South Supreme ME Visual LiDAR RTK GNSS Receiver

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The South Supreme ME is a Visual-LiDAR RTK GNSS receiver for surveyors, engineers, construction teams, GIS users and mapping professionals who need accurate measurements in both open-sky and GNSS-limited environments. It combines RTK positioning, SLAM LiDAR scanning, contactless Air Measurement, IMU tilt and camera-based workflows in one field-ready system.

Use it for standard RTK point collection, façade measurement, stockpile and volume work, road and pipeline corridors, indoor-outdoor mapping, underpasses, industrial sites and other areas where a normal GNSS rover can struggle.

South Supreme ME Highlights

GNSS Engine 1698 channels with GPS, GLONASS, Galileo, BeiDou, SBAS, IRNSS, QZSS and MSS L-Band support
LiDAR Scanning Up to 200,000 points per second with 360° horizontal field of view
Detection Range Up to 70 m maximum LiDAR detection range
Air Measurement Contactless measurement with 5 cm accuracy at 15 m range
SLAM Accuracy Relative accuracy ≤1 cm, RTK absolute accuracy down to 3–5 cm, PPK down to 2–4 cm
IMU Tilt Calibration-free tilt measurement with optimal accuracy within 60°
Camera System Dual 12 MP panoramic cameras, 8 MP front camera and 2 MP downward camera

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Description

South Supreme ME Visual-LiDAR RTK GNSS Receiver

The South Supreme ME is built for field teams who need more than a standard RTK rover. It combines high-accuracy GNSS positioning with SLAM LiDAR scanning, visual measurement, IMU tilt compensation and camera-based workflows. For surveyors, construction workers, civil engineers, GIS teams, drone mapping professionals and asset managers, this means one system can handle normal RTK point collection as well as complex measurement jobs where satellite visibility is poor or direct access is difficult.

In open areas, the South Supreme ME works as a high-performance RTK GNSS receiver. On sites with buildings, bridges, façades, pipelines, stockpiles, underpasses or indoor-outdoor transitions, the integrated LiDAR and visual tools help the operator keep collecting useful data without relying only on traditional point-by-point GNSS measurement.

Hybrid RTK and SLAM LiDAR for real field conditions

Many projects are not limited to clean, open-sky GNSS work. A survey may start on a road corridor, continue under a bridge, move along a building façade and end near trees, traffic, machinery or steel structures. The South Supreme ME is designed for these mixed conditions by combining RTK GNSS positioning with handheld SLAM LiDAR technology.

The system captures up to 200,000 points per second and can be used to create 3D point cloud data while the operator moves through the site. This is useful for mapping surfaces, structures, excavation areas, stockpiles, industrial installations and other features where collecting every point manually would take too much time.

Air Measurement for contactless surveying

Air Measurement allows the user to capture 3D coordinates without standing directly over every measured point. The South Supreme ME combines laser sensing and AI image matching so operators can measure hard-to-reach or unsafe points from a distance. This is practical for façades, edges, slopes, traffic areas, pipework, construction details and objects behind obstacles.

With 5 cm accuracy at 15 m range, Air Measurement gives field crews a practical way to capture more information while reducing unnecessary movement around the site. For simple construction layout, as-built checks, engineering measurements and GIS feature capture, this can make fieldwork faster and safer than measuring each point by direct occupation.

Useful in GNSS-limited areas

The South Supreme ME is especially useful when a normal RTK receiver loses performance due to blocked sky view or multipath. Its mixed-solution positioning function is designed to help maintain measurement capability for a short period when GNSS signals are interrupted, for example under overpasses, in tunnels, in underground garages or around dense urban structures.

This makes the receiver a strong option for surveyors and mapping teams who regularly move between outdoor RTK work and obstructed environments. Instead of stopping work when the GNSS fix becomes unstable, the operator can continue collecting data with the integrated SLAM and visual measurement workflow.

Integrated camera system for visual workflows

The South Supreme ME includes four cameras for point cloud colorization, visual measurement and AR stakeout workflows. Two 12 MP panoramic cameras support colour point cloud creation, while the 8 MP front camera supports Air Measurement and the 2 MP downward camera supports AR stakeout.

For field crews, this makes the collected data easier to understand and check. Colour point clouds can help identify site features, surfaces, objects and structures more clearly than geometry alone. Visual and AR workflows also help with stakeout tasks because the operator can relate design information to the real site environment.

IMU tilt for faster point collection

The built-in IMU tilt function helps users measure points without perfectly leveling the pole every time. This is useful around obstacles, near walls, on slopes, beside trenches or in places where keeping the pole vertical is difficult. The South Supreme ME offers optimal tilt performance within 60°, helping operators work faster while keeping measurements practical for real site conditions.

Point clouds, volumes and post-processing

The South Supreme ME is suitable for 3D mapping, earthwork volume calculation, stockpile measurement, excavation checks, façade capture and infrastructure documentation. The system can support colour point clouds and export point cloud data for further processing. This makes it useful for teams that need more than coordinates and want a clearer 3D record of the site.

For construction and engineering users, this can support progress documentation, quantity checks and as-built workflows. For GIS and asset teams, it can help capture features in complex environments where conventional GNSS-only data collection is too limited.

Who uses the South Supreme ME?

The South Supreme ME is suitable for professional users who need accurate positioning and richer site data in one system. Typical users include land surveyors, civil engineers, construction layout crews, road and rail teams, utility and pipeline surveyors, GIS data collectors, mining and quarry teams, drone mapping companies and asset inspection professionals.

It is especially useful for companies that often work around buildings, bridges, industrial sites, stockpiles, tunnels, underpasses or other areas where standard RTK GNSS receivers can lose reliability.

Practical applications

  • RTK surveying and stakeout in open-sky conditions
  • SLAM LiDAR scanning for indoor and outdoor mapping
  • Façade, bridge, pipeline and structure measurement
  • Stockpile, excavation and earthwork volume calculation
  • GIS feature collection in complex environments
  • As-built documentation and construction progress checks
  • Visual and AR-assisted stakeout workflows

Why buy from Global GPS Systems?

Global GPS Systems supplies RTK GNSS, LiDAR and surveying equipment to professionals worldwide. When choosing the South Supreme ME, buyers can get support with product selection, field workflows, RTK correction setup, accessories and practical configuration advice. This is important for a hybrid system because the right setup depends on how the receiver will be used: standard rover work, LiDAR scanning, Air Measurement, volume calculation, GIS data collection or a combination of these workflows.

For teams comparing advanced GNSS receivers, laser RTK systems and SLAM LiDAR solutions, the South Supreme ME offers a flexible all-in-one option for demanding fieldwork where speed, access and reliable data capture matter.

Datasheets & Manuals

Datasheets and manuals

Specifications

South Supreme ME Specifications

Product Overview

Product Name South Supreme ME
Product Type Visual-LiDAR RTK GNSS receiver / GNSS RTK Hybrid SLAM LiDAR surveying system
Primary Technologies GNSS RTK, SLAM LiDAR, visual positioning, IMU tilt compensation, Air Measurement, AR visual stakeout
Typical Applications Surveying, construction layout, infrastructure mapping, façade scanning, stockpile and earthwork volume calculation, indoor/outdoor mapping, utility and pipeline surveys, GNSS-limited environments
Best Use Environments Open-sky GNSS areas, urban canyons, underpasses, tunnels, underground garages, industrial sites, building façades, bridges, corridors and hard-to-reach targets

GNSS Engine and Satellite Tracking

GNSS Channels 1,698 channels
GNSS Features Full-constellation tracking with smart dynamic sensitivity positioning technology
GPS Signals L1C, L1C/A, L2C, L2P(Y), L5
GLONASS Signals G1, G2, G3
BeiDou / BDS Signals B1I, B2I, B3I, B1C, B2a, B2b
Galileo Signals E1, E5a, E5b, E6, AltBOC
QZSS Signals L1, L2C, L5
NavIC / IRNSS Supported
SBAS Supported
MSS / L-Band B2b-PPP and E6B HAS support listed
Positioning Output Frequency 1 Hz to 10 Hz according to manufacturer specification; product listing also notes output up to 20 Hz
Initialization Time < 10 seconds
Cold Restart < 12 seconds
Initialization Reliability > 99.9%
IMU Refresh Rate 200 Hz

GNSS Accuracy

Single Point Positioning Horizontal: 1.5 m RMS; Vertical: 2.5 m RMS
DGPS / Code Differential Horizontal: 0.4 m RMS; Vertical: 0.8 m RMS
Real Time Kinematic RTK Horizontal: 8 mm + 1 ppm RMS; Vertical: 15 mm + 1 ppm RMS
RTK NTRIP Horizontal: 8 mm + 0.5 ppm RMS; Vertical: 15 mm + 0.5 ppm RMS
Post Processed Kinematic PPK Horizontal: 3 mm + 1 ppm RMS; Vertical: 5 mm + 1 ppm RMS
Precise Point Positioning PPP Supports PPP-B2b; Horizontal: 10 cm; Vertical: 20 cm
High-Precision Static Horizontal: 2.5 mm + 0.1 ppm RMS; Vertical: 3.5 mm + 0.4 ppm RMS
Static and Rapid Static Horizontal: 2.5 mm + 0.5 ppm RMS; Vertical: 5 mm + 0.5 ppm RMS
Positioning Refresh Rate 1 Hz / 5 Hz / 10 Hz
Time for First Fixed Solution Cold start: 45 seconds; Hot start: 10 seconds; Single repeat: 1 second
RTK Initialization Time 2 to 8 seconds

IMU Tilt Measurement

IMU Module Built in for GNSS; supports tilt survey option
Tilt Measurement Accuracy 8 mm + 0.7 mm/° tilt
Recommended Tilt Range Optimal accuracy within 60°
IMU Refresh Rate 200 Hz

SLAM LiDAR Scanner

Laser Scanner Livox Mid-360
Scanning Range 0.1 m to 70 m
Detection Range by Reflectivity 70 m at 80% reflectivity; 40 m at 10% reflectivity
Measurement Rate 200,000 points per second
Field of View 360° horizontal x 59° vertical
Laser Wavelength 905 nm
Laser Safety Class Class 1, IEC 60825-1:2014, eye-safe
Loop Closure Free Operation Available when RTK is enabled outdoors
PPK Mode Available
Real-Time Assessment Available

SLAM and LiDAR Accuracy

SLAM Relative Accuracy ≤ 10 mm
Range Noise Approximately 5 mm to 20 mm, optimized
SLAM Absolute Accuracy with RTK Best up to 3 cm to 5 cm, powered by onboard RTK
SLAM Absolute Accuracy with PPK Best up to 2 cm to 4 cm, post processed
SLAM Accuracy Range Note 3 cm to 5 cm at 20 m radius; error increases approximately 3 cm per additional 10 m according to listing data

Visual, Camera and Contactless Measurement

SLAM Colorization Cameras 12 MP x 2, left and right panoramic cameras
Contactless Visual-LiDAR Survey Camera 8 MP front-facing camera
GNSS / AR Stakeout Camera 2 MP downward-facing camera
Total Camera Count 4 cameras
Graphic Processor NVIDIA graphics processor for real-time true-colour image processing
Air Measurement Function Combines laser sensing technology and AI image matching for contactless measurement
Contactless Measurement Accuracy ≤ 5 cm at 15 m range
Colour Point Clouds Supported
Visual Positioning Supported
CAD and AR Stakeout Supported

Mixed Solution and Stakeout Performance

Magicalc Mixed Solution Maintains positioning when GNSS satellite signals are limited or temporarily unavailable
Positioning Accuracy While Satellites Are Unlocked Best up to 2 cm to 3 cm; typical 5 cm to 10 cm, by Mixed Solution / Magicalc
Manufacturer Brochure Mixed Solution Claim Capable of maintaining 5 cm accuracy for a few minutes when GNSS satellite signals are out of reach
Super Stakeout Accuracy Optimal: Horizontal 8 mm + 1 ppm RMS; Vertical 15 mm + 1 ppm RMS
Super Stakeout Typical Accuracy Typical: Horizontal 10 mm + 1 ppm RMS; Vertical 20 mm + 1 ppm RMS
AR Visual Stakeout Accuracy Optimal: Horizontal 8 mm + 1 ppm RMS; Vertical 15 mm + 1 ppm RMS
AR Visual Stakeout Typical Accuracy Typical: Horizontal 10 mm + 1 ppm RMS; Vertical 20 mm + 1 ppm RMS

Physical Specifications

Dimensions 134 mm x 147 mm x 138 mm
Net Weight 1.38 kg
Housing Material Magnesium aluminium alloy shell
Temperature Sensor Built in, intelligent variable frequency control
Power Button Single power button; supports power on/off, self-test, mode setting, factory reset and forced reboot functions according to user manual
Indicators Power, SLAM, data, satellite and charging indicator lights
Mounting / Interface Connector for carbon pole, telescopic pole or battery handle grip
Magnetic Attachment Built-in magnet patch supports magnetic attachment for mobile phones

Power and Battery

Power Supply Built-in battery plus handgrip battery; external power supply supported
Built-in Battery Endurance ≥ 0.5 hours according to manufacturer specification
Handgrip Battery Endurance ≥ 2 hours according to manufacturer specification
Listing Battery Information Inbuilt 7.4 V 5000 mAh rechargeable lithium-ion battery; hot-swappable 7.4 V 6800 mAh handgrip battery, 87.32 Wh
Listing Battery Life Air Measurement / indoor mapping / point cloud scanning: > 3 hours; GNSS rover and static mode: > 24 hours
Power Consumption 26 W
Charging Time 1 to 2 hours according to manufacturer specification; user manual notes approximately 2 to 2.5 hours from 0% to 100% for main unit and controller batteries
Input Voltage 14.4 V
Power Output 30 W
Uninterruptible Power Design Supports internal battery, handle battery and external power to reduce restarts during long operations

Communications

Wi-Fi Module Built in; serves as hotspot source
WLAN 802.11 b/g/n standard
Network Telecom Built-in Nano SIM card slot
Bluetooth BT 4.2 BR/EDR + BLE standard according to manufacturer specification; listing also notes Bluetooth 5.0 and backward compatibility
NFC Wireless Auto pairing between device and controller by touch
Audio Messaging iVoice smart audio for status broadcasting and voice instructions
Voice Languages Chinese, English, Korean, Russian, Portuguese, Spanish and Turkish as default; listing also notes French, Italian and Arabic
Web Interaction Web UI via Wi-Fi or USB connection for receiver status monitoring and configuration

Radio and Correction Support

Feature ME ME Plus
Radio Datalink N/A according to manufacturer ME/ME Plus comparison Rx module built in
Wireless Radio N/A according to manufacturer ME/ME Plus comparison Available
UHF Antenna Configuration dependent RX radio antenna included where ME Plus radio module is supplied
UHF Frequency Range 410 MHz to 470 MHz where UHF receive module is configured 410 MHz to 470 MHz
Radio Protocols Configuration dependent Farlink, TrimTalk and SOUTH listed
Network Correction Support VRS, FKP, MAC and NTRIP VRS, FKP, MAC and NTRIP

Interfaces and Data Ports

SIM Card Slot Nano SIM card slot
Type-C Port Charging, OTG and Ethernet support according to listing data
TF Card Slot For SLAM data storage
UHF Antenna Interface Available on supported configurations
Data Network Port Listed in supporting materials
Data Transfer USB plug-and-play data transmission; FTP and HTTP data download supported
External USB Storage Supported via OTG according to listing data

Data Management and Formats

Internal Storage 64 GB SSD internal storage according to listing data
TF Card 256 GB TF card listed in standard configuration
Static Data Format South STH, RINEX 2.x / RINEX 3.02 and related formats
Differential Data Format RTCM 3.0 / RTCM 3.2 according to manufacturer specification; listing also notes RTCM 2.1, 2.3, 3.1 and 3.2
GNSS Output Format NMEA 0183, PJK plane coordinate and binary code
Network Mode VRS, FKP, MAC and NTRIP
Point Cloud Output LAS point cloud output with GEO coordinates
Point Cloud Export Formats Raw format exportable to LAS or LAZ directly or through included software
Automatic Cycling Storage Supported according to listing data
Sample Interval Customizable sample interval up to 20 Hz according to listing data

Environmental Specifications

Operating Temperature -20°C to +55°C
Storage Temperature -40°C to +80°C
Operating Humidity 80% non-condensing
Ingress Protection IP64
Laser Scanner Protective Cover Included; removed only when SLAM is enabled
Camera Lens Protective Cover Included; removed only when SLAM is enabled

Field Software

Field Software SurvStar app
License Perpetual fieldwork software license listed in standard configuration
Supported Functions Data collection control, project management, real-time point cloud browsing and processing, visual positioning, CAD and AR stakeout, measurement and calculation functions
Android App Android mobile app with lifetime license and driver included according to listing data
Cloud Services Remote management, firmware updates, online registration and related services according to listing data
Secondary Development Secondary development package and OpenSIC observation data format / interaction interface definition listed

Post-Processing Software

Post-Processing Software AcuteLas Studio
License Perpetual SLAM processing software license listed in standard configuration
Supported Processing Trajectory processing, LiDAR data processing and fusion, point cloud classification, data quality check, quality report output, coordinate system conversion and topographic survey modules
Supported Output Workflows Colour point clouds, LAS / LAZ point cloud export and georeferenced point cloud processing

Recommended Computer Specifications for AcuteLas Studio

Operating System Windows 10 IoT Enterprise or higher
Processor Intel 13th Gen Core i7 processor or better
RAM 32 GB or better
Storage SSD 1 TB or better

H9 Data Collector Specifications

Data Collector H9
CPU 8 cores, 2.0 GHz
Battery 7700 mAh high-capacity battery
Display 6-inch touchscreen
Keyboard QWERTY full keyboard
Operating System Android 12
Workflow Focus Optimized for processing SLAM data and photogrammetry data

Standard Configuration / Included Items

Item Quantity Notes
Main Unit 1 Model ME; radio configuration may vary by ME / ME Plus version
Laser Scanner Protective Cover 1 Removed only when SLAM is enabled
Camera Lens Protective Cover 1 Removed only when SLAM is enabled
Handgrip Battery Unit 1 Model iGrip; 49 W, 3400 mAh listed in manual configuration example
Base Stand 1 Installed only when SLAM handheld mode is in use
Charger Adapter 1 For charging system batteries
Charging Cable 1 Included
Data Transfer Cable 1 1 m
TF Card 1 256 GB
TF Card Reader 1 Included
Cleaning Cloth 1 Included
Magnet Ring 1 Installed only when SLAM handheld mode is in use
Fieldwork Software License 1 SurvStar; code registration, perpetual
SLAM Processing Software License 1 AcuteLas Studio; code registration, perpetual
Antenna 1 UHF antenna; ME Plus includes RX radio antenna where built-in radio module is supplied

Specifications and package contents may vary by configuration, region or manufacturer update. Always check the current configuration before ordering.

FAQ

South Supreme ME FAQ

Product Overview

What is the South Supreme ME?

The South Supreme ME is a hybrid Visual-LiDAR RTK GNSS receiver that combines RTK GNSS positioning, SLAM LiDAR scanning, IMU tilt measurement, cameras and visual measurement workflows in one field system.

Who is the South Supreme ME made for?

The South Supreme ME is made for surveyors, civil engineers, construction professionals, GIS teams, mapping specialists, infrastructure crews and asset managers who need accurate GNSS measurement, 3D scanning and contactless data capture.

Is the South Supreme ME a GNSS receiver or a LiDAR scanner?

It is both. The system combines a professional RTK GNSS receiver with integrated SLAM LiDAR, allowing users to collect conventional GNSS points, point clouds and visual measurements with one device.

What makes the South Supreme ME different from a standard RTK rover?

A standard RTK rover is mainly used for point measurement in open-sky GNSS conditions. The South Supreme ME adds SLAM LiDAR scanning, contactless Air Measurement, visual positioning, colour point clouds and AR stakeout, making it more suitable for complex or GNSS-limited environments.

Which industries use the South Supreme ME?

The South Supreme ME is used in land surveying, construction, civil engineering, road and bridge work, utility mapping, pipeline mapping, municipal surveying, GIS data collection, 3D documentation and infrastructure inspection.

What types of projects is the South Supreme ME suitable for?

It is suitable for road surveys, bridge surveys, façade scanning, stockpile volume calculation, excavation measurement, underpass and tunnel mapping, utility and valve mapping, construction progress documentation, visual stakeout and indoor-outdoor 3D mapping.

GNSS, RTK and Accuracy

How many GNSS channels does the South Supreme ME have?

The South Supreme ME has a 1698-channel GNSS engine with multi-constellation support for signals including GPS, GLONASS, Galileo, BeiDou, QZSS, IRNSS, SBAS and MSS L-Band, depending on signal availability and configuration.

What RTK accuracy can the South Supreme ME achieve?

The listed RTK accuracy is 8 mm + 1 ppm horizontally and 15 mm + 1 ppm vertically for UHF RTK, and 8 mm + 0.5 ppm horizontally and 15 mm + 0.5 ppm vertically for NTRIP RTK.

Does the South Supreme ME support PPK?

Yes. The South Supreme ME supports PPK workflows. The listed PPK accuracy is 3 mm + 1 ppm horizontally and 5 mm + 1 ppm vertically under suitable field conditions.

Can the South Supreme ME work where GNSS signals are limited?

Yes. The system includes mixed-solution positioning technology designed to help maintain measurement capability for short periods when satellite signals are obstructed, such as under overpasses, near buildings, in urban corridors or in other difficult GNSS environments.

Does the South Supreme ME support IMU tilt measurement?

Yes. The receiver supports IMU tilt measurement with optimal accuracy within 60 degrees, helping users collect points without keeping the pole perfectly level for every observation.

Does the South Supreme ME support RTK network corrections?

Yes. The system supports network correction methods including VRS, FKP, MAC and NTRIP, making it suitable for use with compatible RTK correction services.

LiDAR, Visual Measurement and Stakeout

What is the LiDAR scanning range of the South Supreme ME?

The LiDAR scanner has a listed range of up to 40 m at 10% reflectivity and up to 70 m at 80% reflectivity, depending on target surface and field conditions.

How fast does the South Supreme ME capture point clouds?

The integrated LiDAR scanner captures up to 200,000 points per second, allowing users to create dense point clouds for mapping, modelling and documentation.

What SLAM LiDAR accuracy can the South Supreme ME achieve?

The listed SLAM relative accuracy is less than or equal to 1 cm. Absolute SLAM accuracy is listed as down to 3-5 cm with RTK and down to 2-4 cm with PPK under suitable conditions.

What is Air Measurement?

Air Measurement is a contactless measuring function that combines laser sensing and image matching to collect 3D coordinates without directly occupying every measured point. It is useful for walls, slopes, excavations, pipework, bridge details and other hard-to-reach objects.

How accurate is contactless Air Measurement?

The listed Air Measurement accuracy is 5 cm at a 15 m range. Actual results can vary depending on distance, surface, visibility, setup and field conditions.

Does the South Supreme ME support colour point clouds?

Yes. The system uses panoramic cameras for SLAM LiDAR colourisation, helping users create true-colour point clouds that are easier to interpret, check and deliver.

Does the South Supreme ME support AR visual stakeout?

Yes. The receiver includes a downward-facing camera for AR visual stakeout, helping users navigate to stakeout points with visual guidance in the field.

Software, Data and Field Use

What software is used with the South Supreme ME?

The South Supreme ME uses Android field software for data collection and field control, and AcuteLas Studio for Windows post-processing. The software supports workflows such as georeferencing, colourisation, point cloud processing, classification, quality checking and LAS or LAZ export.

Can the South Supreme ME export LAS or LAZ point clouds?

Yes. The system supports point cloud export to LAS and LAZ formats, either directly or through the included software, depending on the workflow.

What controller is used with the South Supreme ME?

The system can be used with the H9 data collector, which is designed for field surveying, SLAM data handling and photogrammetry workflows. It features an Android operating system, touchscreen, keyboard and high-capacity battery.

How long does the South Supreme ME battery last?

The listed battery life is more than 3 hours for Air Measurement, indoor mapping and point cloud scanning, and more than 24 hours in GNSS rover or static mode. Battery life depends on workflow, settings and field conditions.

Is the South Supreme ME suitable for outdoor fieldwork?

Yes. The receiver has a magnesium aluminium alloy shell, weighs approximately 1.38 kg, has IP64 dust and water protection, and is designed to operate from -20°C to +55°C.

What affects the accuracy of the South Supreme ME?

Accuracy can be affected by satellite geometry, multipath, obstructions, RTK correction quality, target reflectivity, scan distance, movement, observation time, atmospheric conditions, temperature and the selected workflow.

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Reviews (1)

1 review for South Supreme ME Visual LiDAR RTK GNSS Receiver

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  1. Bert Rupke (verified owner)

    Verified reviewVerified review - view originalExternal link

    hoe ze die lidar hebben geintegreert is geniaal. schkel van gps naar point cloud als bereik slecht is

    (0) (0)

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This product is Available

Contact our experts for the best possible price and configuration.

Why choose Global GPS Systems?
European support & worldwide delivery
Worldwide shipping from the Netherlands
100% insured shipping against loss or damage
Import, export, tax and duties support
Expert support from product specialists
Buyer protection and warranty included
Speak with a specialist +31 035 205 7939
Global GPS Systems
Independently verified
4.74 store rating (580 reviews) | 4.68 product rating
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