Log In
Login to Phoenix LiDar System
Remember Me

Search

Search

Resource Type

Resource Type
  • Webinar (36)
  • Sample Data (21)
  • Whitepaper (21)
  • Videos (18)
  • Article (5)
  • Case Study (2)
  • Spec Sheet (1)
  • User Manuals (1)

Industry

Industry
  • Forestry (18)
  • Survey (14)
  • Transportation (13)
  • Engineering (11)
  • Construction (10)
  • Utility – Power (8)
  • Archeology (7)
  • Environmental Engineering (7)
  • Watershed Science (5)
  • Mining (3)

Products

Products
  • Scout (25)
  • Ranger-LR (13)
  • miniRanger (7)
  • Ranger-XL (7)
  • SpatialExplorer (7)
  • Recon (5)
  • LiDARMill (4)
  • Ranger-U120 (4)
  • HALO (2)
  • HydroRanger (2)

Sort

Sort
RANGER-UAV FLEX | DUAL MOBILE RFM2
May 7, 2024

Speed: 20-30 mph
Point density: >2000 points/m²
AGL: Ground level
Acquisition time: 1.5 hrs

View Resource
RANGER Flex LED Quick Start Guide
April 15, 2024

Ensure your LiDAR system is ready for field operations with our comprehensive RANGER Flex LED Quick Start Guide. Download now to streamline setup and maximize performance.

View Resource
Enhanced Surf Zone and Wave Runup Observations with Hovering Drone-Mounted LiDAR
April 5, 2024

In this whitepaper, we explore the innovative application of a hovering drone-mounted LiDAR system paired with a survey-grade satellite and inertial positioning system to measure wave transformation and runup in the surf zone. Unlike traditional methods, the multi-rotor small uncrewed aircraft system (sUAS) offers unobstructed measurements by hovering above the surf zone at a 20-meter elevation, scanning a 150-meter-wide cross-shore transect.

This approach allows rapid and precise data collection in remote locations where terrestrial scanning is challenging. Our study demonstrates that hovering drone-mounted LiDAR provides measurement accuracy almost equivalent to a stationary truck-mounted terrestrial LiDAR. By conducting observations in various surf conditions and validating with traditional land-based surveys and pressure sensors, we achieved a stable back beach topography estimate.

We also calculated statistical wave properties, runup values, and bathymetry inversions using a simple nonlinear correction to wave crest phase speed. This method shows the potential of drone-based LiDAR for accurate nearshore process observations, enabling data collection in previously inaccessible sites and providing valuable validation for coastal models.

View Resource
HydroRANGER | Canyon Lake
March 29, 2024

AGL: 90 m
PRR: 50 kHz
Depth Measured: 5 m

View Resource
RECON-XT SLAM | Building Mapping inside and out
March 29, 2024

Speed: Walking pace for SLAM. 6 m/s UAV flight
Point density: thousands of points/m²
AGL: 80 during UAV flight
Acquisition time: ~2 hours

View Resource
Ranger-UAV | A7R4-Lite
March 29, 2024

Speed: 6 m/s
Point Density: 200 points/m² per flight line
AGL: 120 m
Acquisition time: 10 minutes

View Resource
RANGER-FLEX | Dual Scanner Mobile Mapping
March 29, 2024

Speed: 40 – 60 mph
Point density: >2000 points/m²
AGL: Ground level
Acquisition time: 3.5 hrs

View Resource
SCOUT-M2X | Colorized Mobile
March 29, 2024

Speed: 20-40 mph
Point density: thousands of points/m²
AGL: Ground level

View Resource
RANGER-U160 | Powerplant Data
March 29, 2024

Speed: 50 kn
Point density: ~700 points/m²
AGL: 200 m
Acquisition time: 10 minutes

View Resource
HALO-10-CM Guadalupe River
March 29, 2024

Speed: 60 kn
Point density: 21 points/m² per flight line
AGL: 750 m
Acquisition time: 1 hour

View Resource