RESEPI LITE OS1-64 NDAA Compliant Drone LiDAR Mapping Payload System

RESEPI LITE with Ouster OS1-64 REV7 NDAA-Compliant 64-Channel Drone LiDAR for Dense Scenes and Complex Geometry The RESEPI LITE OS1-64 combines Ouster digital LiDAR with Inertial Labs precision navigation, onboard processing and optional RGB imaging in a compact government-ready payload. Its 64 laser channels, 360-degree horizontal coverage and 45-degree vertical field of view are especially valuable when the mission requires a dense representation of buildings, vehicles, poles, facades and other vertical features. For law enforcement, emergency management and civil government, the OS1-64 is best positioned as the high-throughput member of the RESEPI LITE family: a strong fit for urban scenes, tactical sites, public facilities, damaged structures and mobile mapping where scene density and rapid collection matter more than chasing the longest advertised range. 64 laser channels 2.621 million points/sec 45° vertical field of view 1.0 kg without camera Request a Configured Quote Compare Drone LiDAR Systems A compact RESEPI LITE payload built around the 64-channel Ouster OS1-64 REV7 scanner. What Sets the OS1-64 Apart Designed to Collect More Geometry Around the Aircraft Many airborne LiDAR systems are selected primarily for range or downward-looking terrain work. The OS1-64 takes a different approach. Its 64 channels, broad vertical field of view and high dual-return measurement rate help build a dense record of the environment surrounding the sensor. That makes the payload particularly useful when the point cloud must preserve walls, curbs, vehicles, poles, fences, roofs, facades and other geometry that may be underrepresented by a narrower scan pattern. Simple model-selection rule: Choose the OS1-64 when dense structures and vertical scene detail are the priority. Consider an XT-32 or XT-32M2X configuration when tighter published scanner range accuracy, more returns or higher-altitude area coverage matter more. RESEPI integrates the scanner with inertial navigation, GNSS, onboard computing, storage and field-control software. RESEPI Sensor Fusion A Complete Georeferenced Mapping Payload RESEPI combines the Ouster scanner with an Inertial Labs GPS-aided inertial navigation system, tactical-grade IMU, single- or dual-antenna GNSS, Linux-based processing core and data-logging software. The payload can be controlled by a hardware button or through a wirelessly connected device using a web interface. RTK and PPK workflows support accurate positioning, while the optional 24 MP RGB camera adds imagery for colorized point clouds and complementary photogrammetry. 3-5 cm Published system vertical accuracy under specified test conditions 2.621M pts/sec Maximum published dual-return pulse rate 90 m Published range to suitable 10% reflectivity targets on all channels 75 m Recommended maximum operating altitude AGL 1.0 kg Payload weight without the optional camera 41 W Payload power consumption Digital LiDAR Meets Precision Navigation Ouster Scanning Integrated With Inertial Labs RESEPI Ouster's digital LiDAR architecture packages high-resolution 3D scanning into a compact sensor suited to robotics, industrial perception and mobile mapping. Inertial Labs adds the navigation, timing, data logging and processing foundation required to turn those measurements into a georeferenced mapping product. Inside the RESEPI LITE OS1-64, the two technologies serve different but complementary roles: the Ouster sensor captures dense environmental geometry, while the Inertial Labs INS and processing core determine where those measurements belong in space. The result is a versatile payload for aerial, vehicle, handheld and robotic collection—particularly attractive when a government team needs one scanner architecture to capture structures, sites and surrounding context from more than one platform. Mission-Focused Applications Dense 3D Data for Public Safety and Civil Government The OS1-64's greatest operational value is its ability to represent complex scenes quickly and from a wide range of viewing angles. Crime and Accident-Scene Documentation The wide scan geometry can capture roadway context, vehicles, structures, signs, barriers, poles and other vertical features around a large outdoor scene. Major collision and roadway documentation Large outdoor crime scenes Building, vehicle and perimeter context Colorized point clouds with the optional RGB camera Tactical and Pre-Incident Planning Dense geometry can improve understanding of routes, facades, overhead obstructions, walls, fences and other features that matter during planning. Correctional facilities and government campuses Schools, stadiums and public-event sites Ingress, egress and perimeter planning Vertical obstacles and line-of-sight context Emergency Management and Structural Damage After storms, fires, floods or infrastructure failures, the OS1-64 can document damaged structures and surrounding access conditions in one spatial dataset. Debris fields and damaged facilities Road, bridge and access-route assessment Public infrastructure and critical sites Pre-event and post-event comparison GIS, CAD and Public Works The scanner can support municipal mapping programs that need a dense record of sites, structures and vertical assets for analysis or design. Municipal GIS and asset inventories Construction progress and volumetrics Buildings, curbs, poles and roadside features Point-cloud inputs for CAD and engineering workflows Mobile, Handheld and Robotic Mapping The 360-degree scanner is naturally suited to collection from ground platforms as well as drones, extending the usefulness of the payload beyond a single aircraft. Vehicle-mounted mobile mapping Pedestrian and handheld collection Autonomous and robotic platforms Supplemental ground capture around aerial projects Optional RGB Mapping Add Colorization and Image-Based Deliverables 24 MP RGB Mapping Camera The optional 24 MP camera uses a Sony E-mount 16 mm lens with an approximately 70-degree field of view. It adds visual context to the LiDAR geometry and can support complementary image products. Colorized point clouds Crime-scene and damage-assessment imagery Orthomosaics and photogrammetric models Clearer GIS, CAD and stakeholder deliverables Recommended software division: Use the appropriate Inertial Labs workflow for RESEPI trajectory and LiDAR processing. Add PIX4D when the mission also requires orthomosaics, photogrammetric models, DSMs, contours or image-based CAD deliverables. From Collection to Deliverable A Practical OS1-64 Mapping Workflow 1 Define the Geometry That Matters Identify the structures, vertical assets, terrain, scene boundaries, accuracy requirements and final deliverables before planning the flight or mobile route. 2 Plan for Dense Coverage Select altitude, speed, path spacing and viewing geometry that place sufficient measurements on facades, vehicles, poles and other target features. 3 Check the Data in the Field Use included field-check capabilities to identify missing coverage before the scene, aircraft and personnel are demobilized. 4 Process and Deliver Complete pre-processing and supported post-processing, then prepare the point cloud, colorization, GIS, CAD, photogrammetry or operational products. MAXSUR AirOps Training Turn High Point Density Into Better Deliverables More points are only useful when the mission is planned and processed correctly. MAXSUR can train operators to connect the OS1-64's scan geometry to repeatable public-safety and government workflows. Aircraft and payload integration Flight speed, altitude, overlap and scan geometry RTK, PPK, base stations and corrections Ground control and accuracy verification Field checks and point-cloud quality assurance PIX4D, GIS and CAD handoff SOP development and recurring proficiency Explore UAS Training and Program Support Technical Specifications RESEPI LITE OS1-64 System Details Final configuration should be selected around the aircraft, imaging option, operating platform, control workflow and required deliverables. Download the RESEPI LITE OS1-64 Datasheet System Performance System vertical accuracy 3-5 cm under published Inertial Labs test conditions Precision 4-6 cm Precision after single 1-sigma noise removal 2-4 cm Recommended maximum AGL Up to 75 m Weight 1.0 kg without camera; 1.4 kg with camera Dimensions 20.6 x 16.5 x 14.2 cm Example maximum flight time 33 minutes on DJI M300 under manufacturer test conditions External storage 256 GB USB included System computer Quad core, 1 GB RAM and 8 GB eMMC Operational voltage 9-45 V Power consumption 41 W Ouster OS1-64 REV7 LiDAR Scanner Range capability 90 m to suitable 10% reflectivity targets on all channels; 0.5-200 m overall range envelope in the specified mode Range accuracy ±2.5 cm under the manufacturer's stated static-target method Horizontal field of view 360° Vertical field of view 45° Vertical scan angle -22.5° to +22.5° Beam divergence 0.18° horizontal; 0.18° vertical, varying with measurement range Laser channels 64 Maximum returns 2 Pulse rate 2,621,000 points/sec in dual-return mode Optional Camera Camera 24 MP RGB mapping camera Lens Sony E-mount 16 mm lens with approximately 70° field of view Maximum trigger interval 2 seconds External camera support Available on select configurations GPS-Aided Inertial Navigation IMU Inertial Labs tactical-grade Kernel IMU GNSS Single- or dual-antenna configuration Supported constellations GPS, GLONASS, Galileo, BeiDou, QZSS, NavIC/IRNSS, SBAS and available L-Band configurations Frequencies L1, L2 and L5, dependent on receiver configuration Operation modes RTK and PPK Output rates Up to 200 Hz INS; up to 2,000 Hz IMU Pitch / roll accuracy 0.03° RTK; 0.004° PPK Heading accuracy 0.1° RTK; 0.02° PPK Velocity accuracy <0.03 m/s Position accuracy 1 cm + 1 ppm RTK; 0.5 cm PPK under specified conditions Software Field checks Included Pre-processing Included Post-processing Supported Published values are based on Inertial Labs and scanner test conditions. Actual range, accuracy, point density and deliverable quality depend on target reflectivity, altitude, speed, atmospheric conditions, GNSS quality, calibration, collection geometry, processing and control practices. Complete the Mapping Workflow Related MAXSUR Resources All Drone LiDAR Systems Compare RESEPI payloads by point production, range, accuracy, returns, field of view, weight and mission fit. Survey and Mapping Targets Establish control, verify project accuracy and connect aerial data with survey, GIS, CAD and forensic workflows. PIX4D Photogrammetry and Mapping Software Add orthomosaics, photogrammetric models, DSMs, contours and CAD-oriented imagery to the LiDAR workflow. Configured and Supported by MAXSUR Choose the OS1-64 for Dense Structures and Complex Scenes Tell MAXSUR what must be documented, the collection platform, target geometry, required accuracy and final GIS, CAD, forensic or emergency-management deliverable. We can help determine whether the OS1-64's high point throughput is the right fit—or whether another RESEPI scanner better serves the mission. Contact MAXSUR Compare Drone LiDAR Systems