
Explore how drones transform surveying and related industries, with guidance on selecting, flying, programming flights, and processing data to map the topographic distribution of sites.
Compare rotor and fixed-wing drones to choose the best fit for your surveying project. Learn practical steps in app setup, calibration, and planning for efficient drone mapping.
Explore the theory behind RTK GPS and differential positioning, including real-time and post-processed methods, base stations and rovers, and the role of ground control points in drone georeferencing.
Learn how to plan a drone survey route using simple software, set photo overlap, monitor battery and coverage, and decide when to switch to manual flight in challenging terrain.
Place ground control points with accurate GPS coordinates using RTK or PPK. Distribute them to form a regular grid, with at least four points, use fixed markers and avoid edges.
Manage drone survey data storage by estimating memory needs from photo counts, resolution, and overlap, and plan for high-capacity memory cards and processing requirements.
Upload photos, align them, build a dense point cloud, and generate a mesh, texture, and elevation model with contours, using utm coordinates and medium accuracy.
Use ground control points to align photos and minimize errors for an accurate dense point cloud. Build meshes, classify ground points, and generate orthophotos and contours with batch processing.
Export drone survey data by generating a report with title, projection, and metrics. Improve accuracy with ground control points and export formats such as point clouds, meshes, and TIFF.
Explore how drones drive business efficiency by enabling volume calculations, surveys, and spectral analysis across mining, infrastructure, agriculture, and urban planning, while outlining pricing, cost recovery, and data processing.
Professional guide for drone surveying provides a comprehensive introduction to data acquisition, processing and technique for this nascent industry. this course delivers actionable insight into the tremendous market opportunity for UAS-based photogrammetry and orthomosaic photography.
The main focus of this course is to teach the student concepts and best practices for drone deployment, data processing and generation of 3D models and orthophoto mosaics
Drones, or to give the technology its correct moniker, unmanned aerial vehicles (UAVs) or unmanned aerial systems (UASs), are a rapidly evolving and highly adaptable form of disruptive technology. The technology has multiple potential applications within numerous surveying-related sectors, which range from geospatial surveying and mapping to scanning, building surveys, environmental monitoring and agriculture, to name just a few. This insight paper is designed to address a complex sector and to underline the critical importance of adhering to national and regional legislation and the associated regulations. UAVs are easy to access but more challenging to use. These challenges range from adhering to the relevant jurisdiction’s operating regulations, understanding the necessity for appropriate levels of training (piloting) and assessments to, importantly, providing the survey output clients expect from a professional surveyor. Although UAVs can be used for a wide variety of survey-related applications, we also wanted to give surveyors an insight into the importance of the sensors the drones carry, and how development of these sensors will play a pivotal role in the future success of the sector. Technological miniaturisation of laser scanning equipment, such as LiDAR, and the resurgence of high accuracy photogrammetry (and its related software) have meant UAV output and accuracy can now compete with the more established technology, such as satellite imagery and manned aircraft. Yet it is important to understand not only the potential applications of UAV use, but also its limitations. UAVs have evolved beyond the ‘hype’ and are now starting to become operationally viable on an expanding commercial basis. Of course, UAVs are not just for surveyor use and can be used by numerous other professions and sectors, but we are part of a broad church and believe that this insight paper provides an opportunity to understand and appreciate the potential benefits of UAV use.