing the "Result Settings" tab with various filtering options like 3D Distance Filtering, Intensity Filtering, and Noise Filtering.]

Settings description:

5.6 Result check

Under the "Processing" node, right-click a project and select "Display Trajectory". The trajectory will load in the view. Click or drag on the trajectory to select an area; the corresponding point cloud will load into the 3D view for measurements and browsing.

[Image description: Screenshot of the CoPre software showing the project tree, trajectory view, and 3D view with point cloud data.]

5.7 Format conversion

The SLAM solver generates 'codata' and 'las' formats. For other formats, click "Format Conversion" and select the desired output format.

[Image description: Screenshot of the CoPre software interface, highlighting the "Format Conversion" button and the format selection dialog.]

6 Matters Need Attention

6.1 Important Notes

The LiDAR measure system is a precise survey instrument. Operate and maintain it correctly during daily use, carrying, and storage.

6.2 Product Transportation

6.3 Using Tips

6.4 Storage Tips

Models: RS10 Kennedy Geospatial Solutions, RS10, Kennedy Geospatial Solutions, Geospatial Solutions, Solutions

File Info : application/pdf, 30 Pages, 2.40MB

PDF preview unavailable. Download the PDF instead.

RS10 EN UM 20240418

References

Microsoft Word 2019

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