RIEGL LMS-Q780. The Versatile, High Altitude Airborne LIDAR Sensor

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RIEGL LMS-Q780 3050m 400kHz The full waveform airborne laser scanner offers great versatility, accuracy, and data quality. The scanner enables you to successfully deliver your projects with industry leading efficiency. colored point cloud The Versatile, High Altitude Airborne LIDAR Sensor Typical Applications High Altitude Wide Area Mapping Glacier & Snowfield Mapping Topography & Mining Flood Zone Mapping Corridor Mapping Large Scale National Mapping Mapping of Lakesides & River Banks Agriculture & Forestry www.riegl.com Scan this QR code with your smart phone to get further information about the. RIEGL LMS GmbH, Austria RIEGL USA Inc. RIEGL Japan Ltd.

Innovation in 3D Colored Point Cloud Ötscher, Austria, 2012 Acquisition Parameter: Scanner: Data Recorder: DR680 Field of View: 60 PRR: 400 khz Scan Area: 57 km² Scan Points: 716 Mio. Scan Time: 0:27 h Average Point Density: 13 points/m² Flight Parameter: 997m - 2420 m AGL (3000 m above MSL) 110 knots Flight Time: 0:45 h RIEGL Laser Measurement Systems GmbH assumes no responsibility or liability what so ever regarding the correctness, appropriateness, completeness, up-to-dateness, and quality content and for the accuracy of the depicted objects respectively. All rights reserved. Copyright RIEGL Laser Measurement Systems GmbH, Horn, Austria, 2013 www.riegl.com

One Versatile LIDAR Sensor- Executive Summary Take off with the! The is the versatile high altitude airborne LIDAR sensor for all projects: from corridor to wide-area, and large-scale national mapping. RIEGL delivers unrivaled efficiency at low operating costs. Highlights The, with up to 10 simultaneous pulses in the air, results in the most effective spacing on the ground. This eliminates the need of terrain following while retaining a high effective rate. Industry leading digital signal processing, combined with the comprehensive RIEGL software suite, delivers high-quality LIDAR Data. The delivers straight parallel scan lines and more equally spaced laser footprints on the ground. Even small objects can be detected by the high-resolution Matrix Scan Pattern. RIEGL FOV 60 Others The, operated at up to 10,000 feet above ground with its full Field of View of 60 degrees, provides both a wide effective swath width and a narrow point spacing simultaneously. This results in minimizing operating costs. The digital full waveform sensor provides access to detailed target parameters by digitizing the echo signal online during data acquisition and subsequent offline waveform analysis. The instrument is ideally suited for tightly coupled GNSS/IMU integration for acquiring position and orientation of the platform within a global coordinate system. Conclusions Great versatility, accuracy and data quality Up to 10 pulses in the air handled simultaneously, offering industry leading digital signal processing and software The delivers perfectly, straight parallel and high resolution scan lines - described as Matrix Scan Pattern With a very wide effective swath width, the delivers unrivaled operating efficiency Applicable from high altitude wide area mapping to low flight altitude corridor mapping The is your versatile airborne sensor solution! Copyright RIEGL Laser Measurement Systems 2013 page 3 of 6

Leading Technology in ALS Leading Technology in Airborne Scanning Rotating Polygon Mirror - resulting in straight, parallel scan lines on the ground RiSOFTWARE - complete data acquisition and processing software suite for airborne mapping Reliability - trust in the high quality of RIEGL products and software solutions Rotating Polygon Mirror The clear advantage of polygon mirrors compared to other currently used techniques on the market is the continuous and smooth rotation of the mirror which leads to straight parallel scan lines on the ground. The achievable scan rates are high and allow flexible adjustment for obtaining an even distribution of points on the ground. Furthermore low vibrations and low stress on the deflecting mirror surfaces and the scan mechanism maintain constant and replicable measurement accuracy and reliability. RiSOFTWARE RiACQUIRE Project-oriented scandata acquisition and scanner control Online visualization of geo-referenced monitoring data during acquisition Quality assurance with detailed history of events, systen parameters and operator s interactions Status feedback for fast recognition by the operator 3D visualization Simplifies the acquisition process easily and effectively RiPROCESS Project-oriented scandata software for managing and processing RIEGL ALS and MLS data Operation in a multiple-workstation environment, parallel task processing Fast access to data for inspection in different visualization formats System calibration and scandata adjustment Statistical analysis of referencing, matching quality Interfacing to third party software packages Resulting in a very high quality geo-referenced point cloud RiMTA handling multiple pulses in the air, simultaneously! Automatic resolution of range ambiguity in time-of-flight ranging Unlimited number of MTA zones Smoothly integrated in the RIEGL data processing workflow No terrain following required MTA 3 MTA 1 MTA 2 Reliability Our customers rely on the to work smoothly in demanding environments. The overall system design and quality of manufacturing provides the legendary RIEGL reliability. page 4 of 6

Scan Performance Scan Performance - Maximum Operating Efficiency Matrix Scan Pattern - stands for equally spaced laser footprints on the ground Wide Effective Swath Width - results in a very low number of necessary flight lines Matrix Scan Pattern across spacing - point distribution along spacing scan line The scanner delivers straight parallel scan lines and an equally dense laser footprint on the ground. Even small objects may be detected by the high resolution Matrix Scan Pattern. The parameters across spacing and along spacing refer to the point distance within a scan line and between the scan lines, respectively. There is a large difference between along spacing and across spacing leading to significant gaps in the point cloud which also means a reduction of the sampling quality. The shorter the maximum gap between measurements on the ground, the better small objects may be detected. Small, consistent gaps represent a high sampling quality, which is enabled by RIEGL s Matrix Scan Pattern. Wide Effective Swath Width RIEGL FOV 60 Others The broad swath width of the results in a low number of necessary flight lines for surveying a designated area. It takes about twice the number of flight lines to survey the same area with other instruments on the market, because the user is forced to apply a quite narrow FOV and hence to fly for considerably longer time. A side effect of this is that with a smaller swath also the straightness of the lines is more critical in order to provide sufficient overlap which poses higher demands on the pilots or requires the use of stabilized platforms. The offers a wide effective swath width from different altitudes. The necessary flight lines for surveying a designated area are reduced to a minimum. The Acquisition Time to cover a certain area of 10 km x 10 km with at least 4 measurements per square meter, will take with the only a shade more than one hour. The offers outstanding operating efficiency. Copyright RIEGL Laser Measurement Systems 2013 page 5 of 6

Key Facts Key Facts Technical Data Main Features Complete Data Acquisition & Processing Software Suite Technical Data not intrinsically eye safe 400kHz pulse repetition rate PRR (peak) waveform data output 3050m max. operating flight altitude AGL multiple target capability full waveform processing Eye Safety Class Laser Class 3B* Max. Range Target Reflectivity 60% 5400 m Max. Range Target Reflectivity 20% 3750 m Minimum Range 50 m Accuracy 20 mm Effective Measurement Rate up to 266 000 meas./sec Field of View (FOV) up to 60 Max. Operating Flight Altitude AGL 3050 m / 10.000 ft *Class 3B Laser Product according to IEC60825-1:2007 Main Features up to 266 000 measurements/sec on the ground even from a typical operating flight altitude of 6700 ft multiple time around processing: up to 10 pulses (MTA 10) simultaneously in the air full waveform analysis for unlimited number of target echoes high laser pulse repetition rate up to 400 khz high ranging accuracy up to 20 mm wide scan field of view up to 60 suited for measuring snowy and icy terrain Complete Data Acquisition & Processing Software Suite RiACQUIRE RiANALYZE RiWORLD RiPROCESS RiMTA Datasheet White Paper RiACQUIRE ALS Software RiPROCESS ALS Software RiMTA ALS Software Watch our videos! youtube.com/riegllms Visit our website to read the Datasheets, White Paper, and get further information, also about the broad RIEGL Product Line. www.riegl.com page 6 of 6 Copyright RIEGL Laser Measurement Systems 2013