RIEGL Bathymetry Hard- and Software Solutions. Martin Pfennigbauer RIEGL Laser Measurement Systems

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RIEGL Bathymetry Hard- and Software Solutions Martin Pfennigbauer RIEGL Laser Measurement Systems

AGENDA» Introduction» RIEGL VQ-820-G topo-bathy laser scanner» product specifications» system integration» results» software for hydrography» new developments

Terrestrial Scanning Airborne Scanning Mobile Scanning Industrial Scanning RIEGL Laser Measurement Systems GmbH

Airborne Laser Scanning Airborne Laser Scanning is a rapid, highly accurate and efficient method of capturing 3D data of large areas, such as agricultural or forestry sites, urban areas, industrial plants, power line or railway corridors, etc. Airborne Scanners for planes (LMS-Q Line): With automatic Multiple-Time-Around (MTA) processing and full waveform analysis for an unlimited number of target echoes. Airborne Scanners for helicopters (VQ-Line): All types with echo digitization, online waveform processing, and Multiple-Time-Around (MTA) processing Complete turnkey airborne laser scanner solutions for various types of planes, helicopters, and UAVs, including the RIEGL scanner itself, IMU/GNSS, digital and/or thermal camera, mission planning and flight guidance, ALS Software, pilot operator, and data processing training. Airborne Laser Scanning

Fully integrated Airborne Mapping System: RIEGL LMS-Q1560 Dual LiDAR Channel System for large scale, high altitude, complex environment mapping operating flight altitude up to 15,500 ft AGL laser pulse repetition rate up to 800 khz up to 532,000 meas./sec on the ground unrivaled scan pattern for best point spacing on the ground forward/backward looking capability for collecting data of vertical structures straight-forward flight planning, increased flight safety IMU/GNSS, medium format and IR camera integrated suited for gyro-stabilized leveling mounts Airborne Laser Scanning

Airborne Scanners for planes & helicopters: RIEGL LMS-Q780 flight altitude up to 15,500 ft Laser PRR up to 400 khz automatic Multiple-Time-Around (MTA) processing full waveform analysis for an unlimited number of target echoes RIEGL LMS-Q680i full waveform analysis operating flight altitude up to 5,000 ft AGL Laser PRR up to 400 khz, practically eyesafe Laser Class 3R RIEGL VQ-820-G for coastline and shallow water mapping visible green laser beam for water penetration Laser PRR up to 520 khz, Laser Class 3B RIEGL VQ-580 for measurements on snow and ice operating flight altitude up to 4,000 ft AGL Laser PRR up to 380 khz, Laser Class 3B RIEGL VQ-480i operating flight altitude up to 3,450 ft AGL Laser PPR up to 550 khz eyesafe Laser Class 1 RIEGL VQ-480-U operating flight altitude up to 2,450 ft AGL Laser PPR up to 550 khz, eyesafe Laser Class 1 very lightweight, approx. 7.5 kg Airborne Laser Scanning

Categories of waveform data RIEGL Q1560 full waveform data echo waveform data RIEGL VQ-820-G smart echo waveforms looselycoupled samples no precise ranging

laser scanner for combined topographic and bathymetric applications

VQ-820-G product specifications wavelength measurment range topography water penetration ranging accuracy 532 nm (visible green light) 1500 m at ρ 20% 2500 m at ρ 60% 1 Secchi depth bright ground 25 mm FOV 42 beam divergence net measurement rate scan speed laser Safety multiple time around 1 mrad up to 195 khz 50 200 lines/s laser class 3B yes, up to 4 pulses in the air

VQ-820-G features excellently suited for combined hydrographic and topographic airborne survey high-accuracy ranging based on echo digitization and online waveform processing with multiple target capability high spatial resolution due to narrow laser beam and high pulse repetition rate up to 520 khz, high scanning speed up to 200 scanlines/second and a wide field of view 42 compact, rugged and light-weight modular configuration, compatible with standard airborne platforms. waveform data output, data accessible via RiWAVELiB seamless integration with other RIEGL ALS Systems and software packages

helicopter

Tecnam P2006T

CASA 212

UAV Schiebel Camcopter

Baltic sea, Atlantic floodplains, rivers

costal survey example data Baltic Sea surf zone and beach near Rostock/Germany

sand banks in 4m depth from low altitude

and from 600 m height broad flight strip from 600 m AGL detailed wide area-capture of ground structure

Fjord Mapping near Stavanger

Denmark

Lake Constance

Florida Keys

Adriatic Sea

Adriatic Sea more than 15 m depth from eye-safe altitude

large-scale surveying of rivers full coverage of riverbed, riverbank, and surrounding area requires careful planning concerning precipitation, snowmelt etc.

Lake Ammersee, Estuary

point cloud classification refraction correction

what it s all about

classification of water surface points - each scan line (strip) is processed independently - input: - geo-referenced scan line from VQ-820-G with sufficient density of surface returns - optionally: scan data from additional laser scanner

classification of water surface points examples white caps high waves motor boat typical profiles crossing coast line

classification of water surface points examples (2) Aerial image water surface (left) vs. low vegetation (right)

generation of WSM outline of the methode step 1: consider only cells within regions of sufficiently high point density - for each cell, fit a plane to all nearby water surface points - criteria for a successful reliable plane fit: - enough points (at least a predefined minimum number) - suitable point distribution (i.e. no collinear arrangement) - low gradient (plane must not exceed a given maximum tilt angle) - if plane fit successful (cell type 1): - determine height of plane at cell s center z WSM - store it together with normal vector n WSM - otherwise: cell type 2 (if containing water surface point(s)) or cell type 3

generation of WSM results (1) WSM in case of high waves (ocean mode): elevation WSM (displayed as normal vector field) and water surface points (z-color-coded)

refraction correction (1) Intersection of ray with WSM:

refraction correction (2)

laser scanning system for combined topographic and bathymetric applications

In a nutshell based on RIEGL LMS-Q1560 platform fully integrated turn-key solution new scan mechanism improved measurement rate improved penetration full waveform recording for every laser shot

Key specifications wavelength measurment range topography measurment range hydrography ranging accuracy 532 nm (visible green light) 2500 m at ρ 20% 3600 m at ρ 60% >1 Secchi depth bright ground 25 mm FOV +/- 20 beam divergence measurement rate scan speed laser safety multiple time around yes selectable, 0.7-2 mrad 520 khz 10 80 revolutions/second Laser Class 3B

VQ-880-G features power consumption: 550W weight: 60 kg dimensions: 444 x 444 x 615 mm³

Scan pattern

Interfaces and system components Gbit Ethernet High-speed fiber link to RIEGL DR1560 data recorder 18-32 V DC power supply integrated digital camera (29 Mpixel RGB) integrated IMU/GNSS RIEGL DR1560 for data storage

Results Innovation in 3D

Thank you for your kind attention! Martin Pfennigbauer RIEGL AUSTRIA mpfennigbauer@riegl.com Andres Vargas RIEGL USA, Orlando, FL avargas@rieglusa.com